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Losing a patient to suicide: What we know

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Losing a patient to suicide: What we know

Studies have found that 1 in 2 psychiatrists,1-4 and 1 in 5 psychologists, clinical social workers, and other mental health professionals,5 will lose a patient to suicide in the course of their career. This statistic suggests that losing a patient to suicide constitutes a clear occupational hazard.6,7 Despite this, most mental health professionals continue to view suicide loss as an aberration. Consequently, there is often a lack of preparedness for such an event when it does occur.

This 2-part article summarizes what is currently known about the unique personal and professional issues experienced by clinician-survivors (clinicians who have lost patients and/or loved ones to suicide). In Part 1, I cover:

  • the impact of losing a patient to suicide
  • confidentiality-related constraints on the ability to discuss and process the loss
  • legal and ethical issues
  • colleagues’ reactions and stigma
  • the effects of a suicide loss on one’s clinical work.

Part 2 will discuss the opportunities for personal growth that can result from experiencing a suicide loss, guidelines for optimal postventions, and steps clinicians can take to help support colleagues who have lost a patient to suicide. 

 

A neglected topic

For psychiatrists and other mental health professionals, the loss of a patient to suicide is certainly not uncommon.1-5 Despite this, coping with a patient’s suicide is a “neglected topic”8 in residency and general mental health training.

There are many published articles on clinicians experiencing suicide loss (for a comprehensive bibliography, see McIntosh9), and several authors10-19 have developed suggestions, guidelines, and detailed postvention protocols to help clinicians navigate the often-complicated sequelae to such a loss. However, these resources have generally not been integrated into clinical training, and tend to be poorly disseminated. In a national survey of chief residents, Melton and Coverdale20 found that only 25% of residency training programs covered topics related to postvention, and 72% of chief residents felt this topic needed more attention. Thus, despite the existence of guidelines for optimal postvention and support, clinicians are often left to cope with the consequences of this difficult loss on their own, and under less-than-optimal conditions.

A patient’s suicide typically affects clinicians on multiple levels, both personally and professionally. In this article, I highlight the range of normative responses, as well as the factors that may facilitate or inhibit subsequent healing and growth, with the hope that this knowledge may be utilized to help current and future generations of clinician-survivors obtain optimal support, and that institutions who treat potentially suicidal individuals will develop optimal postvention responses following a suicide loss. Many aspects of what this article discusses also apply to clinicians who have experienced a suicide loss in their personal or family life, as this also tends to “spill over” into one’s professional roles and identity.

Grief and other emotional effects

In many ways, clinicians’ responses after a patient’s suicide are similar to those of other survivors after the loss of a loved one to suicide.21 Chemtob et al2 found that approximately one-half of psychiatrists who lost a patient to suicide had scores on the Impact of an Event Scale that were comparable to those of a clinical population seeking treatment after the death of a parent.

Continue to: Jordan and McIntosh have detailed...

 

 

Jordan and McIntosh22 have detailed several elements and themes that differentiate suicide loss and its associated reactions from other types of loss and grief. In general, suicide loss is considered traumatic, and is often accompanied by intense confusion and existential questioning, reflecting a negative impact on one’s core beliefs and assumptive world. The subsequent need to address the myriad of “why” questions left in its wake are often tinted with what Jordan and Baugher23 term the “tyranny of hindsight,” and take the form of implicit guilt for “sins of omission or commission” in relation to the lost individual.

Responses to suicide loss typically include initial shock, denial and numbness, intense sadness, anxiety, anger, and intense distress. Consistent with the traumatic nature of the loss, survivors are also likely to experience posttraumatic stress disorder symptoms such as intrusive thoughts, avoidance, and dissociation. Survivors also commonly experience significant guilt and shame, and this is likely to be socially reinforced by the general stigma associated with suicide as well as the actual blaming and avoidance responses of others.24-27

Clinicians’ unique reactions

For clinicians, there are additional components that may further complicate or exacerbate these reactions and extend their duration. First and foremost, such a loss affects clinicians on both personal and professional levels, a phenomenon that Plakun and Tillman13 have termed a “twin bereavement.” Thus, in addition to the personal grief and trauma reactions entailed in losing a patient to suicide, this loss is likely to impact clinicians’ professional identities, their relationships with colleagues, and their clinical work.

Clinicians’ professional identities are often predicated on generally shared assumptions and beliefs that, as trained professionals, they should have the power, aptitude, and competence to heal, or at least improve, the lives of patients, to reduce their distress, and to provide safety. In addition, such assumptions about clinicians’ responsibility and ability to prevent suicide are often reinforced in the clinical literature.28,29

These assumptions are often challenged, if not shattered, when patients take their own lives. A clinician’s sense of professional responsibility, the guilt and self-blame that may accompany this, self-doubts about one’s skills and clinical competence, the fear of (and actual) blame of colleagues and family members, and the real or imagined threat of litigation may all greatly exacerbate a clinician’s distress.11

Continue to: Hendin et al found...

 

 

Hendin et al30 found that mental health therapists have described losing a patient as “the most profoundly disturbing event of their professional careers,” noting that one-third of these clinicians experienced severe distress that lasted at least 1 year beyond the initial loss. In a 2004 study, Ruskin et al4 similarly found that one-quarter of psychiatrists and psychiatric trainees noted that losing a patient had a “profound and enduring effect on them.” In her article on surviving a patient’s suicide, Rycroft31 describes a “professional void” following the loss of her patient, in which “the world had changed, nothing was predictable any more, and it was no longer safe to assume anything.” Additionally, many clinicians experience an “acute sense of aloneness and isolation” subsequent to the loss.32

Many clinicians have noted that they considered leaving the field after such a loss,33,34 and it is hypothesized that many may have done so.35-37 Others have noted that, at least temporarily, they stopped treating patients who were potentially suicidal.29,35

Box 1

Clinicians’ grief trajectories after a losing a patient to suicide

Several authors have proposed general models for describing the suicide grief trajectories of clinicians after a suicide loss. Tillman38 identified distinct groups of responses to this event: traumatic, affective, those related to the treatment, those related to interactions with colleagues, liability concerns, and the impact on one’s professional philosophy. She also found that Erikson’s stages of identity39 provided an uncannily similar trajectory to the ways in which those who participated in her research—clinicians at a mental hospital—had attempted to cope with their patients’ deaths, noting that the “suicide of a patient may provoke a revisiting of Erikson’s psychosocial crises in a telescoped and accelerated fashion.”38

Maltsberger40 offered a detailed psychoanalytic analysis of the responses clinicians may manifest in relation to a suicide loss, including the initial narcissistic injury sustained in relation to their patient’s actions; the subsequent potential for melancholic, atonement, or avoidance reactions; and the eventual capacity for the resolution of these reactions.

Al-Mateen et al33 described 3 phases of the clinician’s reaction after losing a patient who was a child to suicide:

  • initial, which includes trauma and shock
  • turmoil, which includes emotional flooding and functional impairments
  • new growth, in which clinicians are able to reflect on their experiences and implications for training and policy.

For each phase, they also described staff activities that would foster forward movement through the trajectory.

In a 1981 study, Bissell41 found that psychiatric nurses who had experienced patient completed suicides progressed through several developmental stages (naïveté, recognition, responsibility, individual choice) that enabled them to come to terms with their personal reactions and place the ultimate responsibility for the suicide with the patient.

After losing a patient to suicide, a clinician may experience grief that proceeds through specific stages (Box 133,38-41). Box 22-4,6,16,24,29,30,33,34,40,42-45  describes a wide range of factors that affect each clinician’s unique response to losing a patient to suicide.

Box 2

Factors that affect a clinician’s response to losing a patient to suicide

There are many factors that make the experience of losing a patient to suicide unique and variable for individual clinicians. These include the amount of a clinician’s professional training and experience, both in general and in working with potentially suicidal individuals. Chemtob et al2 found that trainees were more likely to experience patient suicide loss than more seasoned clinicians, and to experience more distress.4,30,42 Brown24 noted that many training programs were likely to assign the most “extraordinarily sick patients to inexperienced trainees.” He noted that because the skill level of trainees has not yet tempered their personal aspirations, they are likely to experience a patient’s suicide as a personal failure. However, in contrast to the findings of Kleespies,42 Hendin,30 Ruskin et al,4 and Brown24 suggested that the overall impact of a patient’s suicide may be greater for seasoned clinicians, when the “protective advantage” or “explanation” of being in training is no longer applicable. This appears consistent with Munson’s study,43 which found that a greater number of years of clinical experience prior to a suicide loss was negatively correlated with posttraumatic growth.

Other factors affecting a clinician’s grief response include the context in which the treatment occurred, such as inpatient, outpatient, clinic, private practice, etc.44; the presence and involvement of supportive mentors or supervisors16; the length and intensity of the clinical relationship6,29; countertransference issues40; whether the patient was a child33; and the time elapsed since the suicide occurred.

In addition, each clinician’s set of personal and life experiences can affect the way he/ she moves through the grieving process. Any previous trauma or losses, particularly prior exposure to suicide, will likely impact a clinician’s reaction to his/her current loss, as will any susceptibility to anxiety or depression. Gorkin45 has suggested that the degree of omnipotence in the clinician’s therapeutic strivings will affect his/her ability to accept the inherent ambiguity involved in suicide loss. Gender may also play a role: Henry et al34 found that female clinicians had higher levels of stress reactions, and Grad et al3 found that female clinicians felt more shame and guilt and professed more doubts about their professional competence than male clinicians, and were more than twice as likely as men to identify talking with colleagues as an effective coping strategy.

Continue to: Implications of confidentiality restrictions

 

 

Implications of confidentiality restrictions

Confidentiality issues, as well as advice from attorneys to limit the disclosure of information about a patient, are likely to preclude a clinician’s ability to talk freely about the patient, the therapeutic relationship, and his/her reactions to the loss, all of which are known to facilitate movement through the grief process.46

The development of trust and the sharing of pain are just 2 factors that can make the clinical encounter an intense emotional experience for both parties. Recent trends in the psychodynamic literature acknowledge the profundity and depth of the personal impact that patients have on the clinician, an impact that is neither pathological nor an indication of poor boundaries in the therapy dyad, but instead a recognition of how all aspects of the clinician’s person, whether consciously or not, are used within the context of a therapeutic relationship. Yet when clinicians lose a patient, confidentiality restrictions often leave them wondering if and where any aspects of their experiences can be shared. Legal counsel may advise a clinician against speaking to consultants or supervisors or even surviving family members for fear that these non-privileged communications are subject to discovery should any legal proceedings ensue. Furthermore, the usual grief rituals that facilitate the healing of loss and the processing of grief (eg, gathering with others who knew the deceased, sharing feelings and memories, attending memorials) are usually denied to the clinician, and are often compounded by the reactions of one’s professional colleagues, who tend not to view the therapist’s grief as “legitimate.” Thus, clinician-survivors, despite having experienced a profound and traumatic loss, have very few places where this may be processed or even validated. As one clinician in a clinician-survivors support group stated, “I felt like I was grieving in a vacuum, that I wasn’t allowed to talk about how much my patient meant to me or how I’m feeling about it.” The isolation of grieving alone is likely to be compounded by the general lack of resources for supporting clinicians after such a loss. In contrast to the general suicide “survivor” network of support groups for family members who have experienced a suicide loss, there is an almost complete lack of supportive resources for clinicians following such a loss, and most clinicians are not aware of the resources that are available, such as the Clinician Survivor Task Force of the American Association of Suicidology (Box 312).

Box 3

The Clinician Survivor Task Force

Frank Jones and Judy Meade founded the Clinician Survivor Task Force (CSTF) of the American Association of Suicidology (AAS) in 1987. As Jones noted, “clinicians who have lost patients to suicide need a place to acknowledge and carry forward their personal loss … to benefit both personally and professionally from the opportunity to talk with other therapists who have survived the loss of a patient through suicide.”12

Nina Gutin, PhD, and Vanessa McGann, PhD, have co-chaired the CSTF since 2003. It now supports clinicians who have lost patients and/or loved ones, with the recognition that both types of losses carry implications within clinical and professional domains. The CSTF provides a listserve, opportunities to participate in video support groups, and a web site (www. cliniciansurvivor.org) that provides information about the clinician-survivor experience, the opportunity to read and post narratives about one’s experience with suicide loss, an updated bibliography maintained by John McIntosh, PhD, a list of clinical contacts, and a link to several excellent postvention protocols. In addition, Drs. Gutin and McGann conduct clinician-survivor support activities at the annual AAS conference, and in their respective geographic areas.

Continue to: Doka has described...

 

 

Doka47 has described “disenfranchised grief” in which the bereaved person does not receive the type and quality of support accorded to other bereaved persons, and thus is likely to internalize the view that his/her grief is not legitimate, and to believe that sharing related distress is a shame-ridden liability. This clearly relates to the sense of profound isolation and distress often described by clinician-survivors.

Other legal/ethical issues

The clinician-survivor’s concern about litigation, or an actual lawsuit, is likely to produce intense anxiety. This common fear is both understandable and credible. According to Bongar,48 the most common malpractice lawsuits filed against clinicians are those that involve a patient’s suicide. Peterson et al49 found that 34% of surviving family members considered bringing a lawsuit against the clinician, and of these, 57% consulted a lawyer.

In addition, an institution’s concern about protecting itself from liability may compromise its ability to support the clinician or trainee who sustained the loss. As noted above, the potential prohibitions around discussing the case can compromise the grief process. Additionally, the fear of (or actual) legal reprisals against supervisors and the larger institution may engender angry and blaming responses toward the treating clinician. In a personal communication (April 2008), Quinnett described an incident in which a supervising psychologist stomped into the grieving therapist’s office unannounced and shouted, “Now look what you’ve done! You’re going to get me sued!”

Other studies29,50,51 note that clinician-survivors fear losing their job, and that their colleagues and supervisors will be reluctant to assign new patients to them. Spiegleman and Werth17 also note that trainees grapple with additional concerns over negative evaluations, suspension or termination from clinical sites or training programs, and a potential interruption of obtaining a degree. Such supervisory and institutional reactions are likely to intensify a clinician’s sense of shame and distress, and are antithetical to postvention responses that promote optimal personal and professional growth. Such negative reactions are also likely to contribute to a clinician or trainee’s subsequent reluctance to work with suicidal individuals, or their decision to discontinue their clinical work altogether. Lastly, other ethical issues, such as contact with the patient’s family following the suicide, attending the funeral, etc., are likely to be a source of additional anxiety and distress, particularly if the clinician needs to address these issues in isolation.

Professional relationships/colleagues’ reactions

Many clinician-survivors have described reactions from colleagues and supervisors that are hurtful and unsupportive. According to Jobes and Maltsberger,52 “the suicide death of a patient in active treatment is commonly taken as prima facie evidence that the therapist, somehow or another, has mismanaged the case,” and thus the clinician often faces unwarranted blame and censure from colleagues and supervisors. Hendin et al30 noted that many trainees found reactions by their institutions to be insensitive and unsupportive, one noting that the department’s review of the case “felt more like a tribunal or inquest.” In a personal communication (April 2008), Quinnett noted that many clinicians he interviewed following a suicide loss reported a pattern of isolation and interpersonal discomfort with their colleagues, who implicitly or explicitly expressed concerns about their competence. He described how a respected colleague received “no understanding, no support, only abuse” from her supervisors. Such responses, while perhaps surprising from mental health professionals, probably reflect the long-standing cultural attitude of social condemnation of suicide, and of those who are associated with it.

Continue to: Negative reactions from professional colleagues...

 

 

Negative reactions from professional colleagues are most likely to occur immediately after the suicide loss and/or during the course of a subsequent investigation or psychological autopsy. Castelli-Dransart et al53 found that the lack of institutional support after a clinician experiences a suicide loss contributed to significantly higher stress responses for impacted clinicians, and may lead to a well-founded ambivalence about disclosure to colleagues, and consequent resistance to seeking out optimal supervision/consultation or even personal therapy that could help the clinician gain clarity on the effects of these issues. Many mental health professionals have described how, after the distressing experience of losing a patient to suicide, they moved through this process in relative isolation and loneliness, feeling abandoned by their colleagues and by their own hopes and expectations for support.

Stigmatization. In clinical settings, when a patient in treatment completes suicide, the treating clinician becomes an easy scapegoat for family members and colleagues. To the extent that mental health professionals are not immune from the effects and imposition of stigma, this might also affect their previously mentioned tendency to project judgment, overtly or covertly, onto the treating clinician.

Stigma around suicide is well documented.25 In The Surgeon General’s Call to Action to Prevent Suicide,54 former Surgeon General David Satcher specifically described stigma around suicide as one of the biggest barriers to prevention. Studies have shown that individuals bereaved by suicide are also stigmatized, and that those who were in caregiving roles (parents, clinicians) are believed to be more psychologically disturbed, less likable, more blameworthy, and less worthy of receiving support than other bereaved individuals.25,55-63 These judgments often mirror survivors’ self-punitive assessments, which then become exacerbated by and intertwined with both externally imposed and internalized stigma. Hence, it is not uncommon for suicide survivors to question their own right to grieve, to report low expectations of social support, and to feel compelled to deny or hide the mode of death. Feigelman et al26 found that stigmatization after a suicide loss was specifically associated with ongoing grief difficulties, depression, and suicidal thinking.

In my long-term work with clinician-survivors, I’ve come to believe that in addition to stigma around suicide, there may also be stigma projected by colleagues in relation to a clinician’s perceived emotional vulnerability. A traumatized clinician potentially challenges the notion of the implicit dichotomy/power imbalance between professionals and the patients we treat: “Us”—the professional, competent, healthy, and benevolent clinicians who have the care to offer, and “Them”—our patients, being needy, pathological, looking to us for care. This “us/them” distinction may serve to bolster a clinician’s professional esteem and identity. But when one of “us” becomes one of “them”—when a professional colleague is perceived as being emotionally vulnerable—this can be threatening to the predicates of this distinction, leading to the need to put the affected clinician firmly into the “them” camp. Thus, unwarranted condemnations of the clinician-survivor’s handling of the case, and/or the pathologizing of their normative grief reactions after the suicide loss, can seem justified.

Stigma associated both with suicide and with professional vulnerability is likely to be internalized and to have a profound effect on the clinician’s decisions about disclosure, asking for support, and ultimately on one’s ability to integrate the loss. When this occurs, it is likely to lead to even more isolation, shame, and self-blame. It is not surprising that many clinicians consider leaving the profession after this type of experience.

Continue to: Effects on clinical work

 

 

Effects on clinical work

A suicide loss is also likely to affect a clinician’s therapeutic work. Many authors12,52,64-67 have found that this commonly leads therapists to question their abilities as clinicians, and to experience a sharp loss of confidence in their work with patients. The shattered beliefs and assumptions around the efficacy of the therapeutic process, a sense of guilt or self-blame, and any perceived or actual negative judgment from colleagues can dramatically compromise a clinician’s sense of competence. Hendin et al30 noted that even the most experienced therapists expressed difficulty in trusting their own clinical judgment, or accurately assessing risk after a suicide loss.

In addition, the common grief and trauma-related responses to a suicide loss (including shock, numbness, sadness, anxiety, and generalized distress) are likely to result in at least some temporary disruption of a clinician’s optimal functioning. If trauma-related symptoms are more pronounced, the effect and longevity of such impairment may be exacerbated, and are likely to “impair clinical response and therapeutic judgment.”15 In addition, because such symptoms and states may be triggered by exposure to other potentially suicidal patients, they are more likely to impact clinical functioning when the clinician works with suicidal individuals. Thus, the normative responses to a suicide loss are likely to impact a clinician’s work, just as they are likely to impact the personal and occupational functioning of any survivor of suicide loss.

In clinician-survivor discussions and support groups I’ve led, participants have identified many common areas of clinical impact. Perhaps one of the most common early responses reported by clinician-survivors who continued to work with potentially suicidal individuals was to become hypervigilant in relation to any perceived suicide risk, to interpret such risk in such a way as to warrant more conservative interventions than are necessary, and to consequently minimize the patient’s own capacities for self-care.68 Conversely, others reported a tendency to minimize or deny suicidal potential by, for example, avoiding asking patients directly about suicidal ideation, even when they later realized that such questioning was indicated.69

Suicide loss may also lead to more subtle clinical reactions that have been observed not only with suicidal patients, but also in relation to patients who struggle with loss or grief. These include avoidant or even dissociative reactions in relation to their patient’s pain, which in turn can impact the clinician’s ability to “be fully present” or empathic in clinical encounters.50,69 Still, other clinicians noted that they tended to project residual feelings of anger onto their current suicidal patients, or envied patients who seemed to have mastered their grief. Consistent with Maltsberger’s description of “atonement reactions,”40 some clinicians found themselves doing more than should be expected for their patients, even losing their sense of professional boundaries in the process. Anderson70 noted that in pushing herself beyond what she knew were her optimal clinical boundaries, she was “punishing herself” for failing to prevent her patient’s suicide because, as she realized, “doing ‘penance’ was better than feeling helpless and powerless.” And Schultz16 described how therapists may have subsequent difficulty in trusting other patients, especially if patients who completed suicide did not disclose or denied their suicidal intent.

Working toward a supportive solution

In summary, unless clinicians who lose a patient to suicide have more supportive experiences, the combination of confidentiality-related restrictions, confusion about legal/ethical repercussions, unsupportive reactions from colleagues, and unexpected impairments in clinical work are likely to lead to intensified distress, isolation, the perceived need to “hide” the impact in professional settings, and consideration of leaving the profession. However, as I will describe in Part 2 (Current Psychiatry. November 2019), losing a patient to suicide can paradoxically present opportunities for clinicians to experience profound and personal transformation, and postvention protocols can help them navigate the often-complicated sequelae to a patient’s suicide. There is also much we can do to help support a clinician colleague who has lost a patient to suicide.

Bottom Line

For mental health clinicians, losing a patient to suicide is a clear occupational hazard. After a suicide loss, clinicians often experience unique personal and professional challenges, including the impact of the loss on clinical work and professional identity, legal/ethical issues, and confidentiality-related constraints on the ability to discuss and process the loss.

Related Resources

References

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55. Armour M. Violent death: understanding the context of traumatic and stigmatized grief. J Hum Behav Soc Environ. 2006;14(4):53-90.
56. Calhoun, LG, Allen BG. Social reactions to the survivor of a suicide in the family: a review of the literature. Omega (Westport). 1991;23(2):95-107.
57. Dunne EJ, McIntosh JL, Dunne-Maxim K, eds. Suicide and its aftermath: understanding and counseling the survivors. New York, NY: WW Norton & Co; 1987.
58. Harwood D, Hawton K, Hope J, et al. The grief experiences and needs of bereaved relatives and friends of older people dying through suicide: a descriptive and case-control study. J Affect Disord. 2002;72(2):185-194.
59. Jordan JR. Is suicide bereavement different? A reassessment of the literature. Suicide Life Threat Behav. 2001;31(1):91-102.
60. McIntosh JL. Control group studies of suicide survivors: a review and critique. Suicide Life Threat Behav. 2003;23(2):146-161.
61. Range LM. When a loss is due to suicide: unique aspects of bereavement. In: Harvey JH, ed. Perspectives on loss: a sourcebook. Philadelphia, PA: Brunner/Mazel; 1998:213-220.
62. Sveen CA, Walby FA. Suicide survivors’ mental health and grief reactions: a systematic review of controlled studies. Suicide Life Threat Behav. 2008;38(1):13-29.
63. Van Dongen CJ. Social context of postsuicide bereavement. Death Stud. 1993;17(2):125-141.
64. Bultema JK. The healing process for the multidisciplinary team: recovering post-inpatient suicide. J Psychosoc Nurs. 1994;32(2):19-24.
65. Cooper C. Patient suicide and assault: their impact on psychiatric hospital staff. J Psychosoc Nurs Ment Health Serv. 1995;33(6):26-29.
66. Foster VA, McAdams CR III. The impact of client suicide in counselor training: Implications for counselor education and supervision. Counselor Educ Supervision. 1999;39(1):22-33.
67. Little JD. Staff response to inpatient and outpatient suicide: what happened and what do we do? Aust N Z J Psychiatry. 1992;26(2):162-167.
68. Horn PJ. Therapists’ psychological adaptation to client suicidal behavior. Chicago, IL: Loyola University of Chicago; 1995.
69. Gutin N, McGann VM, Jordan JR. The impact of suicide on professional caregivers. In: Jordan J, McIntosh J, eds. Grief after suicide: understanding the consequences and caring for the survivors. New York, NY: Routledge; 2011:93-111.
70. Anderson GO. Who, what, when, where, how, and mostly why? A therapist’s grief over the suicide of a client. Women Ther. 2004;28(1):25-34.

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American Association of Suicidology
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Studies have found that 1 in 2 psychiatrists,1-4 and 1 in 5 psychologists, clinical social workers, and other mental health professionals,5 will lose a patient to suicide in the course of their career. This statistic suggests that losing a patient to suicide constitutes a clear occupational hazard.6,7 Despite this, most mental health professionals continue to view suicide loss as an aberration. Consequently, there is often a lack of preparedness for such an event when it does occur.

This 2-part article summarizes what is currently known about the unique personal and professional issues experienced by clinician-survivors (clinicians who have lost patients and/or loved ones to suicide). In Part 1, I cover:

  • the impact of losing a patient to suicide
  • confidentiality-related constraints on the ability to discuss and process the loss
  • legal and ethical issues
  • colleagues’ reactions and stigma
  • the effects of a suicide loss on one’s clinical work.

Part 2 will discuss the opportunities for personal growth that can result from experiencing a suicide loss, guidelines for optimal postventions, and steps clinicians can take to help support colleagues who have lost a patient to suicide. 

 

A neglected topic

For psychiatrists and other mental health professionals, the loss of a patient to suicide is certainly not uncommon.1-5 Despite this, coping with a patient’s suicide is a “neglected topic”8 in residency and general mental health training.

There are many published articles on clinicians experiencing suicide loss (for a comprehensive bibliography, see McIntosh9), and several authors10-19 have developed suggestions, guidelines, and detailed postvention protocols to help clinicians navigate the often-complicated sequelae to such a loss. However, these resources have generally not been integrated into clinical training, and tend to be poorly disseminated. In a national survey of chief residents, Melton and Coverdale20 found that only 25% of residency training programs covered topics related to postvention, and 72% of chief residents felt this topic needed more attention. Thus, despite the existence of guidelines for optimal postvention and support, clinicians are often left to cope with the consequences of this difficult loss on their own, and under less-than-optimal conditions.

A patient’s suicide typically affects clinicians on multiple levels, both personally and professionally. In this article, I highlight the range of normative responses, as well as the factors that may facilitate or inhibit subsequent healing and growth, with the hope that this knowledge may be utilized to help current and future generations of clinician-survivors obtain optimal support, and that institutions who treat potentially suicidal individuals will develop optimal postvention responses following a suicide loss. Many aspects of what this article discusses also apply to clinicians who have experienced a suicide loss in their personal or family life, as this also tends to “spill over” into one’s professional roles and identity.

Grief and other emotional effects

In many ways, clinicians’ responses after a patient’s suicide are similar to those of other survivors after the loss of a loved one to suicide.21 Chemtob et al2 found that approximately one-half of psychiatrists who lost a patient to suicide had scores on the Impact of an Event Scale that were comparable to those of a clinical population seeking treatment after the death of a parent.

Continue to: Jordan and McIntosh have detailed...

 

 

Jordan and McIntosh22 have detailed several elements and themes that differentiate suicide loss and its associated reactions from other types of loss and grief. In general, suicide loss is considered traumatic, and is often accompanied by intense confusion and existential questioning, reflecting a negative impact on one’s core beliefs and assumptive world. The subsequent need to address the myriad of “why” questions left in its wake are often tinted with what Jordan and Baugher23 term the “tyranny of hindsight,” and take the form of implicit guilt for “sins of omission or commission” in relation to the lost individual.

Responses to suicide loss typically include initial shock, denial and numbness, intense sadness, anxiety, anger, and intense distress. Consistent with the traumatic nature of the loss, survivors are also likely to experience posttraumatic stress disorder symptoms such as intrusive thoughts, avoidance, and dissociation. Survivors also commonly experience significant guilt and shame, and this is likely to be socially reinforced by the general stigma associated with suicide as well as the actual blaming and avoidance responses of others.24-27

Clinicians’ unique reactions

For clinicians, there are additional components that may further complicate or exacerbate these reactions and extend their duration. First and foremost, such a loss affects clinicians on both personal and professional levels, a phenomenon that Plakun and Tillman13 have termed a “twin bereavement.” Thus, in addition to the personal grief and trauma reactions entailed in losing a patient to suicide, this loss is likely to impact clinicians’ professional identities, their relationships with colleagues, and their clinical work.

Clinicians’ professional identities are often predicated on generally shared assumptions and beliefs that, as trained professionals, they should have the power, aptitude, and competence to heal, or at least improve, the lives of patients, to reduce their distress, and to provide safety. In addition, such assumptions about clinicians’ responsibility and ability to prevent suicide are often reinforced in the clinical literature.28,29

These assumptions are often challenged, if not shattered, when patients take their own lives. A clinician’s sense of professional responsibility, the guilt and self-blame that may accompany this, self-doubts about one’s skills and clinical competence, the fear of (and actual) blame of colleagues and family members, and the real or imagined threat of litigation may all greatly exacerbate a clinician’s distress.11

Continue to: Hendin et al found...

 

 

Hendin et al30 found that mental health therapists have described losing a patient as “the most profoundly disturbing event of their professional careers,” noting that one-third of these clinicians experienced severe distress that lasted at least 1 year beyond the initial loss. In a 2004 study, Ruskin et al4 similarly found that one-quarter of psychiatrists and psychiatric trainees noted that losing a patient had a “profound and enduring effect on them.” In her article on surviving a patient’s suicide, Rycroft31 describes a “professional void” following the loss of her patient, in which “the world had changed, nothing was predictable any more, and it was no longer safe to assume anything.” Additionally, many clinicians experience an “acute sense of aloneness and isolation” subsequent to the loss.32

Many clinicians have noted that they considered leaving the field after such a loss,33,34 and it is hypothesized that many may have done so.35-37 Others have noted that, at least temporarily, they stopped treating patients who were potentially suicidal.29,35

Box 1

Clinicians’ grief trajectories after a losing a patient to suicide

Several authors have proposed general models for describing the suicide grief trajectories of clinicians after a suicide loss. Tillman38 identified distinct groups of responses to this event: traumatic, affective, those related to the treatment, those related to interactions with colleagues, liability concerns, and the impact on one’s professional philosophy. She also found that Erikson’s stages of identity39 provided an uncannily similar trajectory to the ways in which those who participated in her research—clinicians at a mental hospital—had attempted to cope with their patients’ deaths, noting that the “suicide of a patient may provoke a revisiting of Erikson’s psychosocial crises in a telescoped and accelerated fashion.”38

Maltsberger40 offered a detailed psychoanalytic analysis of the responses clinicians may manifest in relation to a suicide loss, including the initial narcissistic injury sustained in relation to their patient’s actions; the subsequent potential for melancholic, atonement, or avoidance reactions; and the eventual capacity for the resolution of these reactions.

Al-Mateen et al33 described 3 phases of the clinician’s reaction after losing a patient who was a child to suicide:

  • initial, which includes trauma and shock
  • turmoil, which includes emotional flooding and functional impairments
  • new growth, in which clinicians are able to reflect on their experiences and implications for training and policy.

For each phase, they also described staff activities that would foster forward movement through the trajectory.

In a 1981 study, Bissell41 found that psychiatric nurses who had experienced patient completed suicides progressed through several developmental stages (naïveté, recognition, responsibility, individual choice) that enabled them to come to terms with their personal reactions and place the ultimate responsibility for the suicide with the patient.

After losing a patient to suicide, a clinician may experience grief that proceeds through specific stages (Box 133,38-41). Box 22-4,6,16,24,29,30,33,34,40,42-45  describes a wide range of factors that affect each clinician’s unique response to losing a patient to suicide.

Box 2

Factors that affect a clinician’s response to losing a patient to suicide

There are many factors that make the experience of losing a patient to suicide unique and variable for individual clinicians. These include the amount of a clinician’s professional training and experience, both in general and in working with potentially suicidal individuals. Chemtob et al2 found that trainees were more likely to experience patient suicide loss than more seasoned clinicians, and to experience more distress.4,30,42 Brown24 noted that many training programs were likely to assign the most “extraordinarily sick patients to inexperienced trainees.” He noted that because the skill level of trainees has not yet tempered their personal aspirations, they are likely to experience a patient’s suicide as a personal failure. However, in contrast to the findings of Kleespies,42 Hendin,30 Ruskin et al,4 and Brown24 suggested that the overall impact of a patient’s suicide may be greater for seasoned clinicians, when the “protective advantage” or “explanation” of being in training is no longer applicable. This appears consistent with Munson’s study,43 which found that a greater number of years of clinical experience prior to a suicide loss was negatively correlated with posttraumatic growth.

Other factors affecting a clinician’s grief response include the context in which the treatment occurred, such as inpatient, outpatient, clinic, private practice, etc.44; the presence and involvement of supportive mentors or supervisors16; the length and intensity of the clinical relationship6,29; countertransference issues40; whether the patient was a child33; and the time elapsed since the suicide occurred.

In addition, each clinician’s set of personal and life experiences can affect the way he/ she moves through the grieving process. Any previous trauma or losses, particularly prior exposure to suicide, will likely impact a clinician’s reaction to his/her current loss, as will any susceptibility to anxiety or depression. Gorkin45 has suggested that the degree of omnipotence in the clinician’s therapeutic strivings will affect his/her ability to accept the inherent ambiguity involved in suicide loss. Gender may also play a role: Henry et al34 found that female clinicians had higher levels of stress reactions, and Grad et al3 found that female clinicians felt more shame and guilt and professed more doubts about their professional competence than male clinicians, and were more than twice as likely as men to identify talking with colleagues as an effective coping strategy.

Continue to: Implications of confidentiality restrictions

 

 

Implications of confidentiality restrictions

Confidentiality issues, as well as advice from attorneys to limit the disclosure of information about a patient, are likely to preclude a clinician’s ability to talk freely about the patient, the therapeutic relationship, and his/her reactions to the loss, all of which are known to facilitate movement through the grief process.46

The development of trust and the sharing of pain are just 2 factors that can make the clinical encounter an intense emotional experience for both parties. Recent trends in the psychodynamic literature acknowledge the profundity and depth of the personal impact that patients have on the clinician, an impact that is neither pathological nor an indication of poor boundaries in the therapy dyad, but instead a recognition of how all aspects of the clinician’s person, whether consciously or not, are used within the context of a therapeutic relationship. Yet when clinicians lose a patient, confidentiality restrictions often leave them wondering if and where any aspects of their experiences can be shared. Legal counsel may advise a clinician against speaking to consultants or supervisors or even surviving family members for fear that these non-privileged communications are subject to discovery should any legal proceedings ensue. Furthermore, the usual grief rituals that facilitate the healing of loss and the processing of grief (eg, gathering with others who knew the deceased, sharing feelings and memories, attending memorials) are usually denied to the clinician, and are often compounded by the reactions of one’s professional colleagues, who tend not to view the therapist’s grief as “legitimate.” Thus, clinician-survivors, despite having experienced a profound and traumatic loss, have very few places where this may be processed or even validated. As one clinician in a clinician-survivors support group stated, “I felt like I was grieving in a vacuum, that I wasn’t allowed to talk about how much my patient meant to me or how I’m feeling about it.” The isolation of grieving alone is likely to be compounded by the general lack of resources for supporting clinicians after such a loss. In contrast to the general suicide “survivor” network of support groups for family members who have experienced a suicide loss, there is an almost complete lack of supportive resources for clinicians following such a loss, and most clinicians are not aware of the resources that are available, such as the Clinician Survivor Task Force of the American Association of Suicidology (Box 312).

Box 3

The Clinician Survivor Task Force

Frank Jones and Judy Meade founded the Clinician Survivor Task Force (CSTF) of the American Association of Suicidology (AAS) in 1987. As Jones noted, “clinicians who have lost patients to suicide need a place to acknowledge and carry forward their personal loss … to benefit both personally and professionally from the opportunity to talk with other therapists who have survived the loss of a patient through suicide.”12

Nina Gutin, PhD, and Vanessa McGann, PhD, have co-chaired the CSTF since 2003. It now supports clinicians who have lost patients and/or loved ones, with the recognition that both types of losses carry implications within clinical and professional domains. The CSTF provides a listserve, opportunities to participate in video support groups, and a web site (www. cliniciansurvivor.org) that provides information about the clinician-survivor experience, the opportunity to read and post narratives about one’s experience with suicide loss, an updated bibliography maintained by John McIntosh, PhD, a list of clinical contacts, and a link to several excellent postvention protocols. In addition, Drs. Gutin and McGann conduct clinician-survivor support activities at the annual AAS conference, and in their respective geographic areas.

Continue to: Doka has described...

 

 

Doka47 has described “disenfranchised grief” in which the bereaved person does not receive the type and quality of support accorded to other bereaved persons, and thus is likely to internalize the view that his/her grief is not legitimate, and to believe that sharing related distress is a shame-ridden liability. This clearly relates to the sense of profound isolation and distress often described by clinician-survivors.

Other legal/ethical issues

The clinician-survivor’s concern about litigation, or an actual lawsuit, is likely to produce intense anxiety. This common fear is both understandable and credible. According to Bongar,48 the most common malpractice lawsuits filed against clinicians are those that involve a patient’s suicide. Peterson et al49 found that 34% of surviving family members considered bringing a lawsuit against the clinician, and of these, 57% consulted a lawyer.

In addition, an institution’s concern about protecting itself from liability may compromise its ability to support the clinician or trainee who sustained the loss. As noted above, the potential prohibitions around discussing the case can compromise the grief process. Additionally, the fear of (or actual) legal reprisals against supervisors and the larger institution may engender angry and blaming responses toward the treating clinician. In a personal communication (April 2008), Quinnett described an incident in which a supervising psychologist stomped into the grieving therapist’s office unannounced and shouted, “Now look what you’ve done! You’re going to get me sued!”

Other studies29,50,51 note that clinician-survivors fear losing their job, and that their colleagues and supervisors will be reluctant to assign new patients to them. Spiegleman and Werth17 also note that trainees grapple with additional concerns over negative evaluations, suspension or termination from clinical sites or training programs, and a potential interruption of obtaining a degree. Such supervisory and institutional reactions are likely to intensify a clinician’s sense of shame and distress, and are antithetical to postvention responses that promote optimal personal and professional growth. Such negative reactions are also likely to contribute to a clinician or trainee’s subsequent reluctance to work with suicidal individuals, or their decision to discontinue their clinical work altogether. Lastly, other ethical issues, such as contact with the patient’s family following the suicide, attending the funeral, etc., are likely to be a source of additional anxiety and distress, particularly if the clinician needs to address these issues in isolation.

Professional relationships/colleagues’ reactions

Many clinician-survivors have described reactions from colleagues and supervisors that are hurtful and unsupportive. According to Jobes and Maltsberger,52 “the suicide death of a patient in active treatment is commonly taken as prima facie evidence that the therapist, somehow or another, has mismanaged the case,” and thus the clinician often faces unwarranted blame and censure from colleagues and supervisors. Hendin et al30 noted that many trainees found reactions by their institutions to be insensitive and unsupportive, one noting that the department’s review of the case “felt more like a tribunal or inquest.” In a personal communication (April 2008), Quinnett noted that many clinicians he interviewed following a suicide loss reported a pattern of isolation and interpersonal discomfort with their colleagues, who implicitly or explicitly expressed concerns about their competence. He described how a respected colleague received “no understanding, no support, only abuse” from her supervisors. Such responses, while perhaps surprising from mental health professionals, probably reflect the long-standing cultural attitude of social condemnation of suicide, and of those who are associated with it.

Continue to: Negative reactions from professional colleagues...

 

 

Negative reactions from professional colleagues are most likely to occur immediately after the suicide loss and/or during the course of a subsequent investigation or psychological autopsy. Castelli-Dransart et al53 found that the lack of institutional support after a clinician experiences a suicide loss contributed to significantly higher stress responses for impacted clinicians, and may lead to a well-founded ambivalence about disclosure to colleagues, and consequent resistance to seeking out optimal supervision/consultation or even personal therapy that could help the clinician gain clarity on the effects of these issues. Many mental health professionals have described how, after the distressing experience of losing a patient to suicide, they moved through this process in relative isolation and loneliness, feeling abandoned by their colleagues and by their own hopes and expectations for support.

Stigmatization. In clinical settings, when a patient in treatment completes suicide, the treating clinician becomes an easy scapegoat for family members and colleagues. To the extent that mental health professionals are not immune from the effects and imposition of stigma, this might also affect their previously mentioned tendency to project judgment, overtly or covertly, onto the treating clinician.

Stigma around suicide is well documented.25 In The Surgeon General’s Call to Action to Prevent Suicide,54 former Surgeon General David Satcher specifically described stigma around suicide as one of the biggest barriers to prevention. Studies have shown that individuals bereaved by suicide are also stigmatized, and that those who were in caregiving roles (parents, clinicians) are believed to be more psychologically disturbed, less likable, more blameworthy, and less worthy of receiving support than other bereaved individuals.25,55-63 These judgments often mirror survivors’ self-punitive assessments, which then become exacerbated by and intertwined with both externally imposed and internalized stigma. Hence, it is not uncommon for suicide survivors to question their own right to grieve, to report low expectations of social support, and to feel compelled to deny or hide the mode of death. Feigelman et al26 found that stigmatization after a suicide loss was specifically associated with ongoing grief difficulties, depression, and suicidal thinking.

In my long-term work with clinician-survivors, I’ve come to believe that in addition to stigma around suicide, there may also be stigma projected by colleagues in relation to a clinician’s perceived emotional vulnerability. A traumatized clinician potentially challenges the notion of the implicit dichotomy/power imbalance between professionals and the patients we treat: “Us”—the professional, competent, healthy, and benevolent clinicians who have the care to offer, and “Them”—our patients, being needy, pathological, looking to us for care. This “us/them” distinction may serve to bolster a clinician’s professional esteem and identity. But when one of “us” becomes one of “them”—when a professional colleague is perceived as being emotionally vulnerable—this can be threatening to the predicates of this distinction, leading to the need to put the affected clinician firmly into the “them” camp. Thus, unwarranted condemnations of the clinician-survivor’s handling of the case, and/or the pathologizing of their normative grief reactions after the suicide loss, can seem justified.

Stigma associated both with suicide and with professional vulnerability is likely to be internalized and to have a profound effect on the clinician’s decisions about disclosure, asking for support, and ultimately on one’s ability to integrate the loss. When this occurs, it is likely to lead to even more isolation, shame, and self-blame. It is not surprising that many clinicians consider leaving the profession after this type of experience.

Continue to: Effects on clinical work

 

 

Effects on clinical work

A suicide loss is also likely to affect a clinician’s therapeutic work. Many authors12,52,64-67 have found that this commonly leads therapists to question their abilities as clinicians, and to experience a sharp loss of confidence in their work with patients. The shattered beliefs and assumptions around the efficacy of the therapeutic process, a sense of guilt or self-blame, and any perceived or actual negative judgment from colleagues can dramatically compromise a clinician’s sense of competence. Hendin et al30 noted that even the most experienced therapists expressed difficulty in trusting their own clinical judgment, or accurately assessing risk after a suicide loss.

In addition, the common grief and trauma-related responses to a suicide loss (including shock, numbness, sadness, anxiety, and generalized distress) are likely to result in at least some temporary disruption of a clinician’s optimal functioning. If trauma-related symptoms are more pronounced, the effect and longevity of such impairment may be exacerbated, and are likely to “impair clinical response and therapeutic judgment.”15 In addition, because such symptoms and states may be triggered by exposure to other potentially suicidal patients, they are more likely to impact clinical functioning when the clinician works with suicidal individuals. Thus, the normative responses to a suicide loss are likely to impact a clinician’s work, just as they are likely to impact the personal and occupational functioning of any survivor of suicide loss.

In clinician-survivor discussions and support groups I’ve led, participants have identified many common areas of clinical impact. Perhaps one of the most common early responses reported by clinician-survivors who continued to work with potentially suicidal individuals was to become hypervigilant in relation to any perceived suicide risk, to interpret such risk in such a way as to warrant more conservative interventions than are necessary, and to consequently minimize the patient’s own capacities for self-care.68 Conversely, others reported a tendency to minimize or deny suicidal potential by, for example, avoiding asking patients directly about suicidal ideation, even when they later realized that such questioning was indicated.69

Suicide loss may also lead to more subtle clinical reactions that have been observed not only with suicidal patients, but also in relation to patients who struggle with loss or grief. These include avoidant or even dissociative reactions in relation to their patient’s pain, which in turn can impact the clinician’s ability to “be fully present” or empathic in clinical encounters.50,69 Still, other clinicians noted that they tended to project residual feelings of anger onto their current suicidal patients, or envied patients who seemed to have mastered their grief. Consistent with Maltsberger’s description of “atonement reactions,”40 some clinicians found themselves doing more than should be expected for their patients, even losing their sense of professional boundaries in the process. Anderson70 noted that in pushing herself beyond what she knew were her optimal clinical boundaries, she was “punishing herself” for failing to prevent her patient’s suicide because, as she realized, “doing ‘penance’ was better than feeling helpless and powerless.” And Schultz16 described how therapists may have subsequent difficulty in trusting other patients, especially if patients who completed suicide did not disclose or denied their suicidal intent.

Working toward a supportive solution

In summary, unless clinicians who lose a patient to suicide have more supportive experiences, the combination of confidentiality-related restrictions, confusion about legal/ethical repercussions, unsupportive reactions from colleagues, and unexpected impairments in clinical work are likely to lead to intensified distress, isolation, the perceived need to “hide” the impact in professional settings, and consideration of leaving the profession. However, as I will describe in Part 2 (Current Psychiatry. November 2019), losing a patient to suicide can paradoxically present opportunities for clinicians to experience profound and personal transformation, and postvention protocols can help them navigate the often-complicated sequelae to a patient’s suicide. There is also much we can do to help support a clinician colleague who has lost a patient to suicide.

Bottom Line

For mental health clinicians, losing a patient to suicide is a clear occupational hazard. After a suicide loss, clinicians often experience unique personal and professional challenges, including the impact of the loss on clinical work and professional identity, legal/ethical issues, and confidentiality-related constraints on the ability to discuss and process the loss.

Related Resources

Studies have found that 1 in 2 psychiatrists,1-4 and 1 in 5 psychologists, clinical social workers, and other mental health professionals,5 will lose a patient to suicide in the course of their career. This statistic suggests that losing a patient to suicide constitutes a clear occupational hazard.6,7 Despite this, most mental health professionals continue to view suicide loss as an aberration. Consequently, there is often a lack of preparedness for such an event when it does occur.

This 2-part article summarizes what is currently known about the unique personal and professional issues experienced by clinician-survivors (clinicians who have lost patients and/or loved ones to suicide). In Part 1, I cover:

  • the impact of losing a patient to suicide
  • confidentiality-related constraints on the ability to discuss and process the loss
  • legal and ethical issues
  • colleagues’ reactions and stigma
  • the effects of a suicide loss on one’s clinical work.

Part 2 will discuss the opportunities for personal growth that can result from experiencing a suicide loss, guidelines for optimal postventions, and steps clinicians can take to help support colleagues who have lost a patient to suicide. 

 

A neglected topic

For psychiatrists and other mental health professionals, the loss of a patient to suicide is certainly not uncommon.1-5 Despite this, coping with a patient’s suicide is a “neglected topic”8 in residency and general mental health training.

There are many published articles on clinicians experiencing suicide loss (for a comprehensive bibliography, see McIntosh9), and several authors10-19 have developed suggestions, guidelines, and detailed postvention protocols to help clinicians navigate the often-complicated sequelae to such a loss. However, these resources have generally not been integrated into clinical training, and tend to be poorly disseminated. In a national survey of chief residents, Melton and Coverdale20 found that only 25% of residency training programs covered topics related to postvention, and 72% of chief residents felt this topic needed more attention. Thus, despite the existence of guidelines for optimal postvention and support, clinicians are often left to cope with the consequences of this difficult loss on their own, and under less-than-optimal conditions.

A patient’s suicide typically affects clinicians on multiple levels, both personally and professionally. In this article, I highlight the range of normative responses, as well as the factors that may facilitate or inhibit subsequent healing and growth, with the hope that this knowledge may be utilized to help current and future generations of clinician-survivors obtain optimal support, and that institutions who treat potentially suicidal individuals will develop optimal postvention responses following a suicide loss. Many aspects of what this article discusses also apply to clinicians who have experienced a suicide loss in their personal or family life, as this also tends to “spill over” into one’s professional roles and identity.

Grief and other emotional effects

In many ways, clinicians’ responses after a patient’s suicide are similar to those of other survivors after the loss of a loved one to suicide.21 Chemtob et al2 found that approximately one-half of psychiatrists who lost a patient to suicide had scores on the Impact of an Event Scale that were comparable to those of a clinical population seeking treatment after the death of a parent.

Continue to: Jordan and McIntosh have detailed...

 

 

Jordan and McIntosh22 have detailed several elements and themes that differentiate suicide loss and its associated reactions from other types of loss and grief. In general, suicide loss is considered traumatic, and is often accompanied by intense confusion and existential questioning, reflecting a negative impact on one’s core beliefs and assumptive world. The subsequent need to address the myriad of “why” questions left in its wake are often tinted with what Jordan and Baugher23 term the “tyranny of hindsight,” and take the form of implicit guilt for “sins of omission or commission” in relation to the lost individual.

Responses to suicide loss typically include initial shock, denial and numbness, intense sadness, anxiety, anger, and intense distress. Consistent with the traumatic nature of the loss, survivors are also likely to experience posttraumatic stress disorder symptoms such as intrusive thoughts, avoidance, and dissociation. Survivors also commonly experience significant guilt and shame, and this is likely to be socially reinforced by the general stigma associated with suicide as well as the actual blaming and avoidance responses of others.24-27

Clinicians’ unique reactions

For clinicians, there are additional components that may further complicate or exacerbate these reactions and extend their duration. First and foremost, such a loss affects clinicians on both personal and professional levels, a phenomenon that Plakun and Tillman13 have termed a “twin bereavement.” Thus, in addition to the personal grief and trauma reactions entailed in losing a patient to suicide, this loss is likely to impact clinicians’ professional identities, their relationships with colleagues, and their clinical work.

Clinicians’ professional identities are often predicated on generally shared assumptions and beliefs that, as trained professionals, they should have the power, aptitude, and competence to heal, or at least improve, the lives of patients, to reduce their distress, and to provide safety. In addition, such assumptions about clinicians’ responsibility and ability to prevent suicide are often reinforced in the clinical literature.28,29

These assumptions are often challenged, if not shattered, when patients take their own lives. A clinician’s sense of professional responsibility, the guilt and self-blame that may accompany this, self-doubts about one’s skills and clinical competence, the fear of (and actual) blame of colleagues and family members, and the real or imagined threat of litigation may all greatly exacerbate a clinician’s distress.11

Continue to: Hendin et al found...

 

 

Hendin et al30 found that mental health therapists have described losing a patient as “the most profoundly disturbing event of their professional careers,” noting that one-third of these clinicians experienced severe distress that lasted at least 1 year beyond the initial loss. In a 2004 study, Ruskin et al4 similarly found that one-quarter of psychiatrists and psychiatric trainees noted that losing a patient had a “profound and enduring effect on them.” In her article on surviving a patient’s suicide, Rycroft31 describes a “professional void” following the loss of her patient, in which “the world had changed, nothing was predictable any more, and it was no longer safe to assume anything.” Additionally, many clinicians experience an “acute sense of aloneness and isolation” subsequent to the loss.32

Many clinicians have noted that they considered leaving the field after such a loss,33,34 and it is hypothesized that many may have done so.35-37 Others have noted that, at least temporarily, they stopped treating patients who were potentially suicidal.29,35

Box 1

Clinicians’ grief trajectories after a losing a patient to suicide

Several authors have proposed general models for describing the suicide grief trajectories of clinicians after a suicide loss. Tillman38 identified distinct groups of responses to this event: traumatic, affective, those related to the treatment, those related to interactions with colleagues, liability concerns, and the impact on one’s professional philosophy. She also found that Erikson’s stages of identity39 provided an uncannily similar trajectory to the ways in which those who participated in her research—clinicians at a mental hospital—had attempted to cope with their patients’ deaths, noting that the “suicide of a patient may provoke a revisiting of Erikson’s psychosocial crises in a telescoped and accelerated fashion.”38

Maltsberger40 offered a detailed psychoanalytic analysis of the responses clinicians may manifest in relation to a suicide loss, including the initial narcissistic injury sustained in relation to their patient’s actions; the subsequent potential for melancholic, atonement, or avoidance reactions; and the eventual capacity for the resolution of these reactions.

Al-Mateen et al33 described 3 phases of the clinician’s reaction after losing a patient who was a child to suicide:

  • initial, which includes trauma and shock
  • turmoil, which includes emotional flooding and functional impairments
  • new growth, in which clinicians are able to reflect on their experiences and implications for training and policy.

For each phase, they also described staff activities that would foster forward movement through the trajectory.

In a 1981 study, Bissell41 found that psychiatric nurses who had experienced patient completed suicides progressed through several developmental stages (naïveté, recognition, responsibility, individual choice) that enabled them to come to terms with their personal reactions and place the ultimate responsibility for the suicide with the patient.

After losing a patient to suicide, a clinician may experience grief that proceeds through specific stages (Box 133,38-41). Box 22-4,6,16,24,29,30,33,34,40,42-45  describes a wide range of factors that affect each clinician’s unique response to losing a patient to suicide.

Box 2

Factors that affect a clinician’s response to losing a patient to suicide

There are many factors that make the experience of losing a patient to suicide unique and variable for individual clinicians. These include the amount of a clinician’s professional training and experience, both in general and in working with potentially suicidal individuals. Chemtob et al2 found that trainees were more likely to experience patient suicide loss than more seasoned clinicians, and to experience more distress.4,30,42 Brown24 noted that many training programs were likely to assign the most “extraordinarily sick patients to inexperienced trainees.” He noted that because the skill level of trainees has not yet tempered their personal aspirations, they are likely to experience a patient’s suicide as a personal failure. However, in contrast to the findings of Kleespies,42 Hendin,30 Ruskin et al,4 and Brown24 suggested that the overall impact of a patient’s suicide may be greater for seasoned clinicians, when the “protective advantage” or “explanation” of being in training is no longer applicable. This appears consistent with Munson’s study,43 which found that a greater number of years of clinical experience prior to a suicide loss was negatively correlated with posttraumatic growth.

Other factors affecting a clinician’s grief response include the context in which the treatment occurred, such as inpatient, outpatient, clinic, private practice, etc.44; the presence and involvement of supportive mentors or supervisors16; the length and intensity of the clinical relationship6,29; countertransference issues40; whether the patient was a child33; and the time elapsed since the suicide occurred.

In addition, each clinician’s set of personal and life experiences can affect the way he/ she moves through the grieving process. Any previous trauma or losses, particularly prior exposure to suicide, will likely impact a clinician’s reaction to his/her current loss, as will any susceptibility to anxiety or depression. Gorkin45 has suggested that the degree of omnipotence in the clinician’s therapeutic strivings will affect his/her ability to accept the inherent ambiguity involved in suicide loss. Gender may also play a role: Henry et al34 found that female clinicians had higher levels of stress reactions, and Grad et al3 found that female clinicians felt more shame and guilt and professed more doubts about their professional competence than male clinicians, and were more than twice as likely as men to identify talking with colleagues as an effective coping strategy.

Continue to: Implications of confidentiality restrictions

 

 

Implications of confidentiality restrictions

Confidentiality issues, as well as advice from attorneys to limit the disclosure of information about a patient, are likely to preclude a clinician’s ability to talk freely about the patient, the therapeutic relationship, and his/her reactions to the loss, all of which are known to facilitate movement through the grief process.46

The development of trust and the sharing of pain are just 2 factors that can make the clinical encounter an intense emotional experience for both parties. Recent trends in the psychodynamic literature acknowledge the profundity and depth of the personal impact that patients have on the clinician, an impact that is neither pathological nor an indication of poor boundaries in the therapy dyad, but instead a recognition of how all aspects of the clinician’s person, whether consciously or not, are used within the context of a therapeutic relationship. Yet when clinicians lose a patient, confidentiality restrictions often leave them wondering if and where any aspects of their experiences can be shared. Legal counsel may advise a clinician against speaking to consultants or supervisors or even surviving family members for fear that these non-privileged communications are subject to discovery should any legal proceedings ensue. Furthermore, the usual grief rituals that facilitate the healing of loss and the processing of grief (eg, gathering with others who knew the deceased, sharing feelings and memories, attending memorials) are usually denied to the clinician, and are often compounded by the reactions of one’s professional colleagues, who tend not to view the therapist’s grief as “legitimate.” Thus, clinician-survivors, despite having experienced a profound and traumatic loss, have very few places where this may be processed or even validated. As one clinician in a clinician-survivors support group stated, “I felt like I was grieving in a vacuum, that I wasn’t allowed to talk about how much my patient meant to me or how I’m feeling about it.” The isolation of grieving alone is likely to be compounded by the general lack of resources for supporting clinicians after such a loss. In contrast to the general suicide “survivor” network of support groups for family members who have experienced a suicide loss, there is an almost complete lack of supportive resources for clinicians following such a loss, and most clinicians are not aware of the resources that are available, such as the Clinician Survivor Task Force of the American Association of Suicidology (Box 312).

Box 3

The Clinician Survivor Task Force

Frank Jones and Judy Meade founded the Clinician Survivor Task Force (CSTF) of the American Association of Suicidology (AAS) in 1987. As Jones noted, “clinicians who have lost patients to suicide need a place to acknowledge and carry forward their personal loss … to benefit both personally and professionally from the opportunity to talk with other therapists who have survived the loss of a patient through suicide.”12

Nina Gutin, PhD, and Vanessa McGann, PhD, have co-chaired the CSTF since 2003. It now supports clinicians who have lost patients and/or loved ones, with the recognition that both types of losses carry implications within clinical and professional domains. The CSTF provides a listserve, opportunities to participate in video support groups, and a web site (www. cliniciansurvivor.org) that provides information about the clinician-survivor experience, the opportunity to read and post narratives about one’s experience with suicide loss, an updated bibliography maintained by John McIntosh, PhD, a list of clinical contacts, and a link to several excellent postvention protocols. In addition, Drs. Gutin and McGann conduct clinician-survivor support activities at the annual AAS conference, and in their respective geographic areas.

Continue to: Doka has described...

 

 

Doka47 has described “disenfranchised grief” in which the bereaved person does not receive the type and quality of support accorded to other bereaved persons, and thus is likely to internalize the view that his/her grief is not legitimate, and to believe that sharing related distress is a shame-ridden liability. This clearly relates to the sense of profound isolation and distress often described by clinician-survivors.

Other legal/ethical issues

The clinician-survivor’s concern about litigation, or an actual lawsuit, is likely to produce intense anxiety. This common fear is both understandable and credible. According to Bongar,48 the most common malpractice lawsuits filed against clinicians are those that involve a patient’s suicide. Peterson et al49 found that 34% of surviving family members considered bringing a lawsuit against the clinician, and of these, 57% consulted a lawyer.

In addition, an institution’s concern about protecting itself from liability may compromise its ability to support the clinician or trainee who sustained the loss. As noted above, the potential prohibitions around discussing the case can compromise the grief process. Additionally, the fear of (or actual) legal reprisals against supervisors and the larger institution may engender angry and blaming responses toward the treating clinician. In a personal communication (April 2008), Quinnett described an incident in which a supervising psychologist stomped into the grieving therapist’s office unannounced and shouted, “Now look what you’ve done! You’re going to get me sued!”

Other studies29,50,51 note that clinician-survivors fear losing their job, and that their colleagues and supervisors will be reluctant to assign new patients to them. Spiegleman and Werth17 also note that trainees grapple with additional concerns over negative evaluations, suspension or termination from clinical sites or training programs, and a potential interruption of obtaining a degree. Such supervisory and institutional reactions are likely to intensify a clinician’s sense of shame and distress, and are antithetical to postvention responses that promote optimal personal and professional growth. Such negative reactions are also likely to contribute to a clinician or trainee’s subsequent reluctance to work with suicidal individuals, or their decision to discontinue their clinical work altogether. Lastly, other ethical issues, such as contact with the patient’s family following the suicide, attending the funeral, etc., are likely to be a source of additional anxiety and distress, particularly if the clinician needs to address these issues in isolation.

Professional relationships/colleagues’ reactions

Many clinician-survivors have described reactions from colleagues and supervisors that are hurtful and unsupportive. According to Jobes and Maltsberger,52 “the suicide death of a patient in active treatment is commonly taken as prima facie evidence that the therapist, somehow or another, has mismanaged the case,” and thus the clinician often faces unwarranted blame and censure from colleagues and supervisors. Hendin et al30 noted that many trainees found reactions by their institutions to be insensitive and unsupportive, one noting that the department’s review of the case “felt more like a tribunal or inquest.” In a personal communication (April 2008), Quinnett noted that many clinicians he interviewed following a suicide loss reported a pattern of isolation and interpersonal discomfort with their colleagues, who implicitly or explicitly expressed concerns about their competence. He described how a respected colleague received “no understanding, no support, only abuse” from her supervisors. Such responses, while perhaps surprising from mental health professionals, probably reflect the long-standing cultural attitude of social condemnation of suicide, and of those who are associated with it.

Continue to: Negative reactions from professional colleagues...

 

 

Negative reactions from professional colleagues are most likely to occur immediately after the suicide loss and/or during the course of a subsequent investigation or psychological autopsy. Castelli-Dransart et al53 found that the lack of institutional support after a clinician experiences a suicide loss contributed to significantly higher stress responses for impacted clinicians, and may lead to a well-founded ambivalence about disclosure to colleagues, and consequent resistance to seeking out optimal supervision/consultation or even personal therapy that could help the clinician gain clarity on the effects of these issues. Many mental health professionals have described how, after the distressing experience of losing a patient to suicide, they moved through this process in relative isolation and loneliness, feeling abandoned by their colleagues and by their own hopes and expectations for support.

Stigmatization. In clinical settings, when a patient in treatment completes suicide, the treating clinician becomes an easy scapegoat for family members and colleagues. To the extent that mental health professionals are not immune from the effects and imposition of stigma, this might also affect their previously mentioned tendency to project judgment, overtly or covertly, onto the treating clinician.

Stigma around suicide is well documented.25 In The Surgeon General’s Call to Action to Prevent Suicide,54 former Surgeon General David Satcher specifically described stigma around suicide as one of the biggest barriers to prevention. Studies have shown that individuals bereaved by suicide are also stigmatized, and that those who were in caregiving roles (parents, clinicians) are believed to be more psychologically disturbed, less likable, more blameworthy, and less worthy of receiving support than other bereaved individuals.25,55-63 These judgments often mirror survivors’ self-punitive assessments, which then become exacerbated by and intertwined with both externally imposed and internalized stigma. Hence, it is not uncommon for suicide survivors to question their own right to grieve, to report low expectations of social support, and to feel compelled to deny or hide the mode of death. Feigelman et al26 found that stigmatization after a suicide loss was specifically associated with ongoing grief difficulties, depression, and suicidal thinking.

In my long-term work with clinician-survivors, I’ve come to believe that in addition to stigma around suicide, there may also be stigma projected by colleagues in relation to a clinician’s perceived emotional vulnerability. A traumatized clinician potentially challenges the notion of the implicit dichotomy/power imbalance between professionals and the patients we treat: “Us”—the professional, competent, healthy, and benevolent clinicians who have the care to offer, and “Them”—our patients, being needy, pathological, looking to us for care. This “us/them” distinction may serve to bolster a clinician’s professional esteem and identity. But when one of “us” becomes one of “them”—when a professional colleague is perceived as being emotionally vulnerable—this can be threatening to the predicates of this distinction, leading to the need to put the affected clinician firmly into the “them” camp. Thus, unwarranted condemnations of the clinician-survivor’s handling of the case, and/or the pathologizing of their normative grief reactions after the suicide loss, can seem justified.

Stigma associated both with suicide and with professional vulnerability is likely to be internalized and to have a profound effect on the clinician’s decisions about disclosure, asking for support, and ultimately on one’s ability to integrate the loss. When this occurs, it is likely to lead to even more isolation, shame, and self-blame. It is not surprising that many clinicians consider leaving the profession after this type of experience.

Continue to: Effects on clinical work

 

 

Effects on clinical work

A suicide loss is also likely to affect a clinician’s therapeutic work. Many authors12,52,64-67 have found that this commonly leads therapists to question their abilities as clinicians, and to experience a sharp loss of confidence in their work with patients. The shattered beliefs and assumptions around the efficacy of the therapeutic process, a sense of guilt or self-blame, and any perceived or actual negative judgment from colleagues can dramatically compromise a clinician’s sense of competence. Hendin et al30 noted that even the most experienced therapists expressed difficulty in trusting their own clinical judgment, or accurately assessing risk after a suicide loss.

In addition, the common grief and trauma-related responses to a suicide loss (including shock, numbness, sadness, anxiety, and generalized distress) are likely to result in at least some temporary disruption of a clinician’s optimal functioning. If trauma-related symptoms are more pronounced, the effect and longevity of such impairment may be exacerbated, and are likely to “impair clinical response and therapeutic judgment.”15 In addition, because such symptoms and states may be triggered by exposure to other potentially suicidal patients, they are more likely to impact clinical functioning when the clinician works with suicidal individuals. Thus, the normative responses to a suicide loss are likely to impact a clinician’s work, just as they are likely to impact the personal and occupational functioning of any survivor of suicide loss.

In clinician-survivor discussions and support groups I’ve led, participants have identified many common areas of clinical impact. Perhaps one of the most common early responses reported by clinician-survivors who continued to work with potentially suicidal individuals was to become hypervigilant in relation to any perceived suicide risk, to interpret such risk in such a way as to warrant more conservative interventions than are necessary, and to consequently minimize the patient’s own capacities for self-care.68 Conversely, others reported a tendency to minimize or deny suicidal potential by, for example, avoiding asking patients directly about suicidal ideation, even when they later realized that such questioning was indicated.69

Suicide loss may also lead to more subtle clinical reactions that have been observed not only with suicidal patients, but also in relation to patients who struggle with loss or grief. These include avoidant or even dissociative reactions in relation to their patient’s pain, which in turn can impact the clinician’s ability to “be fully present” or empathic in clinical encounters.50,69 Still, other clinicians noted that they tended to project residual feelings of anger onto their current suicidal patients, or envied patients who seemed to have mastered their grief. Consistent with Maltsberger’s description of “atonement reactions,”40 some clinicians found themselves doing more than should be expected for their patients, even losing their sense of professional boundaries in the process. Anderson70 noted that in pushing herself beyond what she knew were her optimal clinical boundaries, she was “punishing herself” for failing to prevent her patient’s suicide because, as she realized, “doing ‘penance’ was better than feeling helpless and powerless.” And Schultz16 described how therapists may have subsequent difficulty in trusting other patients, especially if patients who completed suicide did not disclose or denied their suicidal intent.

Working toward a supportive solution

In summary, unless clinicians who lose a patient to suicide have more supportive experiences, the combination of confidentiality-related restrictions, confusion about legal/ethical repercussions, unsupportive reactions from colleagues, and unexpected impairments in clinical work are likely to lead to intensified distress, isolation, the perceived need to “hide” the impact in professional settings, and consideration of leaving the profession. However, as I will describe in Part 2 (Current Psychiatry. November 2019), losing a patient to suicide can paradoxically present opportunities for clinicians to experience profound and personal transformation, and postvention protocols can help them navigate the often-complicated sequelae to a patient’s suicide. There is also much we can do to help support a clinician colleague who has lost a patient to suicide.

Bottom Line

For mental health clinicians, losing a patient to suicide is a clear occupational hazard. After a suicide loss, clinicians often experience unique personal and professional challenges, including the impact of the loss on clinical work and professional identity, legal/ethical issues, and confidentiality-related constraints on the ability to discuss and process the loss.

Related Resources

References

1. Alexander D, Klein S, Gray NM, et al. Suicide by patients: questionnaire study of its effect on consultant psychiatrists. BMJ. 2000;320(7249):1571-1574.
2. Chemtob CM, Hamada RS, Bauer G, et al. Patients’ suicides: frequency and impact on psychiatrists. Am J Psychiatry. 1988;145(2):224-228.
3. Grad OT, Zavasnik A, Groleger U. Suicide of a patient: gender differences in bereavement reactions of therapists. Suicide Life Threat Behav. 1997;27(4):379-386.
4. Ruskin R, Sakinofsky I, Bagby RM, et al. Impact of patient suicide on psychiatrists and psychiatric trainees. Acad Psychiatry. 2004;28(2):104-110.
5. Bersoff DN. Ethical conflicts in psychology, 2nd ed. Washington, DC: American Psychological Association; 1999.
6. Chemtob CM, Bauer GB, Hamada RS, et al. Patient suicide: occupational hazard for psychologists and psychiatrists. Prof Psychol Res Pr. 1989;20(5):294-300.
7. Rubin HL. Surviving a suicide in your practice. In: Blumenthal SJ, Kupfer DJ, eds. Suicide over the life cycle: risk factors, assessment, and treatment of suicidal patients. Washington, DC: American Psychiatric Press; 1990:619-636.
8. Kaye NS, Soreff SM. The psychiatrist’s role, responses, and responsibilities when a patient commits suicide. Am J Psychiatry. 1991;148(6):739-743.
9. McIntosh JL. Clinicians as survivors of suicide: bibliography. American Association of Suicidology Clinician Survivor Task Force. http://pages.iu.edu/~jmcintos/Surv.Ther.bib.htm. Updated May 19, 2019. Accessed August 26, 2019.
10. Douglas J, Brown HN. Suicide: understanding and responding: Harvard Medical School perspectives. Madison, CT: International Universities Press; 1989.
11. Farberow NL. The mental health professional as suicide survivor. Clin Neuropsychiatry. 2005;2(1):13-20.
12. Jones FA Jr. Therapists as survivors of patient suicide. In: Dunne EJ, McIntosh JL, Dunne-Maxim K, eds. Suicide and its aftermath: understanding and counseling the survivors. New York, NY: W.W. Norton; 1987;126-141.
13. Plakun EM, Tillman JG. Responding to clinicians after loss of a patient to suicide. Dir Psychiatry. 2005;25:301-310.
14. Prabhakar D, Anzia JM, Balon R, et al. “Collateral damages”: preparing residents for coping with patient suicide. Acad Psychiatry. 2013;37(6):429-30.
15. Quinnett P. QPR: for suicide prevention. QPR Institute, Inc. http://pages.iu.edu/~jmcintos/postvention.htm. Published September 21, 2009. Accessed August 26, 2019.
16. Schultz, D. Suggestions for supervisors when a therapist experiences a client’s suicide. Women Ther. 2005;28(1):59-69.
17. Spiegelman JS Jr, Werth JL Jr. Don’t forget about me: the experiences of therapists-in-training after a patient has attempted or died by suicide. Women Ther. 2005;28(1):35-57.
18. American Association of Suicidology. Clinician Survivor Task Force. Clinicians as survivors of suicide: postvention information. http://cliniciansurvivor.org. Published May 16, 2016. Accessed January 13, 2019.
19. Whitmore CA, Cook J, Salg L. Supporting residents in the wake of patient suicide. The American Journal of Psychiatry Residents’ Journal. 2017;12(1):5-7.
20. Melton B, Coverdale J. What do we teach psychiatric residents about suicide? A national survey of chief residents. Acad Psychiatry. 2009;33(1):47-50.
21. Valente SM. Psychotherapist reactions to the suicide of a patient. Am J Orthopsychiatry. 1994;64(4):614-621.
22. Jordan JR, McIntosh JL. Is suicide bereavement different? A framework for rethinking the question. In: Jordan JR, McIntosh JL, eds. Grief after suicide: understanding the consequences and caring for the survivors. New York, NY: Routledge; 2011:19-42.
23. Jordan JR, Baugher B. After suicide loss: coping with your grief, 2nd ed. Newcastle, WA: Caring People Press; 2016.
24. Brown HB. The impact of suicide on therapists in training. Compr Psychiatry. 1987;28(2):101-112.
25. Cvinar JG. Do suicide survivors suffer social stigma: a review of the literature. Perspect Psychiatr Care. 2005;41(1):14-21.
26. Feigelman W, Gorman BS, Jordan JR. Stigmatization and suicide bereavement. Death Stud. 2009;33(7):591-608.
27. Goffman E. Stigma: notes on the management of spoiled identity. New York, NY: Simon & Schuster; 1963.
28. Goldney RD. The privilege and responsibility of suicide prevention. Crisis. 2000;21(1):8-15.
29. Litman RE. When patients commit suicide. Am J Psychother. 1965;19(4):570-576.
30. Hendin H, Lipschitz A, Maltsberger JT, et al. Therapists’ reactions to patients’ suicides. Am J Psychiatry. 2000;157(12):2022-2027.
31. Rycroft P. Touching the heart and soul of therapy: surviving client suicide. Women Ther. 2004;28(1):83-94.
32. Ellis TE, Patel AB. Client suicide: what now? Cogn Behav Pract. 2012;19(2):277-287.
33. Al-Mateen CS, Jones K, Linker J, et al. Clinician response to a child who completes suicide. Child Adolesc Psychiatric Clin N Am. 2018;27(4):621-635.
34. Henry M, Séguin M, Drouin M-S. Mental health professionals’ response to the suicide of their patients [in French]. Revue Québécoise de Psychologie. 2004;25:241-257.
35. Carter RE. Some effects of client suicide on the therapist. Psychother Theory Res Practice. 1971;8(4):287-289.
36. Dewar I, Eagles J, Klein S, et al. Psychiatric trainees’ experiences of, and reactions to, patient suicide. Psychiatr Bull. 2000;24(1):20-23.
37. Gitlin M. Aftermath of a tragedy: reaction of psychiatrists to patient suicides. Psychiatr Ann. 2007;37(10):684-687.
38. Tillman JG. When a patient commits suicide: an empirical study of psychoanalytic clinicians. Inter J Psychoanal. 2006;87(1):159-177.
39. Erikson EH. Identity and the life cycle. New York, NY: International Universities Press, Inc.; 1959.
40. Maltsberger JT. The implications of patient suicide for the surviving psychotherapist. In: Jacobs D, ed. Suicide and clinical practice. Washington, DC: American Psychiatric Press; 1992:169-182.
41. Bissell BPH. The experience of the nurse therapist working with suicidal cases: a developmental study [dissertation]. Boston, MA: Boston University School of Education; 1981.
42. Kleespies PM. The stress of patient suicidal behavior: Implications for interns and training programs in psychology. Prof Psychol Res Pract. 1993;24(4):477-482.
43. Munson JS. Impact of client suicide on practitioner posttraumatic growth [dissertation]. Gainsville, Florida: University of Florida; 2009.
44. Hodgkinson PE. Responding to in-patient suicide. Br J Med Psychol. 1987;60(4):387-392.
45. Gorkin M. On the suicide of one’s patient. Bull Menninger Clin. 1985;49(1):1-9.
46. Fuentes MA, Cruz D. Posttraumatic growth: positive psychological changes after trauma. Mental Health News. 2009;11(1):31,37.
47. Doka KJ. Disenfranchised grief: new Directions, challenges, and strategies for practice. Champaign, IL: Research Press; 2002.
48. Bongar B. The suicidal patient: clinical and legal standards of care, 2nd ed. Washington, DC: American Psychological Association; 2002.
49. Peterson EM, Luoma JB, Dunne E. Suicide survivors’ perceptions of the treating clinician. Suicide Life Threat Behav. 2002;32(2):158-166.
50. Kolodny S, Binder RL, Bronstein AA, et al. The working through of patients’ suicides by four therapists. Suicide Life Threat Behav. 1979;9(1):33-46.
51. Marshall KA. When a patient commits suicide. Suicide Life Threat Behav. 1980;10(1):29-40.
52. Jobes DA, Maltsberger JT. The hazards of treating suicidal patients. In: Sussman MB, ed. A perilous calling: the hazards of psychotherapy practice. New York, NY: Wiley & Sons; 1995:200-214.
53. Castelli-Dransart DA, Gutjahr E, Gulfi A, et al. Patient suicide in institutions: emotional responses and traumatic impact on Swiss mental health professionals. Death Stud. 2014;38(1-5):315-321.
54. US Public Health Service. The Surgeon General’s call to action to prevent suicide. Washington, DC: Department of Health and Human Services; 1999.
55. Armour M. Violent death: understanding the context of traumatic and stigmatized grief. J Hum Behav Soc Environ. 2006;14(4):53-90.
56. Calhoun, LG, Allen BG. Social reactions to the survivor of a suicide in the family: a review of the literature. Omega (Westport). 1991;23(2):95-107.
57. Dunne EJ, McIntosh JL, Dunne-Maxim K, eds. Suicide and its aftermath: understanding and counseling the survivors. New York, NY: WW Norton & Co; 1987.
58. Harwood D, Hawton K, Hope J, et al. The grief experiences and needs of bereaved relatives and friends of older people dying through suicide: a descriptive and case-control study. J Affect Disord. 2002;72(2):185-194.
59. Jordan JR. Is suicide bereavement different? A reassessment of the literature. Suicide Life Threat Behav. 2001;31(1):91-102.
60. McIntosh JL. Control group studies of suicide survivors: a review and critique. Suicide Life Threat Behav. 2003;23(2):146-161.
61. Range LM. When a loss is due to suicide: unique aspects of bereavement. In: Harvey JH, ed. Perspectives on loss: a sourcebook. Philadelphia, PA: Brunner/Mazel; 1998:213-220.
62. Sveen CA, Walby FA. Suicide survivors’ mental health and grief reactions: a systematic review of controlled studies. Suicide Life Threat Behav. 2008;38(1):13-29.
63. Van Dongen CJ. Social context of postsuicide bereavement. Death Stud. 1993;17(2):125-141.
64. Bultema JK. The healing process for the multidisciplinary team: recovering post-inpatient suicide. J Psychosoc Nurs. 1994;32(2):19-24.
65. Cooper C. Patient suicide and assault: their impact on psychiatric hospital staff. J Psychosoc Nurs Ment Health Serv. 1995;33(6):26-29.
66. Foster VA, McAdams CR III. The impact of client suicide in counselor training: Implications for counselor education and supervision. Counselor Educ Supervision. 1999;39(1):22-33.
67. Little JD. Staff response to inpatient and outpatient suicide: what happened and what do we do? Aust N Z J Psychiatry. 1992;26(2):162-167.
68. Horn PJ. Therapists’ psychological adaptation to client suicidal behavior. Chicago, IL: Loyola University of Chicago; 1995.
69. Gutin N, McGann VM, Jordan JR. The impact of suicide on professional caregivers. In: Jordan J, McIntosh J, eds. Grief after suicide: understanding the consequences and caring for the survivors. New York, NY: Routledge; 2011:93-111.
70. Anderson GO. Who, what, when, where, how, and mostly why? A therapist’s grief over the suicide of a client. Women Ther. 2004;28(1):25-34.

References

1. Alexander D, Klein S, Gray NM, et al. Suicide by patients: questionnaire study of its effect on consultant psychiatrists. BMJ. 2000;320(7249):1571-1574.
2. Chemtob CM, Hamada RS, Bauer G, et al. Patients’ suicides: frequency and impact on psychiatrists. Am J Psychiatry. 1988;145(2):224-228.
3. Grad OT, Zavasnik A, Groleger U. Suicide of a patient: gender differences in bereavement reactions of therapists. Suicide Life Threat Behav. 1997;27(4):379-386.
4. Ruskin R, Sakinofsky I, Bagby RM, et al. Impact of patient suicide on psychiatrists and psychiatric trainees. Acad Psychiatry. 2004;28(2):104-110.
5. Bersoff DN. Ethical conflicts in psychology, 2nd ed. Washington, DC: American Psychological Association; 1999.
6. Chemtob CM, Bauer GB, Hamada RS, et al. Patient suicide: occupational hazard for psychologists and psychiatrists. Prof Psychol Res Pr. 1989;20(5):294-300.
7. Rubin HL. Surviving a suicide in your practice. In: Blumenthal SJ, Kupfer DJ, eds. Suicide over the life cycle: risk factors, assessment, and treatment of suicidal patients. Washington, DC: American Psychiatric Press; 1990:619-636.
8. Kaye NS, Soreff SM. The psychiatrist’s role, responses, and responsibilities when a patient commits suicide. Am J Psychiatry. 1991;148(6):739-743.
9. McIntosh JL. Clinicians as survivors of suicide: bibliography. American Association of Suicidology Clinician Survivor Task Force. http://pages.iu.edu/~jmcintos/Surv.Ther.bib.htm. Updated May 19, 2019. Accessed August 26, 2019.
10. Douglas J, Brown HN. Suicide: understanding and responding: Harvard Medical School perspectives. Madison, CT: International Universities Press; 1989.
11. Farberow NL. The mental health professional as suicide survivor. Clin Neuropsychiatry. 2005;2(1):13-20.
12. Jones FA Jr. Therapists as survivors of patient suicide. In: Dunne EJ, McIntosh JL, Dunne-Maxim K, eds. Suicide and its aftermath: understanding and counseling the survivors. New York, NY: W.W. Norton; 1987;126-141.
13. Plakun EM, Tillman JG. Responding to clinicians after loss of a patient to suicide. Dir Psychiatry. 2005;25:301-310.
14. Prabhakar D, Anzia JM, Balon R, et al. “Collateral damages”: preparing residents for coping with patient suicide. Acad Psychiatry. 2013;37(6):429-30.
15. Quinnett P. QPR: for suicide prevention. QPR Institute, Inc. http://pages.iu.edu/~jmcintos/postvention.htm. Published September 21, 2009. Accessed August 26, 2019.
16. Schultz, D. Suggestions for supervisors when a therapist experiences a client’s suicide. Women Ther. 2005;28(1):59-69.
17. Spiegelman JS Jr, Werth JL Jr. Don’t forget about me: the experiences of therapists-in-training after a patient has attempted or died by suicide. Women Ther. 2005;28(1):35-57.
18. American Association of Suicidology. Clinician Survivor Task Force. Clinicians as survivors of suicide: postvention information. http://cliniciansurvivor.org. Published May 16, 2016. Accessed January 13, 2019.
19. Whitmore CA, Cook J, Salg L. Supporting residents in the wake of patient suicide. The American Journal of Psychiatry Residents’ Journal. 2017;12(1):5-7.
20. Melton B, Coverdale J. What do we teach psychiatric residents about suicide? A national survey of chief residents. Acad Psychiatry. 2009;33(1):47-50.
21. Valente SM. Psychotherapist reactions to the suicide of a patient. Am J Orthopsychiatry. 1994;64(4):614-621.
22. Jordan JR, McIntosh JL. Is suicide bereavement different? A framework for rethinking the question. In: Jordan JR, McIntosh JL, eds. Grief after suicide: understanding the consequences and caring for the survivors. New York, NY: Routledge; 2011:19-42.
23. Jordan JR, Baugher B. After suicide loss: coping with your grief, 2nd ed. Newcastle, WA: Caring People Press; 2016.
24. Brown HB. The impact of suicide on therapists in training. Compr Psychiatry. 1987;28(2):101-112.
25. Cvinar JG. Do suicide survivors suffer social stigma: a review of the literature. Perspect Psychiatr Care. 2005;41(1):14-21.
26. Feigelman W, Gorman BS, Jordan JR. Stigmatization and suicide bereavement. Death Stud. 2009;33(7):591-608.
27. Goffman E. Stigma: notes on the management of spoiled identity. New York, NY: Simon & Schuster; 1963.
28. Goldney RD. The privilege and responsibility of suicide prevention. Crisis. 2000;21(1):8-15.
29. Litman RE. When patients commit suicide. Am J Psychother. 1965;19(4):570-576.
30. Hendin H, Lipschitz A, Maltsberger JT, et al. Therapists’ reactions to patients’ suicides. Am J Psychiatry. 2000;157(12):2022-2027.
31. Rycroft P. Touching the heart and soul of therapy: surviving client suicide. Women Ther. 2004;28(1):83-94.
32. Ellis TE, Patel AB. Client suicide: what now? Cogn Behav Pract. 2012;19(2):277-287.
33. Al-Mateen CS, Jones K, Linker J, et al. Clinician response to a child who completes suicide. Child Adolesc Psychiatric Clin N Am. 2018;27(4):621-635.
34. Henry M, Séguin M, Drouin M-S. Mental health professionals’ response to the suicide of their patients [in French]. Revue Québécoise de Psychologie. 2004;25:241-257.
35. Carter RE. Some effects of client suicide on the therapist. Psychother Theory Res Practice. 1971;8(4):287-289.
36. Dewar I, Eagles J, Klein S, et al. Psychiatric trainees’ experiences of, and reactions to, patient suicide. Psychiatr Bull. 2000;24(1):20-23.
37. Gitlin M. Aftermath of a tragedy: reaction of psychiatrists to patient suicides. Psychiatr Ann. 2007;37(10):684-687.
38. Tillman JG. When a patient commits suicide: an empirical study of psychoanalytic clinicians. Inter J Psychoanal. 2006;87(1):159-177.
39. Erikson EH. Identity and the life cycle. New York, NY: International Universities Press, Inc.; 1959.
40. Maltsberger JT. The implications of patient suicide for the surviving psychotherapist. In: Jacobs D, ed. Suicide and clinical practice. Washington, DC: American Psychiatric Press; 1992:169-182.
41. Bissell BPH. The experience of the nurse therapist working with suicidal cases: a developmental study [dissertation]. Boston, MA: Boston University School of Education; 1981.
42. Kleespies PM. The stress of patient suicidal behavior: Implications for interns and training programs in psychology. Prof Psychol Res Pract. 1993;24(4):477-482.
43. Munson JS. Impact of client suicide on practitioner posttraumatic growth [dissertation]. Gainsville, Florida: University of Florida; 2009.
44. Hodgkinson PE. Responding to in-patient suicide. Br J Med Psychol. 1987;60(4):387-392.
45. Gorkin M. On the suicide of one’s patient. Bull Menninger Clin. 1985;49(1):1-9.
46. Fuentes MA, Cruz D. Posttraumatic growth: positive psychological changes after trauma. Mental Health News. 2009;11(1):31,37.
47. Doka KJ. Disenfranchised grief: new Directions, challenges, and strategies for practice. Champaign, IL: Research Press; 2002.
48. Bongar B. The suicidal patient: clinical and legal standards of care, 2nd ed. Washington, DC: American Psychological Association; 2002.
49. Peterson EM, Luoma JB, Dunne E. Suicide survivors’ perceptions of the treating clinician. Suicide Life Threat Behav. 2002;32(2):158-166.
50. Kolodny S, Binder RL, Bronstein AA, et al. The working through of patients’ suicides by four therapists. Suicide Life Threat Behav. 1979;9(1):33-46.
51. Marshall KA. When a patient commits suicide. Suicide Life Threat Behav. 1980;10(1):29-40.
52. Jobes DA, Maltsberger JT. The hazards of treating suicidal patients. In: Sussman MB, ed. A perilous calling: the hazards of psychotherapy practice. New York, NY: Wiley & Sons; 1995:200-214.
53. Castelli-Dransart DA, Gutjahr E, Gulfi A, et al. Patient suicide in institutions: emotional responses and traumatic impact on Swiss mental health professionals. Death Stud. 2014;38(1-5):315-321.
54. US Public Health Service. The Surgeon General’s call to action to prevent suicide. Washington, DC: Department of Health and Human Services; 1999.
55. Armour M. Violent death: understanding the context of traumatic and stigmatized grief. J Hum Behav Soc Environ. 2006;14(4):53-90.
56. Calhoun, LG, Allen BG. Social reactions to the survivor of a suicide in the family: a review of the literature. Omega (Westport). 1991;23(2):95-107.
57. Dunne EJ, McIntosh JL, Dunne-Maxim K, eds. Suicide and its aftermath: understanding and counseling the survivors. New York, NY: WW Norton & Co; 1987.
58. Harwood D, Hawton K, Hope J, et al. The grief experiences and needs of bereaved relatives and friends of older people dying through suicide: a descriptive and case-control study. J Affect Disord. 2002;72(2):185-194.
59. Jordan JR. Is suicide bereavement different? A reassessment of the literature. Suicide Life Threat Behav. 2001;31(1):91-102.
60. McIntosh JL. Control group studies of suicide survivors: a review and critique. Suicide Life Threat Behav. 2003;23(2):146-161.
61. Range LM. When a loss is due to suicide: unique aspects of bereavement. In: Harvey JH, ed. Perspectives on loss: a sourcebook. Philadelphia, PA: Brunner/Mazel; 1998:213-220.
62. Sveen CA, Walby FA. Suicide survivors’ mental health and grief reactions: a systematic review of controlled studies. Suicide Life Threat Behav. 2008;38(1):13-29.
63. Van Dongen CJ. Social context of postsuicide bereavement. Death Stud. 1993;17(2):125-141.
64. Bultema JK. The healing process for the multidisciplinary team: recovering post-inpatient suicide. J Psychosoc Nurs. 1994;32(2):19-24.
65. Cooper C. Patient suicide and assault: their impact on psychiatric hospital staff. J Psychosoc Nurs Ment Health Serv. 1995;33(6):26-29.
66. Foster VA, McAdams CR III. The impact of client suicide in counselor training: Implications for counselor education and supervision. Counselor Educ Supervision. 1999;39(1):22-33.
67. Little JD. Staff response to inpatient and outpatient suicide: what happened and what do we do? Aust N Z J Psychiatry. 1992;26(2):162-167.
68. Horn PJ. Therapists’ psychological adaptation to client suicidal behavior. Chicago, IL: Loyola University of Chicago; 1995.
69. Gutin N, McGann VM, Jordan JR. The impact of suicide on professional caregivers. In: Jordan J, McIntosh J, eds. Grief after suicide: understanding the consequences and caring for the survivors. New York, NY: Routledge; 2011:93-111.
70. Anderson GO. Who, what, when, where, how, and mostly why? A therapist’s grief over the suicide of a client. Women Ther. 2004;28(1):25-34.

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Assessing decisional capacity in patients with substance use disorders

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Assessing decisional capacity in patients with substance use disorders

Ms. B, age 31, is brought to the emergency department (ED) via ambulance after emergency medical technicians used naloxone nasal spray to revive her following an overdose on heroin. She reports daily IV heroin use for the last 4 years as well as frequent use of other illicit substances, including marijuana and alprazolam, for which she does not have a prescription. She is unemployed, estranged from her family, and does not have stable housing. She refuses to be admitted to a drug rehabilitation facility for detoxification and asks to be immediately discharged.

How can you determine if Ms. B has the capacity to make decisions regarding her care?

Decisional capacity is defined as a patient’s ability to use information about an illness and the proposed treatment options to make a choice that is congruent with one’s own values and preferences.1 Determining whether a patient has adequate capacity to make decisions regarding their care is an inherent aspect of all clinician-patient interactions.

Published reports have focused on the challenges clinicians face when assessing decisional capacity in patients with psychiatric and cognitive disorders. However, there is little evidence about assessing decisional capacity in patients with substance use disorders (SUDs), even though increasing numbers of patients with SUDs are presenting to EDs2 and being admitted as inpatients in general hospitals.3 In this article, I discuss:

  • the biologic basis for impaired decision-making in patients with SUDs
  • common substance use–related conditions that may impact a patient’s decisional capacity
  • the clinical challenges and legal considerations clinicians face when assessing decisional capacity in patients with SUDs
  • how to assess decisional capacity in such patients.

Decisional capacity vs competence

“Capacity” and “competence” are not the same. Decisional capacity, which refers to the ability to make decisions, is a clinical construct that is determined by clinicians and is generally used in the acute clinical setting. Because cognition is the main determinant of capacity, conditions or treatments that affect cognition can impair an individual’s decision-making capacity.1 Decisional capacity is not a global concept but a decision-specific one, subject to fluctuations depending on the time and the nature of the decision at hand. Therefore, requests for determination of decisional capacity in the clinical setting should be specific to an individual decision or set of decisions.

In contrast, competence is an enduring legal determination of incapacitation, typically made by a probate judge. It refers to the ability of an individual to perform actions needed to put decisions into effect. Decisional capacity as assessed by a clinician often serves as the basis for petitions submitted for the purpose of competency adjudication by the judicial system.

A biologic basis for impaired decision-making?

Jeste and Saks4 suggested that addiction itself is characterized by impaired decision-making because individuals keep using a substance despite experiencing recurrent physical, psychologic, or social problems caused or worsened by the substance. Several studies suggest there may be a biologic basis for impaired decision-making in these patients, even in the absence of severe psychiatric or cognitive disorders.

Continue to: Bechara and Damasio found...

 

 

Bechara and Damasio5 found that the decision-making impairment seen in some patients with SUDs was similar to that observed in patients who have lesions of the ventromedial prefrontal cortex. In both groups of patients, the impaired decision-making was characterized by a preference to opt for high immediate reward despite even higher future losses.

These deficits were also observed by Grant et al.6 In this study, patients with SUDs displayed markedly impaired performance on the Gambling Task, which examines decisions that result in long-term losses that exceed short-term gains. However, patients with SUDs performed similarly to controls on the Wisconsin Card Sorting Test, which evaluates the ability to form abstract concepts and to shift from established response sets.

MacDonald et al7 used a laboratory experiment and 2 field studies to test the hypothesis that alcohol affects attitudes and intentions toward drinking and driving. Their findings support the concept that alcohol intoxication decreases cognitive capacity such that people are more likely to attend to only the most salient cues.7

Whether the impairment documented in such studies is a contributing factor in addiction or is a result of addiction remains uncertain. While individuals with SUDs may have some level of impairment in decision-making in general, particularly in regard to their substance use, their decisional capacity on specific clinical decisions should be assessed carefully. In a study of 300 consecutive psychiatric consultations for decisional capacity at an urban hospital, Boettger et al8 found that 41% were related to SUDs. Of these, 37% were found to have impaired decisional capacity.

Impaired decision-making in patients with SUDs may specifically pertain to choices related to their addiction, including9:

  • consent for addiction treatment
  • consistency in maintaining a choice of recovery
  • changing values regarding treatment over time
  • capacity to participate in addiction research involving the use of addictive substances.

Continue to: It is important to recognize...

 

 

It is important to recognize that this impairment may not necessarily translate into altered decisional capacity regarding other health care decisions, such as consenting to surgery or other necessary medical interventions.9

Substance-related disorders that affect decisional capacity

Substance-related syndromes can affect mood, reality testing, and/or cognitive function, thereby directly impacting a patient’s decisional capacity. Substance-related syndromes can be divided into 2 categories: 1) disorders resulting from the direct effects of the substance, and 2) secondary disorders resulting from/or associated with substance use.

Disorders resulting from the direct effects of the substance

Temporary/reversible incapacitation

  • Acute intoxication or intoxication delirium may be the most frequent type of temporary incapacitation. It can result from toxic levels of licit or illicit substances; alcohol is likely the most frequent offending agent. Although some individuals who are intoxicated may appear to be alert, oriented, and able to engage in lengthy conversations, the majority do not possess adequate decisional capacity.10
  • Withdrawal delirium, associated with longstanding alcohol, sedative-hypnotic, or barbiturate dependence, is typically prolonged, but usually resolves, either spontaneously or with treatment. Although most deliria resolve once the underlying etiology is corrected, vulnerable individuals may experience irreversible cognitive impairment and permanent decisional incapacitation.11,12
  • Severe substance-induced depressive disorders, especially if accompanied by frank psychotic symptoms or severe depressive distortions of reality, may result in decisional incapacity. Substance abuse treatment that incorporates multiple strategies, sometimes in conjunction with pharmacotherapy to manage depression, should lead to sufficient recovery and restoration of decisional capacity.
  • Transient psychotic disorders such as those associated with the use of stimulants are often treatable. Patients may recover decisional capacity spontaneously or with treatment.

Permanent incapacitation

  • Dementia is associated with substance use, particularly alcohol use.13 For a patient who develops dementia, no appreciable recovery can be expected, even with prolonged abstinence.
  • Persistent amnestic disorders (eg, Korsakoff syndrome) resulting from undiagnosed or untreated severe thiamine deficiency (Wernicke’s encephalopathy). Although an isolated Korsakoff syndrome consists primarily of anterograde amnesia, these patients may experience additional cognitive impairment resulting from years of alcohol consumption or associated with other neurodegenerative processes, and therefore are sufficiently impaired and lack decisional capacity. Even in the absence of such concomitant cognitive deficits, a very severe anterograde amnestic disorder directly impacts a patient’s capacity to perform the necessary tasks required to give informed consent. The inability to consolidate information about new medical developments, treatments, and procedures, even when they are thoroughly explained by the medical team, can pose serious challenges. For example, a patient may protest to being taken to surgery because he/she does not recall signing a consent form the previous day.
  • Enduring severe and treatment-refractory psychotic disorders associated with drug use, specifically stimulants, can result in permanent incapacitation similar to that seen in severe primary psychotic disorders (such as treatment-resistant schizophrenia).

Secondary disorders resulting from/or associated with substance use

  • Hepatic encephalopathy may be seen in patients with advanced cirrhosis of the liver (due to hepatitis C resulting from IV drug use, and/or alcohol use). In late stages of cirrhosis, the confusional state patients experience may become severe and may no longer be reversible unless liver transplantation is available and successful. This would therefore constitute a basis for permanent decisional incapacitation.
  • Human immunodeficiency virus encephalitis or dementia can result from IV drug use.

Continue to: Clinical challenges

 

 

Clinical challenges

In intensive care settings, where a patient with a SUD may be treated for acute life-threatening intoxication or severe withdrawal delirium, an assumption of decisional incapacitation often exists as a result of medical acuity and impaired mentation. In these situations, treatment usually proceeds with consent obtained from next-of-kin, a guardian, or an administrative (hospital) authority when other substitute decision makers are unavailable or unwilling. In such cases, psychiatric consultation can play a dual role in documenting the patient’s decisional capacity and also in contributing to the care of patients with SUDs.

It is critical to perform a cognitive evaluation and mental status examination in a medically compromised patient with an SUD. Unfortunately, serious cognitive disorders can often be concealed by a superficially jovial or verbally skilled patient, or by an uncooperative individual who refuses to engage in a thorough conversation with his/her clinicians. These scenarios present significant challenges and may result in missed opportunities for care or premature discharges. Negative countertransference by clinicians toward patients with SUDs may also promote poor outcomes. For difficult cases, legal and ethical consultations may help mitigate risk and guide management approaches (Box14).

Box

Decisional capacity, substance use disorders, and the law

The legal system rarely views patients with substance use disorders (SUDs) as lacking decisional capacity in the absence of overt psychiatric or cognitive deficits. The penal system offers little if any mitigation of liability on account of addiction in civil or criminal cases. On the contrary, intoxication is an aggravating factor in such settings. Despite extensive literature that questions the “free will,” accountability, and responsibility of patients with SUDs, the legal system takes an “all-or-none” approach to this issue. It assumes free choice and accountability for patients with SUDs, except when a clear superimposed psychiatric or cognitive disorder (such as psychosis or dementia) exists. Rarely, some jurisdictions may allow for mental health commitments on account of severe and persistent addictive behaviors that clearly pose a risk to the individual or to society, implicitly recognizing that incapacitation can result from severe addiction. Nevertheless, a finding of imminent or impending dangerousness is generally required for such commitments to be justified.

In other situations, individual health care settings may resort to local hospital policies that allow impaired patients with SUDs with a clearly altered mental status to be detained for the purpose of completing medical treatment. Presumably, discharge would occur when the medical and psychiatric acuity has resolved (often under the umbrella of a “Medical Hold” policy). Jain et al14 suggested that although such commitment laws for patients with SUDs may be appealing to some people, especially family members, specific statutes and their implementation are highly variable; the deprivation of liberty raises ethical concerns; and outcome data are limited. Conversely, most states either do not have such legislation, or rarely enforce it.

 

How to assess decisional capacity

A direct conclusion of incapacity in an individual cannot be determined solely on the knowledge of the patient having a SUD-related clinical condition. (The possible exception to this may be a patient with severe dementia.) Evidence suggests that clinicians must conduct a specific assessment to determine the severity of the psychiatric or cognitive impairment and whether it directly impacts a patient’s ability to:

  • understand the decision at hand
  • discuss its benefits and risks
  • describe alternatives
  • demonstrate an appreciation of the implications of treatment or lack thereof
  • communicate a clear and consistent choice.

Continue to: While most clinicians...

 

 

While most clinicians rely on a psychi­atric interview (with or without a cognitive examination) to make these determinations, several instruments have been developed to aid these evaluations, such as the MacArthur Competence Assessment Tool for Treatment (Mac-CAT-T).15 In patients with potentially reversible incapacitating conditions, serial examinations over time, especially re-evaluation when a patient has achieved and maintained sobriety, may be necessary and helpful.

How to assess decisional capacity in a patient with an SUD

The Table offers a guide to assessing decisional capacity in a patient with an SUD.

Who should conduct the assessment?

Mental health professionals—usually psychiatrists or psychologists—are consulted when there is uncertainty about a patient’s decisional capacity, and when a more thorough mental status examination is warranted to formulate an informed opinion.16 Unfortunately, this typically occurs only if a patient refuses treatment or demands to be discharged before treatment has been completed, or there is a high level of risk to the patient or others after discharge.

In acute settings, when a patient consents to treatment, a psychiatric consultation regarding decisional capacity is rarely requested. While it is often tempting for medical or surgical teams to proceed with an intervention in a cooperative patient who willingly signs a consent form without a formal assessment of his/her decisional capacity, doing so raises challenging ethical and legal questions in the event of an adverse outcome. It is therefore prudent to strongly recommend that medical and surgical colleagues obtain a psychiatric consultation when an individual’s decisional capacity is uncertain, especially when a patient is known to have a psychiatric or neurocognitive disorder, or exhibits evidence of recent mental status changes. In cases of potentially reversible impairment (eg, delirium, psychosis, or acute anxiety), targeted interventions may help restore capacity and allow treatment to proceed.

No jurisdictions mandate that the determination of decisional capacity should be made exclusively by a mental health professional. Any treating health care professional (usually the attending physician) can make a determination of decisional capacity in scenarios where there is no overt evidence the patient has a mental or cognitive disorder and the patient is communicating clear and reasoned choices, or when a patient is profoundly impaired and no meaningful communication can take place.

Continue to: CASE CONTINUED

 

 

CASE CONTINUED

The emergency physician requests a psychi­atric consultation. You assess Ms. B’s decisional capacity using the Mac-CAT-T along with a standard psychiatric evaluation. Her score of 14 reflects that she is able to understand the risks associated with her opioid use, and although irritated by engaging in such a discussion, is capable of reasoning through the various medical and psychosocial aspects of her addiction, and shows moderate appreciation of the impact of her choices on her future and that of significant others. The psychiatric evaluation fails to elicit any substantial mood, anxiety, or psychotic disorders associated with/or resulting from her addiction, and her cognitive examination is within normal limits. She does not exhibit severe withdrawal and is not delirious on examination. Finally, she did not harbor thoughts of intentional harm to self or others and is not deemed imminently dangerous.

You document that in your opinion, despite Ms. B’s unfortunate choices and questionable judgment, she does have the capacity to make informed decisions regarding her care and could be released against medical advice if she so chooses, while providing her with information about available resources should she decide to seek rehabilitation in the future.

An increasingly common scenario

Decisional capacity assessment in patients with SUDs is an increasingly common reason for psychiatric consultations. Primary and secondary conditions related to substance use can affect a patient’s decisional capacity on a temporary or permanent basis. The same principles that guide the assessment of decisional capacity in patients with other psychiatric or cognitive disorders should be applied to compromised individuals with SUDs. In challenging cases, a skilled psychiatric evaluation that is supported by a thorough cognitive examination and, when required, complemented by a legal or ethical consultation, can help clinicians make safe and judicious decisions.

 

Bottom Line

Assessing the decisional capacity of a patient with a substance use disorder can be challenging. Primary or secondary conditions related to substance use can affect a patient’s decisional capacity on a temporary or permanent basis. A skilled psychiatric evaluation that includes a thorough cognitive examination and is complemented by legal or ethical consultation can help in making judicious decisions.

Related Resources

Drug Brand Names

Alprazolam • Xanax
Naloxone nasal spray • Narcan

References

1. Karlawish K. Assessment of decision-making capacity in adults. UpToDate. https://www.uptodate.com/contents/assessment-of-decision-making-capacity-in-adults. Updated July 2019. Accessed August 19, 2019.
2. Owens PL, Mutter R, Stocks C. Mental health and substance abuse-related emergency department visits among adults, 2007. HCUP Statistical Brief #92. https://www.ncbi.nlm.nih.gov/books/NBK52659/pdf/Bookshelf_NBK52659.pdf. Published July 2010. Accessed August 19, 2019.
3. Smothers BA, Yahr HT. Alcohol use disorder and illicit drug use in admissions to general hospitals in the United States. Am J Addict. 2005;14(3):256-267.
4. Jeste DV, Saks E. Decisional capacity in mental illness and substance use disorders: empirical database and policy implications. Behav Sci Law. 2006;24(4):607-628.
5. Bechara A, Damasio H. Decision-making and addiction (part I): impaired activation of somatic states in substance dependent individuals when pondering decisions with negative future consequences. Neuropsychologia. 2002;40(10):1675-1689.
6. Grant S, Contoreggi C, London ED. Drug abusers show impaired performance in a laboratory test of decision making. Neuropsychologia. 2000;38(8):1180-1187.
7. MacDonald TK, Zanna MP, Fong GT. Decision making in altered states: effects of alcohol on attitudes toward drinking and driving. J Pers Soc Psychol. 1995;68(6):973-985.
8. Boettger S, Bergman M, Jenewein J, et al. Assessment of decisional capacity: prevalence of medical illness and psychiatric comorbidities. Palliat Support Care. 2015;13(5):1275-1281.
9. Charland LC. Chapter 6: Decision-making capacity and responsibility in addiction. In: Poland J, Graham G. Addiction and responsibility. Cambridge, MA: MIT Press Scholarship Online; 2011:139-158.
10. Martel ML, Klein LR, Miner JR, et al. A brief assessment of capacity to consent instrument in acutely intoxicated emergency department patients. Am J Emerg Med. 2018;36(1):18-23.
11. MacLullich AM, Beaglehole A, Hall RJ, et al. Delirium and long-term cognitive impairment. Int Rev Psychiatry. 2009;21(1):30-42.
12. Pandharipande PP, Girard TD, Jackson JC, et al. Long-term cognitive impairment after critical illness. N Engl J Med. 2013;369(14):1306-1316.
13. Rehm J, Hasan OSM, Black SE, et al. Alcohol use and dementia: a systematic scoping review. Alzheimers Res Ther. 2019;11(1):1.
14. Jain A, Christopher P, Appelbaum PS. Civil commitment for opioid and other substance use disorders: does it work? Psychiatr Serv. 2018;69(4):374-376.
15. Grisso T, Appelbaum PS. Chapter 6: Using the MacArthur competence assessment tool – treatment. In: Grisso T, Appelbaum PS. Assessing competence to consent to treatment: a guide for physicians and other health professionals. New York, NY: Oxford University Press; 1998:101-126.
16. Hazelton LD, Sterns GL, Chisholm T. Decision-making capacity and alcohol abuse: clinical and ethical considerations in personal care choices. Gen Hosp Psychiatry. 2003;25(2):130-135.

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Ms. B, age 31, is brought to the emergency department (ED) via ambulance after emergency medical technicians used naloxone nasal spray to revive her following an overdose on heroin. She reports daily IV heroin use for the last 4 years as well as frequent use of other illicit substances, including marijuana and alprazolam, for which she does not have a prescription. She is unemployed, estranged from her family, and does not have stable housing. She refuses to be admitted to a drug rehabilitation facility for detoxification and asks to be immediately discharged.

How can you determine if Ms. B has the capacity to make decisions regarding her care?

Decisional capacity is defined as a patient’s ability to use information about an illness and the proposed treatment options to make a choice that is congruent with one’s own values and preferences.1 Determining whether a patient has adequate capacity to make decisions regarding their care is an inherent aspect of all clinician-patient interactions.

Published reports have focused on the challenges clinicians face when assessing decisional capacity in patients with psychiatric and cognitive disorders. However, there is little evidence about assessing decisional capacity in patients with substance use disorders (SUDs), even though increasing numbers of patients with SUDs are presenting to EDs2 and being admitted as inpatients in general hospitals.3 In this article, I discuss:

  • the biologic basis for impaired decision-making in patients with SUDs
  • common substance use–related conditions that may impact a patient’s decisional capacity
  • the clinical challenges and legal considerations clinicians face when assessing decisional capacity in patients with SUDs
  • how to assess decisional capacity in such patients.

Decisional capacity vs competence

“Capacity” and “competence” are not the same. Decisional capacity, which refers to the ability to make decisions, is a clinical construct that is determined by clinicians and is generally used in the acute clinical setting. Because cognition is the main determinant of capacity, conditions or treatments that affect cognition can impair an individual’s decision-making capacity.1 Decisional capacity is not a global concept but a decision-specific one, subject to fluctuations depending on the time and the nature of the decision at hand. Therefore, requests for determination of decisional capacity in the clinical setting should be specific to an individual decision or set of decisions.

In contrast, competence is an enduring legal determination of incapacitation, typically made by a probate judge. It refers to the ability of an individual to perform actions needed to put decisions into effect. Decisional capacity as assessed by a clinician often serves as the basis for petitions submitted for the purpose of competency adjudication by the judicial system.

A biologic basis for impaired decision-making?

Jeste and Saks4 suggested that addiction itself is characterized by impaired decision-making because individuals keep using a substance despite experiencing recurrent physical, psychologic, or social problems caused or worsened by the substance. Several studies suggest there may be a biologic basis for impaired decision-making in these patients, even in the absence of severe psychiatric or cognitive disorders.

Continue to: Bechara and Damasio found...

 

 

Bechara and Damasio5 found that the decision-making impairment seen in some patients with SUDs was similar to that observed in patients who have lesions of the ventromedial prefrontal cortex. In both groups of patients, the impaired decision-making was characterized by a preference to opt for high immediate reward despite even higher future losses.

These deficits were also observed by Grant et al.6 In this study, patients with SUDs displayed markedly impaired performance on the Gambling Task, which examines decisions that result in long-term losses that exceed short-term gains. However, patients with SUDs performed similarly to controls on the Wisconsin Card Sorting Test, which evaluates the ability to form abstract concepts and to shift from established response sets.

MacDonald et al7 used a laboratory experiment and 2 field studies to test the hypothesis that alcohol affects attitudes and intentions toward drinking and driving. Their findings support the concept that alcohol intoxication decreases cognitive capacity such that people are more likely to attend to only the most salient cues.7

Whether the impairment documented in such studies is a contributing factor in addiction or is a result of addiction remains uncertain. While individuals with SUDs may have some level of impairment in decision-making in general, particularly in regard to their substance use, their decisional capacity on specific clinical decisions should be assessed carefully. In a study of 300 consecutive psychiatric consultations for decisional capacity at an urban hospital, Boettger et al8 found that 41% were related to SUDs. Of these, 37% were found to have impaired decisional capacity.

Impaired decision-making in patients with SUDs may specifically pertain to choices related to their addiction, including9:

  • consent for addiction treatment
  • consistency in maintaining a choice of recovery
  • changing values regarding treatment over time
  • capacity to participate in addiction research involving the use of addictive substances.

Continue to: It is important to recognize...

 

 

It is important to recognize that this impairment may not necessarily translate into altered decisional capacity regarding other health care decisions, such as consenting to surgery or other necessary medical interventions.9

Substance-related disorders that affect decisional capacity

Substance-related syndromes can affect mood, reality testing, and/or cognitive function, thereby directly impacting a patient’s decisional capacity. Substance-related syndromes can be divided into 2 categories: 1) disorders resulting from the direct effects of the substance, and 2) secondary disorders resulting from/or associated with substance use.

Disorders resulting from the direct effects of the substance

Temporary/reversible incapacitation

  • Acute intoxication or intoxication delirium may be the most frequent type of temporary incapacitation. It can result from toxic levels of licit or illicit substances; alcohol is likely the most frequent offending agent. Although some individuals who are intoxicated may appear to be alert, oriented, and able to engage in lengthy conversations, the majority do not possess adequate decisional capacity.10
  • Withdrawal delirium, associated with longstanding alcohol, sedative-hypnotic, or barbiturate dependence, is typically prolonged, but usually resolves, either spontaneously or with treatment. Although most deliria resolve once the underlying etiology is corrected, vulnerable individuals may experience irreversible cognitive impairment and permanent decisional incapacitation.11,12
  • Severe substance-induced depressive disorders, especially if accompanied by frank psychotic symptoms or severe depressive distortions of reality, may result in decisional incapacity. Substance abuse treatment that incorporates multiple strategies, sometimes in conjunction with pharmacotherapy to manage depression, should lead to sufficient recovery and restoration of decisional capacity.
  • Transient psychotic disorders such as those associated with the use of stimulants are often treatable. Patients may recover decisional capacity spontaneously or with treatment.

Permanent incapacitation

  • Dementia is associated with substance use, particularly alcohol use.13 For a patient who develops dementia, no appreciable recovery can be expected, even with prolonged abstinence.
  • Persistent amnestic disorders (eg, Korsakoff syndrome) resulting from undiagnosed or untreated severe thiamine deficiency (Wernicke’s encephalopathy). Although an isolated Korsakoff syndrome consists primarily of anterograde amnesia, these patients may experience additional cognitive impairment resulting from years of alcohol consumption or associated with other neurodegenerative processes, and therefore are sufficiently impaired and lack decisional capacity. Even in the absence of such concomitant cognitive deficits, a very severe anterograde amnestic disorder directly impacts a patient’s capacity to perform the necessary tasks required to give informed consent. The inability to consolidate information about new medical developments, treatments, and procedures, even when they are thoroughly explained by the medical team, can pose serious challenges. For example, a patient may protest to being taken to surgery because he/she does not recall signing a consent form the previous day.
  • Enduring severe and treatment-refractory psychotic disorders associated with drug use, specifically stimulants, can result in permanent incapacitation similar to that seen in severe primary psychotic disorders (such as treatment-resistant schizophrenia).

Secondary disorders resulting from/or associated with substance use

  • Hepatic encephalopathy may be seen in patients with advanced cirrhosis of the liver (due to hepatitis C resulting from IV drug use, and/or alcohol use). In late stages of cirrhosis, the confusional state patients experience may become severe and may no longer be reversible unless liver transplantation is available and successful. This would therefore constitute a basis for permanent decisional incapacitation.
  • Human immunodeficiency virus encephalitis or dementia can result from IV drug use.

Continue to: Clinical challenges

 

 

Clinical challenges

In intensive care settings, where a patient with a SUD may be treated for acute life-threatening intoxication or severe withdrawal delirium, an assumption of decisional incapacitation often exists as a result of medical acuity and impaired mentation. In these situations, treatment usually proceeds with consent obtained from next-of-kin, a guardian, or an administrative (hospital) authority when other substitute decision makers are unavailable or unwilling. In such cases, psychiatric consultation can play a dual role in documenting the patient’s decisional capacity and also in contributing to the care of patients with SUDs.

It is critical to perform a cognitive evaluation and mental status examination in a medically compromised patient with an SUD. Unfortunately, serious cognitive disorders can often be concealed by a superficially jovial or verbally skilled patient, or by an uncooperative individual who refuses to engage in a thorough conversation with his/her clinicians. These scenarios present significant challenges and may result in missed opportunities for care or premature discharges. Negative countertransference by clinicians toward patients with SUDs may also promote poor outcomes. For difficult cases, legal and ethical consultations may help mitigate risk and guide management approaches (Box14).

Box

Decisional capacity, substance use disorders, and the law

The legal system rarely views patients with substance use disorders (SUDs) as lacking decisional capacity in the absence of overt psychiatric or cognitive deficits. The penal system offers little if any mitigation of liability on account of addiction in civil or criminal cases. On the contrary, intoxication is an aggravating factor in such settings. Despite extensive literature that questions the “free will,” accountability, and responsibility of patients with SUDs, the legal system takes an “all-or-none” approach to this issue. It assumes free choice and accountability for patients with SUDs, except when a clear superimposed psychiatric or cognitive disorder (such as psychosis or dementia) exists. Rarely, some jurisdictions may allow for mental health commitments on account of severe and persistent addictive behaviors that clearly pose a risk to the individual or to society, implicitly recognizing that incapacitation can result from severe addiction. Nevertheless, a finding of imminent or impending dangerousness is generally required for such commitments to be justified.

In other situations, individual health care settings may resort to local hospital policies that allow impaired patients with SUDs with a clearly altered mental status to be detained for the purpose of completing medical treatment. Presumably, discharge would occur when the medical and psychiatric acuity has resolved (often under the umbrella of a “Medical Hold” policy). Jain et al14 suggested that although such commitment laws for patients with SUDs may be appealing to some people, especially family members, specific statutes and their implementation are highly variable; the deprivation of liberty raises ethical concerns; and outcome data are limited. Conversely, most states either do not have such legislation, or rarely enforce it.

 

How to assess decisional capacity

A direct conclusion of incapacity in an individual cannot be determined solely on the knowledge of the patient having a SUD-related clinical condition. (The possible exception to this may be a patient with severe dementia.) Evidence suggests that clinicians must conduct a specific assessment to determine the severity of the psychiatric or cognitive impairment and whether it directly impacts a patient’s ability to:

  • understand the decision at hand
  • discuss its benefits and risks
  • describe alternatives
  • demonstrate an appreciation of the implications of treatment or lack thereof
  • communicate a clear and consistent choice.

Continue to: While most clinicians...

 

 

While most clinicians rely on a psychi­atric interview (with or without a cognitive examination) to make these determinations, several instruments have been developed to aid these evaluations, such as the MacArthur Competence Assessment Tool for Treatment (Mac-CAT-T).15 In patients with potentially reversible incapacitating conditions, serial examinations over time, especially re-evaluation when a patient has achieved and maintained sobriety, may be necessary and helpful.

How to assess decisional capacity in a patient with an SUD

The Table offers a guide to assessing decisional capacity in a patient with an SUD.

Who should conduct the assessment?

Mental health professionals—usually psychiatrists or psychologists—are consulted when there is uncertainty about a patient’s decisional capacity, and when a more thorough mental status examination is warranted to formulate an informed opinion.16 Unfortunately, this typically occurs only if a patient refuses treatment or demands to be discharged before treatment has been completed, or there is a high level of risk to the patient or others after discharge.

In acute settings, when a patient consents to treatment, a psychiatric consultation regarding decisional capacity is rarely requested. While it is often tempting for medical or surgical teams to proceed with an intervention in a cooperative patient who willingly signs a consent form without a formal assessment of his/her decisional capacity, doing so raises challenging ethical and legal questions in the event of an adverse outcome. It is therefore prudent to strongly recommend that medical and surgical colleagues obtain a psychiatric consultation when an individual’s decisional capacity is uncertain, especially when a patient is known to have a psychiatric or neurocognitive disorder, or exhibits evidence of recent mental status changes. In cases of potentially reversible impairment (eg, delirium, psychosis, or acute anxiety), targeted interventions may help restore capacity and allow treatment to proceed.

No jurisdictions mandate that the determination of decisional capacity should be made exclusively by a mental health professional. Any treating health care professional (usually the attending physician) can make a determination of decisional capacity in scenarios where there is no overt evidence the patient has a mental or cognitive disorder and the patient is communicating clear and reasoned choices, or when a patient is profoundly impaired and no meaningful communication can take place.

Continue to: CASE CONTINUED

 

 

CASE CONTINUED

The emergency physician requests a psychi­atric consultation. You assess Ms. B’s decisional capacity using the Mac-CAT-T along with a standard psychiatric evaluation. Her score of 14 reflects that she is able to understand the risks associated with her opioid use, and although irritated by engaging in such a discussion, is capable of reasoning through the various medical and psychosocial aspects of her addiction, and shows moderate appreciation of the impact of her choices on her future and that of significant others. The psychiatric evaluation fails to elicit any substantial mood, anxiety, or psychotic disorders associated with/or resulting from her addiction, and her cognitive examination is within normal limits. She does not exhibit severe withdrawal and is not delirious on examination. Finally, she did not harbor thoughts of intentional harm to self or others and is not deemed imminently dangerous.

You document that in your opinion, despite Ms. B’s unfortunate choices and questionable judgment, she does have the capacity to make informed decisions regarding her care and could be released against medical advice if she so chooses, while providing her with information about available resources should she decide to seek rehabilitation in the future.

An increasingly common scenario

Decisional capacity assessment in patients with SUDs is an increasingly common reason for psychiatric consultations. Primary and secondary conditions related to substance use can affect a patient’s decisional capacity on a temporary or permanent basis. The same principles that guide the assessment of decisional capacity in patients with other psychiatric or cognitive disorders should be applied to compromised individuals with SUDs. In challenging cases, a skilled psychiatric evaluation that is supported by a thorough cognitive examination and, when required, complemented by a legal or ethical consultation, can help clinicians make safe and judicious decisions.

 

Bottom Line

Assessing the decisional capacity of a patient with a substance use disorder can be challenging. Primary or secondary conditions related to substance use can affect a patient’s decisional capacity on a temporary or permanent basis. A skilled psychiatric evaluation that includes a thorough cognitive examination and is complemented by legal or ethical consultation can help in making judicious decisions.

Related Resources

Drug Brand Names

Alprazolam • Xanax
Naloxone nasal spray • Narcan

Ms. B, age 31, is brought to the emergency department (ED) via ambulance after emergency medical technicians used naloxone nasal spray to revive her following an overdose on heroin. She reports daily IV heroin use for the last 4 years as well as frequent use of other illicit substances, including marijuana and alprazolam, for which she does not have a prescription. She is unemployed, estranged from her family, and does not have stable housing. She refuses to be admitted to a drug rehabilitation facility for detoxification and asks to be immediately discharged.

How can you determine if Ms. B has the capacity to make decisions regarding her care?

Decisional capacity is defined as a patient’s ability to use information about an illness and the proposed treatment options to make a choice that is congruent with one’s own values and preferences.1 Determining whether a patient has adequate capacity to make decisions regarding their care is an inherent aspect of all clinician-patient interactions.

Published reports have focused on the challenges clinicians face when assessing decisional capacity in patients with psychiatric and cognitive disorders. However, there is little evidence about assessing decisional capacity in patients with substance use disorders (SUDs), even though increasing numbers of patients with SUDs are presenting to EDs2 and being admitted as inpatients in general hospitals.3 In this article, I discuss:

  • the biologic basis for impaired decision-making in patients with SUDs
  • common substance use–related conditions that may impact a patient’s decisional capacity
  • the clinical challenges and legal considerations clinicians face when assessing decisional capacity in patients with SUDs
  • how to assess decisional capacity in such patients.

Decisional capacity vs competence

“Capacity” and “competence” are not the same. Decisional capacity, which refers to the ability to make decisions, is a clinical construct that is determined by clinicians and is generally used in the acute clinical setting. Because cognition is the main determinant of capacity, conditions or treatments that affect cognition can impair an individual’s decision-making capacity.1 Decisional capacity is not a global concept but a decision-specific one, subject to fluctuations depending on the time and the nature of the decision at hand. Therefore, requests for determination of decisional capacity in the clinical setting should be specific to an individual decision or set of decisions.

In contrast, competence is an enduring legal determination of incapacitation, typically made by a probate judge. It refers to the ability of an individual to perform actions needed to put decisions into effect. Decisional capacity as assessed by a clinician often serves as the basis for petitions submitted for the purpose of competency adjudication by the judicial system.

A biologic basis for impaired decision-making?

Jeste and Saks4 suggested that addiction itself is characterized by impaired decision-making because individuals keep using a substance despite experiencing recurrent physical, psychologic, or social problems caused or worsened by the substance. Several studies suggest there may be a biologic basis for impaired decision-making in these patients, even in the absence of severe psychiatric or cognitive disorders.

Continue to: Bechara and Damasio found...

 

 

Bechara and Damasio5 found that the decision-making impairment seen in some patients with SUDs was similar to that observed in patients who have lesions of the ventromedial prefrontal cortex. In both groups of patients, the impaired decision-making was characterized by a preference to opt for high immediate reward despite even higher future losses.

These deficits were also observed by Grant et al.6 In this study, patients with SUDs displayed markedly impaired performance on the Gambling Task, which examines decisions that result in long-term losses that exceed short-term gains. However, patients with SUDs performed similarly to controls on the Wisconsin Card Sorting Test, which evaluates the ability to form abstract concepts and to shift from established response sets.

MacDonald et al7 used a laboratory experiment and 2 field studies to test the hypothesis that alcohol affects attitudes and intentions toward drinking and driving. Their findings support the concept that alcohol intoxication decreases cognitive capacity such that people are more likely to attend to only the most salient cues.7

Whether the impairment documented in such studies is a contributing factor in addiction or is a result of addiction remains uncertain. While individuals with SUDs may have some level of impairment in decision-making in general, particularly in regard to their substance use, their decisional capacity on specific clinical decisions should be assessed carefully. In a study of 300 consecutive psychiatric consultations for decisional capacity at an urban hospital, Boettger et al8 found that 41% were related to SUDs. Of these, 37% were found to have impaired decisional capacity.

Impaired decision-making in patients with SUDs may specifically pertain to choices related to their addiction, including9:

  • consent for addiction treatment
  • consistency in maintaining a choice of recovery
  • changing values regarding treatment over time
  • capacity to participate in addiction research involving the use of addictive substances.

Continue to: It is important to recognize...

 

 

It is important to recognize that this impairment may not necessarily translate into altered decisional capacity regarding other health care decisions, such as consenting to surgery or other necessary medical interventions.9

Substance-related disorders that affect decisional capacity

Substance-related syndromes can affect mood, reality testing, and/or cognitive function, thereby directly impacting a patient’s decisional capacity. Substance-related syndromes can be divided into 2 categories: 1) disorders resulting from the direct effects of the substance, and 2) secondary disorders resulting from/or associated with substance use.

Disorders resulting from the direct effects of the substance

Temporary/reversible incapacitation

  • Acute intoxication or intoxication delirium may be the most frequent type of temporary incapacitation. It can result from toxic levels of licit or illicit substances; alcohol is likely the most frequent offending agent. Although some individuals who are intoxicated may appear to be alert, oriented, and able to engage in lengthy conversations, the majority do not possess adequate decisional capacity.10
  • Withdrawal delirium, associated with longstanding alcohol, sedative-hypnotic, or barbiturate dependence, is typically prolonged, but usually resolves, either spontaneously or with treatment. Although most deliria resolve once the underlying etiology is corrected, vulnerable individuals may experience irreversible cognitive impairment and permanent decisional incapacitation.11,12
  • Severe substance-induced depressive disorders, especially if accompanied by frank psychotic symptoms or severe depressive distortions of reality, may result in decisional incapacity. Substance abuse treatment that incorporates multiple strategies, sometimes in conjunction with pharmacotherapy to manage depression, should lead to sufficient recovery and restoration of decisional capacity.
  • Transient psychotic disorders such as those associated with the use of stimulants are often treatable. Patients may recover decisional capacity spontaneously or with treatment.

Permanent incapacitation

  • Dementia is associated with substance use, particularly alcohol use.13 For a patient who develops dementia, no appreciable recovery can be expected, even with prolonged abstinence.
  • Persistent amnestic disorders (eg, Korsakoff syndrome) resulting from undiagnosed or untreated severe thiamine deficiency (Wernicke’s encephalopathy). Although an isolated Korsakoff syndrome consists primarily of anterograde amnesia, these patients may experience additional cognitive impairment resulting from years of alcohol consumption or associated with other neurodegenerative processes, and therefore are sufficiently impaired and lack decisional capacity. Even in the absence of such concomitant cognitive deficits, a very severe anterograde amnestic disorder directly impacts a patient’s capacity to perform the necessary tasks required to give informed consent. The inability to consolidate information about new medical developments, treatments, and procedures, even when they are thoroughly explained by the medical team, can pose serious challenges. For example, a patient may protest to being taken to surgery because he/she does not recall signing a consent form the previous day.
  • Enduring severe and treatment-refractory psychotic disorders associated with drug use, specifically stimulants, can result in permanent incapacitation similar to that seen in severe primary psychotic disorders (such as treatment-resistant schizophrenia).

Secondary disorders resulting from/or associated with substance use

  • Hepatic encephalopathy may be seen in patients with advanced cirrhosis of the liver (due to hepatitis C resulting from IV drug use, and/or alcohol use). In late stages of cirrhosis, the confusional state patients experience may become severe and may no longer be reversible unless liver transplantation is available and successful. This would therefore constitute a basis for permanent decisional incapacitation.
  • Human immunodeficiency virus encephalitis or dementia can result from IV drug use.

Continue to: Clinical challenges

 

 

Clinical challenges

In intensive care settings, where a patient with a SUD may be treated for acute life-threatening intoxication or severe withdrawal delirium, an assumption of decisional incapacitation often exists as a result of medical acuity and impaired mentation. In these situations, treatment usually proceeds with consent obtained from next-of-kin, a guardian, or an administrative (hospital) authority when other substitute decision makers are unavailable or unwilling. In such cases, psychiatric consultation can play a dual role in documenting the patient’s decisional capacity and also in contributing to the care of patients with SUDs.

It is critical to perform a cognitive evaluation and mental status examination in a medically compromised patient with an SUD. Unfortunately, serious cognitive disorders can often be concealed by a superficially jovial or verbally skilled patient, or by an uncooperative individual who refuses to engage in a thorough conversation with his/her clinicians. These scenarios present significant challenges and may result in missed opportunities for care or premature discharges. Negative countertransference by clinicians toward patients with SUDs may also promote poor outcomes. For difficult cases, legal and ethical consultations may help mitigate risk and guide management approaches (Box14).

Box

Decisional capacity, substance use disorders, and the law

The legal system rarely views patients with substance use disorders (SUDs) as lacking decisional capacity in the absence of overt psychiatric or cognitive deficits. The penal system offers little if any mitigation of liability on account of addiction in civil or criminal cases. On the contrary, intoxication is an aggravating factor in such settings. Despite extensive literature that questions the “free will,” accountability, and responsibility of patients with SUDs, the legal system takes an “all-or-none” approach to this issue. It assumes free choice and accountability for patients with SUDs, except when a clear superimposed psychiatric or cognitive disorder (such as psychosis or dementia) exists. Rarely, some jurisdictions may allow for mental health commitments on account of severe and persistent addictive behaviors that clearly pose a risk to the individual or to society, implicitly recognizing that incapacitation can result from severe addiction. Nevertheless, a finding of imminent or impending dangerousness is generally required for such commitments to be justified.

In other situations, individual health care settings may resort to local hospital policies that allow impaired patients with SUDs with a clearly altered mental status to be detained for the purpose of completing medical treatment. Presumably, discharge would occur when the medical and psychiatric acuity has resolved (often under the umbrella of a “Medical Hold” policy). Jain et al14 suggested that although such commitment laws for patients with SUDs may be appealing to some people, especially family members, specific statutes and their implementation are highly variable; the deprivation of liberty raises ethical concerns; and outcome data are limited. Conversely, most states either do not have such legislation, or rarely enforce it.

 

How to assess decisional capacity

A direct conclusion of incapacity in an individual cannot be determined solely on the knowledge of the patient having a SUD-related clinical condition. (The possible exception to this may be a patient with severe dementia.) Evidence suggests that clinicians must conduct a specific assessment to determine the severity of the psychiatric or cognitive impairment and whether it directly impacts a patient’s ability to:

  • understand the decision at hand
  • discuss its benefits and risks
  • describe alternatives
  • demonstrate an appreciation of the implications of treatment or lack thereof
  • communicate a clear and consistent choice.

Continue to: While most clinicians...

 

 

While most clinicians rely on a psychi­atric interview (with or without a cognitive examination) to make these determinations, several instruments have been developed to aid these evaluations, such as the MacArthur Competence Assessment Tool for Treatment (Mac-CAT-T).15 In patients with potentially reversible incapacitating conditions, serial examinations over time, especially re-evaluation when a patient has achieved and maintained sobriety, may be necessary and helpful.

How to assess decisional capacity in a patient with an SUD

The Table offers a guide to assessing decisional capacity in a patient with an SUD.

Who should conduct the assessment?

Mental health professionals—usually psychiatrists or psychologists—are consulted when there is uncertainty about a patient’s decisional capacity, and when a more thorough mental status examination is warranted to formulate an informed opinion.16 Unfortunately, this typically occurs only if a patient refuses treatment or demands to be discharged before treatment has been completed, or there is a high level of risk to the patient or others after discharge.

In acute settings, when a patient consents to treatment, a psychiatric consultation regarding decisional capacity is rarely requested. While it is often tempting for medical or surgical teams to proceed with an intervention in a cooperative patient who willingly signs a consent form without a formal assessment of his/her decisional capacity, doing so raises challenging ethical and legal questions in the event of an adverse outcome. It is therefore prudent to strongly recommend that medical and surgical colleagues obtain a psychiatric consultation when an individual’s decisional capacity is uncertain, especially when a patient is known to have a psychiatric or neurocognitive disorder, or exhibits evidence of recent mental status changes. In cases of potentially reversible impairment (eg, delirium, psychosis, or acute anxiety), targeted interventions may help restore capacity and allow treatment to proceed.

No jurisdictions mandate that the determination of decisional capacity should be made exclusively by a mental health professional. Any treating health care professional (usually the attending physician) can make a determination of decisional capacity in scenarios where there is no overt evidence the patient has a mental or cognitive disorder and the patient is communicating clear and reasoned choices, or when a patient is profoundly impaired and no meaningful communication can take place.

Continue to: CASE CONTINUED

 

 

CASE CONTINUED

The emergency physician requests a psychi­atric consultation. You assess Ms. B’s decisional capacity using the Mac-CAT-T along with a standard psychiatric evaluation. Her score of 14 reflects that she is able to understand the risks associated with her opioid use, and although irritated by engaging in such a discussion, is capable of reasoning through the various medical and psychosocial aspects of her addiction, and shows moderate appreciation of the impact of her choices on her future and that of significant others. The psychiatric evaluation fails to elicit any substantial mood, anxiety, or psychotic disorders associated with/or resulting from her addiction, and her cognitive examination is within normal limits. She does not exhibit severe withdrawal and is not delirious on examination. Finally, she did not harbor thoughts of intentional harm to self or others and is not deemed imminently dangerous.

You document that in your opinion, despite Ms. B’s unfortunate choices and questionable judgment, she does have the capacity to make informed decisions regarding her care and could be released against medical advice if she so chooses, while providing her with information about available resources should she decide to seek rehabilitation in the future.

An increasingly common scenario

Decisional capacity assessment in patients with SUDs is an increasingly common reason for psychiatric consultations. Primary and secondary conditions related to substance use can affect a patient’s decisional capacity on a temporary or permanent basis. The same principles that guide the assessment of decisional capacity in patients with other psychiatric or cognitive disorders should be applied to compromised individuals with SUDs. In challenging cases, a skilled psychiatric evaluation that is supported by a thorough cognitive examination and, when required, complemented by a legal or ethical consultation, can help clinicians make safe and judicious decisions.

 

Bottom Line

Assessing the decisional capacity of a patient with a substance use disorder can be challenging. Primary or secondary conditions related to substance use can affect a patient’s decisional capacity on a temporary or permanent basis. A skilled psychiatric evaluation that includes a thorough cognitive examination and is complemented by legal or ethical consultation can help in making judicious decisions.

Related Resources

Drug Brand Names

Alprazolam • Xanax
Naloxone nasal spray • Narcan

References

1. Karlawish K. Assessment of decision-making capacity in adults. UpToDate. https://www.uptodate.com/contents/assessment-of-decision-making-capacity-in-adults. Updated July 2019. Accessed August 19, 2019.
2. Owens PL, Mutter R, Stocks C. Mental health and substance abuse-related emergency department visits among adults, 2007. HCUP Statistical Brief #92. https://www.ncbi.nlm.nih.gov/books/NBK52659/pdf/Bookshelf_NBK52659.pdf. Published July 2010. Accessed August 19, 2019.
3. Smothers BA, Yahr HT. Alcohol use disorder and illicit drug use in admissions to general hospitals in the United States. Am J Addict. 2005;14(3):256-267.
4. Jeste DV, Saks E. Decisional capacity in mental illness and substance use disorders: empirical database and policy implications. Behav Sci Law. 2006;24(4):607-628.
5. Bechara A, Damasio H. Decision-making and addiction (part I): impaired activation of somatic states in substance dependent individuals when pondering decisions with negative future consequences. Neuropsychologia. 2002;40(10):1675-1689.
6. Grant S, Contoreggi C, London ED. Drug abusers show impaired performance in a laboratory test of decision making. Neuropsychologia. 2000;38(8):1180-1187.
7. MacDonald TK, Zanna MP, Fong GT. Decision making in altered states: effects of alcohol on attitudes toward drinking and driving. J Pers Soc Psychol. 1995;68(6):973-985.
8. Boettger S, Bergman M, Jenewein J, et al. Assessment of decisional capacity: prevalence of medical illness and psychiatric comorbidities. Palliat Support Care. 2015;13(5):1275-1281.
9. Charland LC. Chapter 6: Decision-making capacity and responsibility in addiction. In: Poland J, Graham G. Addiction and responsibility. Cambridge, MA: MIT Press Scholarship Online; 2011:139-158.
10. Martel ML, Klein LR, Miner JR, et al. A brief assessment of capacity to consent instrument in acutely intoxicated emergency department patients. Am J Emerg Med. 2018;36(1):18-23.
11. MacLullich AM, Beaglehole A, Hall RJ, et al. Delirium and long-term cognitive impairment. Int Rev Psychiatry. 2009;21(1):30-42.
12. Pandharipande PP, Girard TD, Jackson JC, et al. Long-term cognitive impairment after critical illness. N Engl J Med. 2013;369(14):1306-1316.
13. Rehm J, Hasan OSM, Black SE, et al. Alcohol use and dementia: a systematic scoping review. Alzheimers Res Ther. 2019;11(1):1.
14. Jain A, Christopher P, Appelbaum PS. Civil commitment for opioid and other substance use disorders: does it work? Psychiatr Serv. 2018;69(4):374-376.
15. Grisso T, Appelbaum PS. Chapter 6: Using the MacArthur competence assessment tool – treatment. In: Grisso T, Appelbaum PS. Assessing competence to consent to treatment: a guide for physicians and other health professionals. New York, NY: Oxford University Press; 1998:101-126.
16. Hazelton LD, Sterns GL, Chisholm T. Decision-making capacity and alcohol abuse: clinical and ethical considerations in personal care choices. Gen Hosp Psychiatry. 2003;25(2):130-135.

References

1. Karlawish K. Assessment of decision-making capacity in adults. UpToDate. https://www.uptodate.com/contents/assessment-of-decision-making-capacity-in-adults. Updated July 2019. Accessed August 19, 2019.
2. Owens PL, Mutter R, Stocks C. Mental health and substance abuse-related emergency department visits among adults, 2007. HCUP Statistical Brief #92. https://www.ncbi.nlm.nih.gov/books/NBK52659/pdf/Bookshelf_NBK52659.pdf. Published July 2010. Accessed August 19, 2019.
3. Smothers BA, Yahr HT. Alcohol use disorder and illicit drug use in admissions to general hospitals in the United States. Am J Addict. 2005;14(3):256-267.
4. Jeste DV, Saks E. Decisional capacity in mental illness and substance use disorders: empirical database and policy implications. Behav Sci Law. 2006;24(4):607-628.
5. Bechara A, Damasio H. Decision-making and addiction (part I): impaired activation of somatic states in substance dependent individuals when pondering decisions with negative future consequences. Neuropsychologia. 2002;40(10):1675-1689.
6. Grant S, Contoreggi C, London ED. Drug abusers show impaired performance in a laboratory test of decision making. Neuropsychologia. 2000;38(8):1180-1187.
7. MacDonald TK, Zanna MP, Fong GT. Decision making in altered states: effects of alcohol on attitudes toward drinking and driving. J Pers Soc Psychol. 1995;68(6):973-985.
8. Boettger S, Bergman M, Jenewein J, et al. Assessment of decisional capacity: prevalence of medical illness and psychiatric comorbidities. Palliat Support Care. 2015;13(5):1275-1281.
9. Charland LC. Chapter 6: Decision-making capacity and responsibility in addiction. In: Poland J, Graham G. Addiction and responsibility. Cambridge, MA: MIT Press Scholarship Online; 2011:139-158.
10. Martel ML, Klein LR, Miner JR, et al. A brief assessment of capacity to consent instrument in acutely intoxicated emergency department patients. Am J Emerg Med. 2018;36(1):18-23.
11. MacLullich AM, Beaglehole A, Hall RJ, et al. Delirium and long-term cognitive impairment. Int Rev Psychiatry. 2009;21(1):30-42.
12. Pandharipande PP, Girard TD, Jackson JC, et al. Long-term cognitive impairment after critical illness. N Engl J Med. 2013;369(14):1306-1316.
13. Rehm J, Hasan OSM, Black SE, et al. Alcohol use and dementia: a systematic scoping review. Alzheimers Res Ther. 2019;11(1):1.
14. Jain A, Christopher P, Appelbaum PS. Civil commitment for opioid and other substance use disorders: does it work? Psychiatr Serv. 2018;69(4):374-376.
15. Grisso T, Appelbaum PS. Chapter 6: Using the MacArthur competence assessment tool – treatment. In: Grisso T, Appelbaum PS. Assessing competence to consent to treatment: a guide for physicians and other health professionals. New York, NY: Oxford University Press; 1998:101-126.
16. Hazelton LD, Sterns GL, Chisholm T. Decision-making capacity and alcohol abuse: clinical and ethical considerations in personal care choices. Gen Hosp Psychiatry. 2003;25(2):130-135.

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Psychotherapy for psychiatric disorders: A review of 4 studies

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Psychotherapy for psychiatric disorders: A review of 4 studies

Psychotherapy is among the evidence-based treatment options for treating various psychiatric disorders. How we approach psychiatric disorders via psycho­therapy has been shaped by numerous theories of personality and psychopathology, including psychodynamic, behavioral, cognitive, systems, and existential-humanistic approaches. Whether used as primary treatment or in conjunction with medication, psychotherapy has played a pivotal role in shaping psychiatric disease management and treatment. Several evidence-based therapy modalities have been used throughout the years and continue to significantly improve and impact our patients’ lives. In the armamentarium of treatment modalities, therapy takes the leading role for several conditions. Here we review 4 studies from current psychotherapy literature; these studies are summarized in the Table.1-4

Psychotherapy for psychiatric disorders: 4 studies

1. Pompoli A, Furukawa TA, Efthimiou O, et al. Dismantling cognitive-behaviour therapy for panic disorder: a systematic review and component network meta-analysis. Psychol Med. 2018;48(12):1945-1953.

Panic disorder has a lifetime prevalence of 3.7% in the general population. Three treatment modalities recommended for patients with panic disorder are psychological therapy, pharmacologic therapy, and self-help. Among the psychological therapies, cognitive-behavioral therapy (CBT) is one of the most widely used.1

Cognitive-behavioral therapy for panic disorder has been proven to be an efficacious and impactful treatment. For panic disorder, CBT may consist of different combinations of several therapeutic components, such as relaxation, breathing retraining, cognitive restructuring, interoceptive exposure, and/or in vivo exposure. It is therefore important, both theoretically and clinically, to examine whether specific components of CBT or their combinations are superior to others for treating panic disorder.1

Pompoli et al1 conducted a component network meta-analysis (NMA) of 72 studies in order to determine which CBT components were the most efficacious in treating patients with panic disorder. Component NMA is an extension of standard NMA; it is used to disentangle the treatment effects of different components included in composite interventions.1

The aim of this study was to determine which specific component or combination of components was superior to others when treating panic disorder.1

Study design

  • Researchers reviewed 2,526 references from Medline, EMBASE, PsycINFO, and Cochrane Central and selected 72 studies that included 4,064 patients with panic disorder.1
  • The primary outcome was remission of panic disorder with or without agoraphobia in the short term (3 to 6 months). Remission was defined as achieving a score of ≤7 on the Panic Disorder Severity Scale (PDSS).1
  • Secondary outcomes included response (≥40% reduction in PDSS score from baseline) and dropout for any reason in the short term.1

Continue to: Outcomes

 

 

Outcomes

  • Using component NMA, researchers determined that interoceptive exposure and face-to-face setting (administration of therapeutic components in a face-to-face setting rather than through self-help means) led to better efficacy and acceptability. Muscle relaxation and virtual reality exposure corresponded to lower efficacy. Breathing retraining and in vivo exposure improved treatment acceptability, but had small effects on efficacy.1
  • Based on an analysis of remission rates, the most efficacious CBT incorporated cognitive restructuring and interoceptive exposure. The least efficacious CBT incorporated breathing retraining, muscle relaxation, in vivo exposure, and virtual reality exposure.1
  • Application of cognitive and behavioral therapeutic elements was superior to administration of behavioral elements alone. When administering CBT, face-to-face therapy led to better outcomes in response and remission rates. Dropout rates occurred at a lower frequency when CBT was administered face-to-face when compared with self-help groups. The placebo effect was associated with the highest dropout rate.1

Conclusion

  • Findings from this meta-analysis have high practical utility. Which CBT components are used can significantly alter CBT’s efficacy and acceptability in patients with panic disorder.1
  • The “most efficacious CBT” would include cognitive restructuring and interoceptive exposure delivered in a face-to-face setting. Breathing retraining, muscle relaxation, and virtual reality may have a minimal or even negative impact.1
  • Limitations of this meta-analysis include the high number of studies used for the data analysis, complex statistical analysis, inability to include unpublished studies, and limited relevant studies. A future implication of this study is the consideration of formal methodology based on the clinical application of efficacious CBT components when treating patients with panic disorder.1

2. Sloan DM, Marx BP, Lee DJ, et al. A brief exposure-based treatment vs cognitive processing therapy for posttraumatic stress disorder: a randomized noninferiority clinical trial. JAMA Psychiatry. 2018;75(3):233-239.

Psychotherapy is also a useful modality for treating posttraumatic stress disorder (PTSD). Sloan et al2 compared brief exposure-based treatment with cognitive processing therapy (CPT) for PTSD. 

Clinical practice guidelines for the management of PTSD and acute stress disorder recommend the use of individual, trauma-focused therapies that focus on exposure and cognitive restructuring, such as prolonged exposure, CPT, and written narrative exposure.5

Continue to: One type of written narrative...

 

 

One type of written narrative exposure treatment is written exposure therapy (WET), which consists of 5 sessions during which patients write about their trauma. The first session is comprised of psychoeducation about PTSD and a review of treatment reasoning, followed by 30 minutes of writing. The therapist provides feedback and instructions. Written exposure therapy requires less therapist training and less supervision than prolonged exposure or CPT. Prior studies have suggested that WET can significantly reduce PTSD symptoms in various trauma survivors.2

Although efficacious for PTSD, WET had not been compared with CPT, which is the most commonly used first-line treatment of PTSD. The aim of this study was to determine whether WET is noninferior to CPT.2

Study design

  • In this randomized noninferiority clinical trial conducted in Boston, Massachusetts from February 28, 2013 to November 6, 2016, 126 veterans and non-veteran adults were randomized to WET or CPT. Participants met DSM-5 criteria for PTSD and were taking stable doses of their medications for at least 4 weeks.2 
  • Participants assigned to CPT (n = 63) underwent 12 sessions, and participants assigned to WET (n = 63) received 5 sessions. Cognitive processing therapy was conducted over 60-minute weekly sessions. Written exposure therapy consisted of an initial session that was 60 minutes long and four 40-minute follow-up sessions.2
  • Interviews were conducted by 4 independent evaluators at baseline and 6, 12, 24, and 36 weeks. During the WET sessions, participants wrote about a traumatic event while focusing on details, thoughts, and feelings associated with the event.2
  • Cognitive processing therapy involved 12 trauma-focused therapy sessions during which participants learn how to become aware of and address problematic cognitions about the trauma as well as thoughts about themselves and others. Between sessions, participants were required to write 2 trauma accounts and complete other assignments.2

Outcomes

  • The primary outcome was change in total score on the Clinician-Administered PTSD Scale for DSM-5 (CAPS-5). The CAPS-5 scores for participants in the WET group were noninferior to those for participants in the CPT group at all assessment points.2
  • Participants did not significantly differ in age, education, income, or PTSD severity. Participants in the 2 groups did not differ in treatment expectations or level of satisfaction with treatment. Individuals assigned to CPT were more likely to drop out of the study: 20 participants in the CPT group dropped out in the first 5 sessions, whereas only 4 dropped out of the WET group. The dropout rate in the CPT group was 39.7%. Improvements in PTSD symptoms in the WET group were noninferior to improvements in the CPT group.2
  • Written exposure therapy showed no difference compared with CPT in decreasing PTSD symptoms. Furthermore, this study demonstrated that PTSD symptoms can decrease with a smaller number of shorter therapeutic sessions.2

Conclusion

  • This study demonstrated noninferiority between an established, commonly used PTSD therapy (CPT) and a version of exposure therapy that is briefer, simpler, and requires less homework and less therapist training and expertise. This “lower-dose” approach may improve access for the expanding number of patients who require treatment for PTSD, especially in the Veterans Affairs system.2
  • In summary, WET is well tolerated and time-efficient. Although it requires fewer sessions, WET was noninferior to CPT.2

Continue to: Multisystemic therapy versus management as usual...

 

 

3. Fonagy P, Butler S, Cottrell D, et al. Multisystemic therapy versus management as usual in the treatment of adolescent antisocial behaviour (START): a pragmatic, randomised controlled, superiority trial. Lancet Psychiatry. 2018;5(2):119-133.

Multisystemic therapy (MST) is an intensive, family-based, home-based intervention for young people with serious antisocial behavior. It has been found effective for childhood conduct disorders in the United States. However, previous studies that supported its efficacy were conducted by the therapy’s developers and used noncomprehensive comparators, such as individual therapy. Fonagy et al3 assessed the effectiveness and cost-effectiveness of MST vs management as usual for treating adolescent antisocial behavior. This is the first study that was performed by independent investigators and used a comprehensive control.3

Study design

  • This 18-month, multisite, pragmatic, randomized controlled superiority trial was conducted in England.3
  • Participants were age 11 to 17, with moderate to severe antisocial behavior. They had at least 3 severity criteria indicating difficulties across several settings and at least one of the 5 inclusion criteria for antisocial behavior. Six hundred eighty-four families were randomly assigned to MST or management as usual, and 491 families completed the study.3
  • For the MST intervention, therapists worked with the adolescent’s caregiver 3 times a week for 3 to 5 months to improve parenting skills, enhance family relationships, increase support from social networks, develop skills and resources, address communication problems, increase school attendance and achievement, and reduce the adolescent’s association with delinquent peers.3
  • For the management as usual intervention, management was based on local services for young people and was designed to be in line with current community practice.3

Outcomes

  • The primary outcome was the proportion of participants in out-of-home placements at 18 months. The secondary outcomes were time to first criminal offense and the total number of offenses.3
  • In terms of the risk of out-of-home placement, MST had no effect: 13% of participants in the MST group had out-of-home placement at 18 months, compared with 11% in the management-as-usual group.3
  • Multisystemic therapy also did not significantly delay the time to first offense (hazard ratio, 1.06; 95% confidence interval, 0.84 to 1.33). Also, at 18-month follow-up, participants in the MST group had committed more offenses than those in the management-as-usual group, although the difference was not statistically significant.3
  • Parents in the MST group reported increased parental support and involvement and reduced problems at 6 months, but the adolescents’ reports of parenting behavior indicated no significant effect for MST vs management as usual at any time point.3

Conclusion

  • Multisystemic therapy was not superior to management as usual in reducing out-of-home placements. Although the parents believed that MST brought about a rapid and effective change, this was not reflected in objective indicators of antisocial behavior. These results are contrary to previous studies in the United States. The substantial improvements observed in both groups reflected the effectiveness of routinely offered interventions for this group of young people, at least when observed in clinical trials.3

Continue to: Mindfulness-based cognitive therapy...

 

 

4. Janssen L, Kan CC, Carpentier PJ, et al. Mindfulness-based cognitive therapy v. treatment as usual in adults with ADHD: a multicentre, single-blind, randomised controlled trial. Psychol Med. 2019;49(1):55-65.

There is empirical support for using psychotherapy to treat attention-deficit/hyperactivity disorder (ADHD). Although medication management plays a leading role in treating ADHD, Janssen et al4 conducted a multicenter, single-blind trial comparing mindfulness-based cognitive therapy (MBCT) vs treatment as usual (TAU) for ADHD.

The aim of this study was to determine the efficacy of MBCT plus TAU vs TAU only in decreasing symptoms of adults with ADHD.4

Study design

  • This multicenter, single-blind randomized controlled trial was conducted in the Netherlands. Participants (N = 120) met criteria for ADHD and were age ≥18. Patients were randomly assigned to MBCT plus TAU (n = 60) or TAU only (n = 60). Patients in the MBCT plus TAU group received weekly group therapy sessions, meditation exercises, psychoeducation, and group discussions. Patients in the TAU-only group received pharmacotherapy and psychoeducation.4 
  • Blinded clinicians used the Connors’ Adult ADHD Rating Scale to assess ADHD symptoms.4
  • Secondary outcomes were determined by self-reported questionnaires that patients completed online.4
  • All statistical analyses were performed on an intention-to-treat sample as well as the per protocol sample.4

Outcomes

  • The primary outcome was ADHD symptoms rated by clinicians. Secondary outcomes included self-reported ADHD symptoms, executive functioning, mindfulness skills, positive mental health, and general functioning. Outcomes were examined at baseline and then at post treatment and 3- and 6-month follow-up.4
  • Patients in the MBCT plus TAU group had a significant decrease in clinician-rated ADHD symptoms that was maintained at 6-month follow-up. More patients in the MBCT plus TAU group (27%) vs patients in the TAU group (4%) showed a ≥30% reduction in ADHD symptoms. Compared with patients in the TAU group, patients in the MBCT plus TAU group had significant improvements in ADHD symptoms, mindfulness skills, and positive mental health at post treatment and at 6-month follow-up. Compared with those receiving TAU only, patients treated with MBCT plus TAU reported no improvement in executive functioning at post treatment, but did improve at 6-month follow-up.4

Continue to: Conclusion

 

 

Conclusion

  • Compared with TAU only, MBCT plus TAU is more effective in reducing ADHD symptoms, with a lasting effect at 6-month follow-up. In terms of secondary outcomes, MBCT plus TAU proved to be effective in improving mindfulness, self-compassion, positive mental health, and executive functioning. The results of this trial demonstrate that psychosocial treatments can be effective in addition to TAU in patients with ADHD, and MBCT holds promise for adult ADHD.4

References

1. Pompoli A, Furukawa TA, Efthimiou O, et al. Dismantling cognitive-behaviour therapy for panic disorder: a systematic review and component network meta-analysis. Psychol Med. 2018;48(12):1945-1953.
2. Sloan DM, Marx BP, Lee DJ, et al. A brief exposure-based treatment vs cognitive processing therapy for posttraumatic stress disorder: a randomized noninferiority clinical trial. JAMA Psychiatry. 2018;75(3):233-239.
3. Fonagy P, Butler S, Cottrell D, et al. Multisystemic therapy versus management as usual in the treatment of adolescent antisocial behaviour (START): a pragmatic, randomised controlled, superiority trial. Lancet Psychiatry. 2018;5(2):119-133.
4. Janssen L, Kan CC, Carpentier PJ, et al. Mindfulness-based cognitive therapy v. treatment as usual in adults with ADHD: a multicentre, single-blind, randomised controlled trial. Psychol Med. 2019;49(1):55-65.
5. US Department of Veterans Affairs and Department of Defense. VA/DoD clinical practice guideline for the management of posttraumatic stress disorder and acute stress disorder . https://www.healthquality.va.gov/guidelines/MH/ptsd/VADoDPTSDCPGFinal082917.pdf. Published June 2017. Accessed September 8, 2019.

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Dr. Saeed is Professor and Chair, Department of Psychiatry and Behavioral Medicine, East Carolina University Brody School of Medicine, Greenville, North Carolina. Dr. Muthukanagaraj is Assistant Professor, Department of Internal Medicine and Psychiatry, East Carolina University Brody School of Medicine, Greenville, North Carolina. Dr. Pastis is Clinical Assistant Professor, Department of Psychiatry, East Carolina University Brody School of Medicine, Greenville, North Carolina.

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Dr. Saeed is Professor and Chair, Department of Psychiatry and Behavioral Medicine, East Carolina University Brody School of Medicine, Greenville, North Carolina. Dr. Muthukanagaraj is Assistant Professor, Department of Internal Medicine and Psychiatry, East Carolina University Brody School of Medicine, Greenville, North Carolina. Dr. Pastis is Clinical Assistant Professor, Department of Psychiatry, East Carolina University Brody School of Medicine, Greenville, North Carolina.

Disclosures
The authors report no financial relationships with any companies whose products are mentioned in this article, or with manufacturers of competing products.

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Psychotherapy is among the evidence-based treatment options for treating various psychiatric disorders. How we approach psychiatric disorders via psycho­therapy has been shaped by numerous theories of personality and psychopathology, including psychodynamic, behavioral, cognitive, systems, and existential-humanistic approaches. Whether used as primary treatment or in conjunction with medication, psychotherapy has played a pivotal role in shaping psychiatric disease management and treatment. Several evidence-based therapy modalities have been used throughout the years and continue to significantly improve and impact our patients’ lives. In the armamentarium of treatment modalities, therapy takes the leading role for several conditions. Here we review 4 studies from current psychotherapy literature; these studies are summarized in the Table.1-4

Psychotherapy for psychiatric disorders: 4 studies

1. Pompoli A, Furukawa TA, Efthimiou O, et al. Dismantling cognitive-behaviour therapy for panic disorder: a systematic review and component network meta-analysis. Psychol Med. 2018;48(12):1945-1953.

Panic disorder has a lifetime prevalence of 3.7% in the general population. Three treatment modalities recommended for patients with panic disorder are psychological therapy, pharmacologic therapy, and self-help. Among the psychological therapies, cognitive-behavioral therapy (CBT) is one of the most widely used.1

Cognitive-behavioral therapy for panic disorder has been proven to be an efficacious and impactful treatment. For panic disorder, CBT may consist of different combinations of several therapeutic components, such as relaxation, breathing retraining, cognitive restructuring, interoceptive exposure, and/or in vivo exposure. It is therefore important, both theoretically and clinically, to examine whether specific components of CBT or their combinations are superior to others for treating panic disorder.1

Pompoli et al1 conducted a component network meta-analysis (NMA) of 72 studies in order to determine which CBT components were the most efficacious in treating patients with panic disorder. Component NMA is an extension of standard NMA; it is used to disentangle the treatment effects of different components included in composite interventions.1

The aim of this study was to determine which specific component or combination of components was superior to others when treating panic disorder.1

Study design

  • Researchers reviewed 2,526 references from Medline, EMBASE, PsycINFO, and Cochrane Central and selected 72 studies that included 4,064 patients with panic disorder.1
  • The primary outcome was remission of panic disorder with or without agoraphobia in the short term (3 to 6 months). Remission was defined as achieving a score of ≤7 on the Panic Disorder Severity Scale (PDSS).1
  • Secondary outcomes included response (≥40% reduction in PDSS score from baseline) and dropout for any reason in the short term.1

Continue to: Outcomes

 

 

Outcomes

  • Using component NMA, researchers determined that interoceptive exposure and face-to-face setting (administration of therapeutic components in a face-to-face setting rather than through self-help means) led to better efficacy and acceptability. Muscle relaxation and virtual reality exposure corresponded to lower efficacy. Breathing retraining and in vivo exposure improved treatment acceptability, but had small effects on efficacy.1
  • Based on an analysis of remission rates, the most efficacious CBT incorporated cognitive restructuring and interoceptive exposure. The least efficacious CBT incorporated breathing retraining, muscle relaxation, in vivo exposure, and virtual reality exposure.1
  • Application of cognitive and behavioral therapeutic elements was superior to administration of behavioral elements alone. When administering CBT, face-to-face therapy led to better outcomes in response and remission rates. Dropout rates occurred at a lower frequency when CBT was administered face-to-face when compared with self-help groups. The placebo effect was associated with the highest dropout rate.1

Conclusion

  • Findings from this meta-analysis have high practical utility. Which CBT components are used can significantly alter CBT’s efficacy and acceptability in patients with panic disorder.1
  • The “most efficacious CBT” would include cognitive restructuring and interoceptive exposure delivered in a face-to-face setting. Breathing retraining, muscle relaxation, and virtual reality may have a minimal or even negative impact.1
  • Limitations of this meta-analysis include the high number of studies used for the data analysis, complex statistical analysis, inability to include unpublished studies, and limited relevant studies. A future implication of this study is the consideration of formal methodology based on the clinical application of efficacious CBT components when treating patients with panic disorder.1

2. Sloan DM, Marx BP, Lee DJ, et al. A brief exposure-based treatment vs cognitive processing therapy for posttraumatic stress disorder: a randomized noninferiority clinical trial. JAMA Psychiatry. 2018;75(3):233-239.

Psychotherapy is also a useful modality for treating posttraumatic stress disorder (PTSD). Sloan et al2 compared brief exposure-based treatment with cognitive processing therapy (CPT) for PTSD. 

Clinical practice guidelines for the management of PTSD and acute stress disorder recommend the use of individual, trauma-focused therapies that focus on exposure and cognitive restructuring, such as prolonged exposure, CPT, and written narrative exposure.5

Continue to: One type of written narrative...

 

 

One type of written narrative exposure treatment is written exposure therapy (WET), which consists of 5 sessions during which patients write about their trauma. The first session is comprised of psychoeducation about PTSD and a review of treatment reasoning, followed by 30 minutes of writing. The therapist provides feedback and instructions. Written exposure therapy requires less therapist training and less supervision than prolonged exposure or CPT. Prior studies have suggested that WET can significantly reduce PTSD symptoms in various trauma survivors.2

Although efficacious for PTSD, WET had not been compared with CPT, which is the most commonly used first-line treatment of PTSD. The aim of this study was to determine whether WET is noninferior to CPT.2

Study design

  • In this randomized noninferiority clinical trial conducted in Boston, Massachusetts from February 28, 2013 to November 6, 2016, 126 veterans and non-veteran adults were randomized to WET or CPT. Participants met DSM-5 criteria for PTSD and were taking stable doses of their medications for at least 4 weeks.2 
  • Participants assigned to CPT (n = 63) underwent 12 sessions, and participants assigned to WET (n = 63) received 5 sessions. Cognitive processing therapy was conducted over 60-minute weekly sessions. Written exposure therapy consisted of an initial session that was 60 minutes long and four 40-minute follow-up sessions.2
  • Interviews were conducted by 4 independent evaluators at baseline and 6, 12, 24, and 36 weeks. During the WET sessions, participants wrote about a traumatic event while focusing on details, thoughts, and feelings associated with the event.2
  • Cognitive processing therapy involved 12 trauma-focused therapy sessions during which participants learn how to become aware of and address problematic cognitions about the trauma as well as thoughts about themselves and others. Between sessions, participants were required to write 2 trauma accounts and complete other assignments.2

Outcomes

  • The primary outcome was change in total score on the Clinician-Administered PTSD Scale for DSM-5 (CAPS-5). The CAPS-5 scores for participants in the WET group were noninferior to those for participants in the CPT group at all assessment points.2
  • Participants did not significantly differ in age, education, income, or PTSD severity. Participants in the 2 groups did not differ in treatment expectations or level of satisfaction with treatment. Individuals assigned to CPT were more likely to drop out of the study: 20 participants in the CPT group dropped out in the first 5 sessions, whereas only 4 dropped out of the WET group. The dropout rate in the CPT group was 39.7%. Improvements in PTSD symptoms in the WET group were noninferior to improvements in the CPT group.2
  • Written exposure therapy showed no difference compared with CPT in decreasing PTSD symptoms. Furthermore, this study demonstrated that PTSD symptoms can decrease with a smaller number of shorter therapeutic sessions.2

Conclusion

  • This study demonstrated noninferiority between an established, commonly used PTSD therapy (CPT) and a version of exposure therapy that is briefer, simpler, and requires less homework and less therapist training and expertise. This “lower-dose” approach may improve access for the expanding number of patients who require treatment for PTSD, especially in the Veterans Affairs system.2
  • In summary, WET is well tolerated and time-efficient. Although it requires fewer sessions, WET was noninferior to CPT.2

Continue to: Multisystemic therapy versus management as usual...

 

 

3. Fonagy P, Butler S, Cottrell D, et al. Multisystemic therapy versus management as usual in the treatment of adolescent antisocial behaviour (START): a pragmatic, randomised controlled, superiority trial. Lancet Psychiatry. 2018;5(2):119-133.

Multisystemic therapy (MST) is an intensive, family-based, home-based intervention for young people with serious antisocial behavior. It has been found effective for childhood conduct disorders in the United States. However, previous studies that supported its efficacy were conducted by the therapy’s developers and used noncomprehensive comparators, such as individual therapy. Fonagy et al3 assessed the effectiveness and cost-effectiveness of MST vs management as usual for treating adolescent antisocial behavior. This is the first study that was performed by independent investigators and used a comprehensive control.3

Study design

  • This 18-month, multisite, pragmatic, randomized controlled superiority trial was conducted in England.3
  • Participants were age 11 to 17, with moderate to severe antisocial behavior. They had at least 3 severity criteria indicating difficulties across several settings and at least one of the 5 inclusion criteria for antisocial behavior. Six hundred eighty-four families were randomly assigned to MST or management as usual, and 491 families completed the study.3
  • For the MST intervention, therapists worked with the adolescent’s caregiver 3 times a week for 3 to 5 months to improve parenting skills, enhance family relationships, increase support from social networks, develop skills and resources, address communication problems, increase school attendance and achievement, and reduce the adolescent’s association with delinquent peers.3
  • For the management as usual intervention, management was based on local services for young people and was designed to be in line with current community practice.3

Outcomes

  • The primary outcome was the proportion of participants in out-of-home placements at 18 months. The secondary outcomes were time to first criminal offense and the total number of offenses.3
  • In terms of the risk of out-of-home placement, MST had no effect: 13% of participants in the MST group had out-of-home placement at 18 months, compared with 11% in the management-as-usual group.3
  • Multisystemic therapy also did not significantly delay the time to first offense (hazard ratio, 1.06; 95% confidence interval, 0.84 to 1.33). Also, at 18-month follow-up, participants in the MST group had committed more offenses than those in the management-as-usual group, although the difference was not statistically significant.3
  • Parents in the MST group reported increased parental support and involvement and reduced problems at 6 months, but the adolescents’ reports of parenting behavior indicated no significant effect for MST vs management as usual at any time point.3

Conclusion

  • Multisystemic therapy was not superior to management as usual in reducing out-of-home placements. Although the parents believed that MST brought about a rapid and effective change, this was not reflected in objective indicators of antisocial behavior. These results are contrary to previous studies in the United States. The substantial improvements observed in both groups reflected the effectiveness of routinely offered interventions for this group of young people, at least when observed in clinical trials.3

Continue to: Mindfulness-based cognitive therapy...

 

 

4. Janssen L, Kan CC, Carpentier PJ, et al. Mindfulness-based cognitive therapy v. treatment as usual in adults with ADHD: a multicentre, single-blind, randomised controlled trial. Psychol Med. 2019;49(1):55-65.

There is empirical support for using psychotherapy to treat attention-deficit/hyperactivity disorder (ADHD). Although medication management plays a leading role in treating ADHD, Janssen et al4 conducted a multicenter, single-blind trial comparing mindfulness-based cognitive therapy (MBCT) vs treatment as usual (TAU) for ADHD.

The aim of this study was to determine the efficacy of MBCT plus TAU vs TAU only in decreasing symptoms of adults with ADHD.4

Study design

  • This multicenter, single-blind randomized controlled trial was conducted in the Netherlands. Participants (N = 120) met criteria for ADHD and were age ≥18. Patients were randomly assigned to MBCT plus TAU (n = 60) or TAU only (n = 60). Patients in the MBCT plus TAU group received weekly group therapy sessions, meditation exercises, psychoeducation, and group discussions. Patients in the TAU-only group received pharmacotherapy and psychoeducation.4 
  • Blinded clinicians used the Connors’ Adult ADHD Rating Scale to assess ADHD symptoms.4
  • Secondary outcomes were determined by self-reported questionnaires that patients completed online.4
  • All statistical analyses were performed on an intention-to-treat sample as well as the per protocol sample.4

Outcomes

  • The primary outcome was ADHD symptoms rated by clinicians. Secondary outcomes included self-reported ADHD symptoms, executive functioning, mindfulness skills, positive mental health, and general functioning. Outcomes were examined at baseline and then at post treatment and 3- and 6-month follow-up.4
  • Patients in the MBCT plus TAU group had a significant decrease in clinician-rated ADHD symptoms that was maintained at 6-month follow-up. More patients in the MBCT plus TAU group (27%) vs patients in the TAU group (4%) showed a ≥30% reduction in ADHD symptoms. Compared with patients in the TAU group, patients in the MBCT plus TAU group had significant improvements in ADHD symptoms, mindfulness skills, and positive mental health at post treatment and at 6-month follow-up. Compared with those receiving TAU only, patients treated with MBCT plus TAU reported no improvement in executive functioning at post treatment, but did improve at 6-month follow-up.4

Continue to: Conclusion

 

 

Conclusion

  • Compared with TAU only, MBCT plus TAU is more effective in reducing ADHD symptoms, with a lasting effect at 6-month follow-up. In terms of secondary outcomes, MBCT plus TAU proved to be effective in improving mindfulness, self-compassion, positive mental health, and executive functioning. The results of this trial demonstrate that psychosocial treatments can be effective in addition to TAU in patients with ADHD, and MBCT holds promise for adult ADHD.4

Psychotherapy is among the evidence-based treatment options for treating various psychiatric disorders. How we approach psychiatric disorders via psycho­therapy has been shaped by numerous theories of personality and psychopathology, including psychodynamic, behavioral, cognitive, systems, and existential-humanistic approaches. Whether used as primary treatment or in conjunction with medication, psychotherapy has played a pivotal role in shaping psychiatric disease management and treatment. Several evidence-based therapy modalities have been used throughout the years and continue to significantly improve and impact our patients’ lives. In the armamentarium of treatment modalities, therapy takes the leading role for several conditions. Here we review 4 studies from current psychotherapy literature; these studies are summarized in the Table.1-4

Psychotherapy for psychiatric disorders: 4 studies

1. Pompoli A, Furukawa TA, Efthimiou O, et al. Dismantling cognitive-behaviour therapy for panic disorder: a systematic review and component network meta-analysis. Psychol Med. 2018;48(12):1945-1953.

Panic disorder has a lifetime prevalence of 3.7% in the general population. Three treatment modalities recommended for patients with panic disorder are psychological therapy, pharmacologic therapy, and self-help. Among the psychological therapies, cognitive-behavioral therapy (CBT) is one of the most widely used.1

Cognitive-behavioral therapy for panic disorder has been proven to be an efficacious and impactful treatment. For panic disorder, CBT may consist of different combinations of several therapeutic components, such as relaxation, breathing retraining, cognitive restructuring, interoceptive exposure, and/or in vivo exposure. It is therefore important, both theoretically and clinically, to examine whether specific components of CBT or their combinations are superior to others for treating panic disorder.1

Pompoli et al1 conducted a component network meta-analysis (NMA) of 72 studies in order to determine which CBT components were the most efficacious in treating patients with panic disorder. Component NMA is an extension of standard NMA; it is used to disentangle the treatment effects of different components included in composite interventions.1

The aim of this study was to determine which specific component or combination of components was superior to others when treating panic disorder.1

Study design

  • Researchers reviewed 2,526 references from Medline, EMBASE, PsycINFO, and Cochrane Central and selected 72 studies that included 4,064 patients with panic disorder.1
  • The primary outcome was remission of panic disorder with or without agoraphobia in the short term (3 to 6 months). Remission was defined as achieving a score of ≤7 on the Panic Disorder Severity Scale (PDSS).1
  • Secondary outcomes included response (≥40% reduction in PDSS score from baseline) and dropout for any reason in the short term.1

Continue to: Outcomes

 

 

Outcomes

  • Using component NMA, researchers determined that interoceptive exposure and face-to-face setting (administration of therapeutic components in a face-to-face setting rather than through self-help means) led to better efficacy and acceptability. Muscle relaxation and virtual reality exposure corresponded to lower efficacy. Breathing retraining and in vivo exposure improved treatment acceptability, but had small effects on efficacy.1
  • Based on an analysis of remission rates, the most efficacious CBT incorporated cognitive restructuring and interoceptive exposure. The least efficacious CBT incorporated breathing retraining, muscle relaxation, in vivo exposure, and virtual reality exposure.1
  • Application of cognitive and behavioral therapeutic elements was superior to administration of behavioral elements alone. When administering CBT, face-to-face therapy led to better outcomes in response and remission rates. Dropout rates occurred at a lower frequency when CBT was administered face-to-face when compared with self-help groups. The placebo effect was associated with the highest dropout rate.1

Conclusion

  • Findings from this meta-analysis have high practical utility. Which CBT components are used can significantly alter CBT’s efficacy and acceptability in patients with panic disorder.1
  • The “most efficacious CBT” would include cognitive restructuring and interoceptive exposure delivered in a face-to-face setting. Breathing retraining, muscle relaxation, and virtual reality may have a minimal or even negative impact.1
  • Limitations of this meta-analysis include the high number of studies used for the data analysis, complex statistical analysis, inability to include unpublished studies, and limited relevant studies. A future implication of this study is the consideration of formal methodology based on the clinical application of efficacious CBT components when treating patients with panic disorder.1

2. Sloan DM, Marx BP, Lee DJ, et al. A brief exposure-based treatment vs cognitive processing therapy for posttraumatic stress disorder: a randomized noninferiority clinical trial. JAMA Psychiatry. 2018;75(3):233-239.

Psychotherapy is also a useful modality for treating posttraumatic stress disorder (PTSD). Sloan et al2 compared brief exposure-based treatment with cognitive processing therapy (CPT) for PTSD. 

Clinical practice guidelines for the management of PTSD and acute stress disorder recommend the use of individual, trauma-focused therapies that focus on exposure and cognitive restructuring, such as prolonged exposure, CPT, and written narrative exposure.5

Continue to: One type of written narrative...

 

 

One type of written narrative exposure treatment is written exposure therapy (WET), which consists of 5 sessions during which patients write about their trauma. The first session is comprised of psychoeducation about PTSD and a review of treatment reasoning, followed by 30 minutes of writing. The therapist provides feedback and instructions. Written exposure therapy requires less therapist training and less supervision than prolonged exposure or CPT. Prior studies have suggested that WET can significantly reduce PTSD symptoms in various trauma survivors.2

Although efficacious for PTSD, WET had not been compared with CPT, which is the most commonly used first-line treatment of PTSD. The aim of this study was to determine whether WET is noninferior to CPT.2

Study design

  • In this randomized noninferiority clinical trial conducted in Boston, Massachusetts from February 28, 2013 to November 6, 2016, 126 veterans and non-veteran adults were randomized to WET or CPT. Participants met DSM-5 criteria for PTSD and were taking stable doses of their medications for at least 4 weeks.2 
  • Participants assigned to CPT (n = 63) underwent 12 sessions, and participants assigned to WET (n = 63) received 5 sessions. Cognitive processing therapy was conducted over 60-minute weekly sessions. Written exposure therapy consisted of an initial session that was 60 minutes long and four 40-minute follow-up sessions.2
  • Interviews were conducted by 4 independent evaluators at baseline and 6, 12, 24, and 36 weeks. During the WET sessions, participants wrote about a traumatic event while focusing on details, thoughts, and feelings associated with the event.2
  • Cognitive processing therapy involved 12 trauma-focused therapy sessions during which participants learn how to become aware of and address problematic cognitions about the trauma as well as thoughts about themselves and others. Between sessions, participants were required to write 2 trauma accounts and complete other assignments.2

Outcomes

  • The primary outcome was change in total score on the Clinician-Administered PTSD Scale for DSM-5 (CAPS-5). The CAPS-5 scores for participants in the WET group were noninferior to those for participants in the CPT group at all assessment points.2
  • Participants did not significantly differ in age, education, income, or PTSD severity. Participants in the 2 groups did not differ in treatment expectations or level of satisfaction with treatment. Individuals assigned to CPT were more likely to drop out of the study: 20 participants in the CPT group dropped out in the first 5 sessions, whereas only 4 dropped out of the WET group. The dropout rate in the CPT group was 39.7%. Improvements in PTSD symptoms in the WET group were noninferior to improvements in the CPT group.2
  • Written exposure therapy showed no difference compared with CPT in decreasing PTSD symptoms. Furthermore, this study demonstrated that PTSD symptoms can decrease with a smaller number of shorter therapeutic sessions.2

Conclusion

  • This study demonstrated noninferiority between an established, commonly used PTSD therapy (CPT) and a version of exposure therapy that is briefer, simpler, and requires less homework and less therapist training and expertise. This “lower-dose” approach may improve access for the expanding number of patients who require treatment for PTSD, especially in the Veterans Affairs system.2
  • In summary, WET is well tolerated and time-efficient. Although it requires fewer sessions, WET was noninferior to CPT.2

Continue to: Multisystemic therapy versus management as usual...

 

 

3. Fonagy P, Butler S, Cottrell D, et al. Multisystemic therapy versus management as usual in the treatment of adolescent antisocial behaviour (START): a pragmatic, randomised controlled, superiority trial. Lancet Psychiatry. 2018;5(2):119-133.

Multisystemic therapy (MST) is an intensive, family-based, home-based intervention for young people with serious antisocial behavior. It has been found effective for childhood conduct disorders in the United States. However, previous studies that supported its efficacy were conducted by the therapy’s developers and used noncomprehensive comparators, such as individual therapy. Fonagy et al3 assessed the effectiveness and cost-effectiveness of MST vs management as usual for treating adolescent antisocial behavior. This is the first study that was performed by independent investigators and used a comprehensive control.3

Study design

  • This 18-month, multisite, pragmatic, randomized controlled superiority trial was conducted in England.3
  • Participants were age 11 to 17, with moderate to severe antisocial behavior. They had at least 3 severity criteria indicating difficulties across several settings and at least one of the 5 inclusion criteria for antisocial behavior. Six hundred eighty-four families were randomly assigned to MST or management as usual, and 491 families completed the study.3
  • For the MST intervention, therapists worked with the adolescent’s caregiver 3 times a week for 3 to 5 months to improve parenting skills, enhance family relationships, increase support from social networks, develop skills and resources, address communication problems, increase school attendance and achievement, and reduce the adolescent’s association with delinquent peers.3
  • For the management as usual intervention, management was based on local services for young people and was designed to be in line with current community practice.3

Outcomes

  • The primary outcome was the proportion of participants in out-of-home placements at 18 months. The secondary outcomes were time to first criminal offense and the total number of offenses.3
  • In terms of the risk of out-of-home placement, MST had no effect: 13% of participants in the MST group had out-of-home placement at 18 months, compared with 11% in the management-as-usual group.3
  • Multisystemic therapy also did not significantly delay the time to first offense (hazard ratio, 1.06; 95% confidence interval, 0.84 to 1.33). Also, at 18-month follow-up, participants in the MST group had committed more offenses than those in the management-as-usual group, although the difference was not statistically significant.3
  • Parents in the MST group reported increased parental support and involvement and reduced problems at 6 months, but the adolescents’ reports of parenting behavior indicated no significant effect for MST vs management as usual at any time point.3

Conclusion

  • Multisystemic therapy was not superior to management as usual in reducing out-of-home placements. Although the parents believed that MST brought about a rapid and effective change, this was not reflected in objective indicators of antisocial behavior. These results are contrary to previous studies in the United States. The substantial improvements observed in both groups reflected the effectiveness of routinely offered interventions for this group of young people, at least when observed in clinical trials.3

Continue to: Mindfulness-based cognitive therapy...

 

 

4. Janssen L, Kan CC, Carpentier PJ, et al. Mindfulness-based cognitive therapy v. treatment as usual in adults with ADHD: a multicentre, single-blind, randomised controlled trial. Psychol Med. 2019;49(1):55-65.

There is empirical support for using psychotherapy to treat attention-deficit/hyperactivity disorder (ADHD). Although medication management plays a leading role in treating ADHD, Janssen et al4 conducted a multicenter, single-blind trial comparing mindfulness-based cognitive therapy (MBCT) vs treatment as usual (TAU) for ADHD.

The aim of this study was to determine the efficacy of MBCT plus TAU vs TAU only in decreasing symptoms of adults with ADHD.4

Study design

  • This multicenter, single-blind randomized controlled trial was conducted in the Netherlands. Participants (N = 120) met criteria for ADHD and were age ≥18. Patients were randomly assigned to MBCT plus TAU (n = 60) or TAU only (n = 60). Patients in the MBCT plus TAU group received weekly group therapy sessions, meditation exercises, psychoeducation, and group discussions. Patients in the TAU-only group received pharmacotherapy and psychoeducation.4 
  • Blinded clinicians used the Connors’ Adult ADHD Rating Scale to assess ADHD symptoms.4
  • Secondary outcomes were determined by self-reported questionnaires that patients completed online.4
  • All statistical analyses were performed on an intention-to-treat sample as well as the per protocol sample.4

Outcomes

  • The primary outcome was ADHD symptoms rated by clinicians. Secondary outcomes included self-reported ADHD symptoms, executive functioning, mindfulness skills, positive mental health, and general functioning. Outcomes were examined at baseline and then at post treatment and 3- and 6-month follow-up.4
  • Patients in the MBCT plus TAU group had a significant decrease in clinician-rated ADHD symptoms that was maintained at 6-month follow-up. More patients in the MBCT plus TAU group (27%) vs patients in the TAU group (4%) showed a ≥30% reduction in ADHD symptoms. Compared with patients in the TAU group, patients in the MBCT plus TAU group had significant improvements in ADHD symptoms, mindfulness skills, and positive mental health at post treatment and at 6-month follow-up. Compared with those receiving TAU only, patients treated with MBCT plus TAU reported no improvement in executive functioning at post treatment, but did improve at 6-month follow-up.4

Continue to: Conclusion

 

 

Conclusion

  • Compared with TAU only, MBCT plus TAU is more effective in reducing ADHD symptoms, with a lasting effect at 6-month follow-up. In terms of secondary outcomes, MBCT plus TAU proved to be effective in improving mindfulness, self-compassion, positive mental health, and executive functioning. The results of this trial demonstrate that psychosocial treatments can be effective in addition to TAU in patients with ADHD, and MBCT holds promise for adult ADHD.4

References

1. Pompoli A, Furukawa TA, Efthimiou O, et al. Dismantling cognitive-behaviour therapy for panic disorder: a systematic review and component network meta-analysis. Psychol Med. 2018;48(12):1945-1953.
2. Sloan DM, Marx BP, Lee DJ, et al. A brief exposure-based treatment vs cognitive processing therapy for posttraumatic stress disorder: a randomized noninferiority clinical trial. JAMA Psychiatry. 2018;75(3):233-239.
3. Fonagy P, Butler S, Cottrell D, et al. Multisystemic therapy versus management as usual in the treatment of adolescent antisocial behaviour (START): a pragmatic, randomised controlled, superiority trial. Lancet Psychiatry. 2018;5(2):119-133.
4. Janssen L, Kan CC, Carpentier PJ, et al. Mindfulness-based cognitive therapy v. treatment as usual in adults with ADHD: a multicentre, single-blind, randomised controlled trial. Psychol Med. 2019;49(1):55-65.
5. US Department of Veterans Affairs and Department of Defense. VA/DoD clinical practice guideline for the management of posttraumatic stress disorder and acute stress disorder . https://www.healthquality.va.gov/guidelines/MH/ptsd/VADoDPTSDCPGFinal082917.pdf. Published June 2017. Accessed September 8, 2019.

References

1. Pompoli A, Furukawa TA, Efthimiou O, et al. Dismantling cognitive-behaviour therapy for panic disorder: a systematic review and component network meta-analysis. Psychol Med. 2018;48(12):1945-1953.
2. Sloan DM, Marx BP, Lee DJ, et al. A brief exposure-based treatment vs cognitive processing therapy for posttraumatic stress disorder: a randomized noninferiority clinical trial. JAMA Psychiatry. 2018;75(3):233-239.
3. Fonagy P, Butler S, Cottrell D, et al. Multisystemic therapy versus management as usual in the treatment of adolescent antisocial behaviour (START): a pragmatic, randomised controlled, superiority trial. Lancet Psychiatry. 2018;5(2):119-133.
4. Janssen L, Kan CC, Carpentier PJ, et al. Mindfulness-based cognitive therapy v. treatment as usual in adults with ADHD: a multicentre, single-blind, randomised controlled trial. Psychol Med. 2019;49(1):55-65.
5. US Department of Veterans Affairs and Department of Defense. VA/DoD clinical practice guideline for the management of posttraumatic stress disorder and acute stress disorder . https://www.healthquality.va.gov/guidelines/MH/ptsd/VADoDPTSDCPGFinal082917.pdf. Published June 2017. Accessed September 8, 2019.

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Antidepressants for pediatric patients

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Antidepressants for pediatric patients

Major depressive disorder (MDD) is a significant pediatric health problem, with a lifetime prevalence as high as 20% by the end of adolescence.1-3 Major depressive disorder in adolescence is associated with significant morbidity, including poor social functioning, school difficulties, early pregnancy, and increased risk of physical illness and substance abuse.4-6 It is also linked with significant mortality, with increased risk for suicide, which is now the second leading cause of death in individuals age 10 to 24 years.1,7,8

As their name suggests, antidepressants comprise a group of medications that are used to treat MDD; they are also, however, first-line agents for generalized anxiety disorder (GAD), posttraumatic stress disorder (PTSD), and obsessive-compulsive disorder (OCD) in adults. Anxiety disorders (including GAD and other anxiety diagnoses) and PTSD are also common in childhood and adolescence with a combined lifetime prevalence ranging from 15% to 30%.9,10 These disorders are also associated with increased risk of suicide.11 For all of these disorders, depending on the severity of presentation and the preference of the patient, treatments are often a combination of psychotherapy and psychopharmacology.

Clinicians face several challenges when considering antidepressants for pediatric patients. Pediatricians and psychiatrists need to understand whether these medications work in children and adolescents, and whether there are unique developmental safety and tolerability issues. The evidence base in child psychiatry is considerably smaller compared with that of adult psychiatry. From this more limited evidence base also came the controversial “black-box” warning regarding a risk of emergent suicidality when starting antidepressants that accompanies all antidepressants for pediatric, but not adult, patients. This warning has had major effects on clinical encounters with children experiencing depression, including altering clinician prescribing behavior.12

In this article, we review the current evidence for antidepressant efficacy, tolerability, and safety in pediatric patients. We also suggest ways in which clinicians might choose, start, and stop antidepressants in children, as well as how to talk with parents about benefits, risks, and the black-box warning.

Do antidepressants work in children?

Selective serotonin reuptake inhibitors. Selective serotonin reuptake inhibitors (SSRIs) are the most commonly used class of antidepressants in both children and adults.13 While only a few SSRIs are FDA-approved for pediatric indications, the lack of FDA approval is typically related to a lack of sufficient testing in randomized controlled trials (RCTs) for specific pediatric indications, rather than to demonstrable differences in efficacy between antidepressant agents. Since there is currently no data to suggest inferiority of one agent compared to another in children or adults,14,15 efficacy data will be discussed here as applied to the class of SSRIs, generalizing from RCTs conducted on individual drugs. Table 1 lists FDA indications and dosing information for individual antidepressants.

Characteristics of commonly used antidepressants

There is strong evidence that SSRIs are effective for treating pediatric anxiety disorders (eg, social anxiety disorder and GAD)16 and OCD,17 with numbers needed to treat (NNT) between 3 and 5. For both of these disorders, SSRIs combined with cognitive-behavioral therapy (CBT) have the highest likelihood of improving symptoms or achieving remission.17,18

Selective serotonin reuptake inhibitors are also effective for treating pediatric MDD; however, the literature is more complex for this disorder compared to GAD and OCD as there are considerable differences in effect sizes between National Institute of Mental Health (NIMH)–funded studies and industry-sponsored trials.13 The major NIMH-sponsored adolescent depression trial, TADS (Treatment for Adolescents and Depression Study), showed that SSRIs (fluoxetine in this case) were quite effective, with an NNT of 4 over the acute phase (12 weeks).19 Ultimately, approximately 80% of adolescents improved over 9 months. Many industry-sponsored trials for MDD in pediatric patients had large placebo response rates (approximately 60%), which resulted in smaller between-group differences, and estimates of an NNT closer to 12,13 which has muddied the waters in meta-analyses that include all trials.20 Improvement in depressive symptoms also appears to be bolstered by concomitant CBT in MDD,19 but not as robustly as in GAD and OCD. While the full benefit of SSRIs for depression may take as long as 8 weeks, a meta-analysis of depression studies of pediatric patients suggests that significant benefits from placebo are observed as early as 2 weeks, and that further treatment gains are minimal after 4 weeks.15 Thus, we recommend at least a 4- to 6-week trial at therapeutic dosing before deeming a medication a treatment failure.

Continue to: Posttraumatic stress disorder...

 

 

Posttraumatic stress disorder is a fourth disorder in which SSRIs are a first-line treatment in adults. The data for using SSRIs to treat pediatric patients with PTSD is scant, with only a few RCTs, and no large NIMH-funded trials. Randomized controlled trials have not demonstrated significant differences between SSRIs and placebo21,22 and thus the current first-line recommendation in pediatric PTSD remains trauma-focused therapy, with good evidence for trauma-focused CBT.23 Practically speaking, there can be considerable overlap of PTSD, depression, and anxiety symptoms in children,23 and children with a history of trauma who also have comorbid MDD may benefit from medication if their symptoms persist despite an adequate trial of psychotherapy.

Taken together, the current evidence suggests that SSRIs are often effective in pediatric GAD, OCD, and MDD, with low NNTs (ranging from 3 to 5 based on NIMH-funded trials) for all of these disorders; there is not yet sufficient evidence of efficacy in pediatric patients with PTSD.

Fluoxetine has been studied more intensively than other SSRIs (for example, it was the antidepressant used in the TADS trial), and thus has the largest evidence base. For this reason, fluoxetine is often considered the first of the first-line options. Additionally, fluoxetine has a longer half-life than other antidepressants, which may make it more effective in situations where patients are likely to miss doses, and results in a lower risk of withdrawal symptoms when stopped due to “self-tapering.”

SNRIs and atypical antidepressants. Other antidepressants commonly used in pediatric patients but with far less evidence of efficacy include serotonin-norepinephrine reuptake inhibitors (SNRIs) and the atypical antidepressants bupropion and mirtazapine. The SNRI duloxetine is FDA-approved for treating GAD in children age 7 to 17, but there are no other pediatric indications for duloxetine, or for the other SNRIs.

In general, adverse effect profiles are worse for SNRIs compared to SSRIs, further limiting their utility. While there are no pediatric studies demonstrating SNRI efficacy for neuropathic pain, good data exists in adults.24 Thus, an SNRI could be a reasonable option if a pediatric patient has failed prior adequate SSRI trials and also has comorbid neuropathic pain.

Continue to: Neither bupropion nor mirtazapine...

 

 

Neither bupropion nor mirtazapine have undergone rigorous testing in pediatric patients, and therefore these agents should generally be considered only once other first-line treatments have failed. Bupropion has been evaluated for attention-deficit/hyperactivity disorder (ADHD)25 and for adolescent smoking cessation.26 However, the evidence is weak, and bupropion is not considered a first-line option for children and adolescents.

Tricyclic antidepressants. Randomized controlled trials have demonstrated that tricyclic antidepressants (TCAs) are efficacious for treating several pediatric conditions; however, their significant side effect profile, their monitoring requirements, as well as their lethality in overdose has left them replaced by SSRIs in most cases. That said, they can be appropriate in refractory ADHD (desipramine27,28) and refractory OCD (clomipramine is FDA-approved for this indication29); they are considered a third-line treatment for enuresis.30

Why did my patient stop the medication?

Common adverse effects. Although the greatest benefit of antidepressant medications compared with placebo is achieved relatively early on in treatment, it generally takes time for these benefits to accrue and become clinically apparent.15,31 By contrast, most adverse effects of antidepressants present and are at their most severe early in treatment. The combination of early adverse effects and delayed efficacy leads many patients, families, and clinicians to discontinue medications before they have an adequate chance to work. Thus, it is imperative to provide psychoeducation before starting a medication about the typical time-course of improvement and adverse effects (Table 2).

Summary of clinical guidance for antidepressants for pediatric patients and adults

Adverse effects of SSRIs often appear or worsen transiently during initiation of a medication, during a dose increase,32 or, theoretically, with the addition of a medication that interferes with SSRI metabolism (eg, cimetidine inhibition of cytochrome P450 2D6).33 If families are prepared for this phenomenon and the therapeutic alliance is adequate, adverse effects can be tolerated to allow for a full medication trial. Common adverse effects of SSRIs include sleep problems (insomnia/sedation), gastrointestinal upset, sexual dysfunction, dry mouth, and hyperhidrosis. Although SSRIs differ somewhat in the frequency of these effects, as a class, they are more similar than different. Adequate psychoeducation is especially imperative in the treatment of OCD and anxiety disorders, where there is limited evidence of efficacy for any non-serotonergic antidepressants.

Serotonin-norepinephrine reuptake inhibitors are not considered first-line medications because of the reduced evidence base compared to SSRIs and their enhanced adverse effect profiles. Because SNRIs partially share a mechanism of action with SSRIs, they also share portions of the adverse effects profile. However, SNRIs have the additional adverse effect of hypertension, which is related to their noradrenergic activity. Thus, it is reasonable to obtain a baseline blood pressure before initiating an SNRI, as well as periodically after initiation and during dose increases, particularly if the patient has other risk factors for hypertension.34

Continue to: Although TCAs have efficacy...

 

 

Although TCAs have efficacy in some pediatric disorders,27-29,35 their adverse effect profile limits their use. Tricyclic antidepressants are highly anticholinergic (causing dizziness secondary to orthostatic hypotension, dry mouth, and urinary retention) and antihistaminergic (causing sedation and weight gain). Additionally, TCAs lower the seizure threshold and have adverse cardiac effects relating to their anti-alpha-1 adrenergic activity, resulting in dose-dependent increases in the QTc and cardiac toxicity in overdose that could lead to arrhythmia and death. These medications have their place, but their use requires careful informed consent, clear treatment goals, and baseline and periodic cardiac monitoring (via electrocardiogram).

Serious adverse effects. Clinicians may be hesitant to prescribe antidepressants for pediatric patients because of the potential for more serious adverse effects, including severe behavioral activation syndromes, serotonin syndrome, and emergent suicidality. However, current FDA-approved antidepressants arguably have one of the most positive risk/benefit profiles of any orally-administered medication approved for pediatric patients. Having a strong understanding of the evidence is critical to evaluating when it is appropriate to prescribe an antidepressant, how to properly monitor the patient, and how to obtain accurate informed consent.

Pediatric behavioral activation syndrome. Many clinicians report that children receiving antidepressants experience a pediatric behavioral activation syndrome, which exists along a spectrum from mild activation, increased energy, insomnia, or irritability up through more severe presentations of agitation, hyperactivity, or possibly mania. A recent meta-analysis suggested a positive association between antidepressant use and activation events on the milder end of this spectrum in pediatric patients with non-OCD anxiety disorders,16 and it is thought that compared with adolescents, younger children are more susceptible to activation adverse effects.36 The likelihood of activation events has been associated with higher antidepressant plasma levels,37 suggesting that dose or individual differences in metabolism may play a role. At the severe end of the spectrum, the risk of induction of mania in pediatric patients with depression or anxiety is relatively rare (<2%) and not statistically different from placebo in RCTs of pediatric participants.38 Meta-analyses of larger randomized, placebo-controlled trials of adults do not support the idea that SSRIs and other second-generation antidepressants carry an increased risk of mania compared with placebo.39,40 Children or adolescents with bona fide bipolar disorder (ie, patients who have had observed mania that meets all DSM-5 criteria) should be treated with a mood-stabilizing agent or antipsychotic if prescribed an antidepressant.41 These clear-cut cases are, however, relatively rare, and more often clinicians are confronted with ambiguous cases that include a family history of bipolar disorder along with “softer” symptoms of irritability, intrusiveness, or aggression. In these children, SSRIs may be appropriate for depressive, OCD, or anxiety symptoms, and should be strongly considered before prescribing antipsychotics or mood stabilizers, as long as initiated with proper monitoring.

Serotonin syndrome is a life-threatening condition caused by excess synaptic serotonin. It is characterized by confusion, sweating, diarrhea, hypertension, hyperthermia, and tachycardia. At its most severe, serotonin syndrome can result in seizures, arrhythmias, and death. The risk of serotonin syndrome is very low when using an SSRI as monotherapy. Risk increases with polypharmacy, particularly unexamined polypharmacy when multiple serotonergic agents are inadvertently on board. Commonly used serotonergic agents include other antidepressants, migraine medications (eg, triptans), some pain medications, and the cough suppressant dextromethorphan.

The easiest way to mitigate the risk of serotonin syndrome is to use an interaction index computer program, which can help ensure that the interacting agents are not prescribed without first discussing the risks and benefits. It is important to teach adolescents that certain recreational drugs are highly serotonergic and can cause serious interactions with antidepressants. For example, recreational use of dextrometh­orphan or 3,4-methylenedioxymethamphetamine (MDMA; commonly known as “ecstasy”) has been associated with serotonin syndrome in adolescents taking antidepressant medications.42,43

Continue to: Suicidality

 

 

Suicidality. The black-box warning regarding a risk of emergent suicidality when starting antidepressant treatment in children is controversial.44 The prospect that a medication intended to ameliorate depression might instead risk increasing suicidal thinking is alarming to parents and clinicians alike. To appropriately weigh and discuss the risks and benefits with families, it is important to understand the data upon which the warning is based.

Cates plot depicting the benefits of antidepressants vs risk of suicidal ideation for pediatric patients with anxiety disorders

In 2004, the FDA commissioned a review of 23 antidepressant trials, both published and unpublished, pooling studies across multiple indications (MDD, OCD, anxiety, and ADHD) and multiple antidepressant classes. This meta-analysis, which included nearly 4,400 pediatric patients, found a small but statistically significant increase in spontaneously-reported suicidal thoughts or actions, with a risk difference of 1% (95% confidence interval [CI], 1% to 2%).45 These data suggest that if one treats 100 pediatric patients, 1 to 2 of them may experience short-term increases in suicidal thinking or behavior.45 There were no differences in suicidal thinking when assessed systematically (ie, when all subjects reported symptoms of suicidal ideation on structured rating scales), and there were no completed suicides.45 A subsequent analysis that included 27 pediatric trials suggested an even lower, although still significant, risk difference (<1%), yielding a number needed to harm (NNH) of 143.46 Thus, with low NNT for efficacy (3 to 6) and relatively high NNH for emergent suicidal thoughts or behaviors (100 to 143), for many patients the benefits will outweigh the risks.

Cates plot depicting the benefits of antidepressants vs risk of suicidal ideation for pediatric patients with major depressive disorder

Figure 1, Figure 2, and Figure 3 are Cates plots that depict the absolute benefits of antidepressants compared with the risk of suicidality for pediatric patients with MDD, OCD, and anxiety disorders. Recent meta-analyses have suggested that the increased risk of suicidality in antidepressant trials is specific to studies that included children and adolescents, and is not observed in adult studies. A meta-analysis of 70 trials involving 18,526 participants suggested that the odds ratio of suicidality in trials of children and adolescents was 2.39 (95% CI, 1.31 to 4.33) compared with 0.81 (95% CI, 0.51 to 1.28) in adults.47 Additionally, a network meta-analysis exclusively focusing on pediatric antidepressant trials in MDD reported significantly higher suicidality-related adverse events in venlafaxine trials compared with placebo, duloxetine, and several SSRIs (fluoxetine, paroxetine, and escitalopram).20 These data should be interpreted with caution as differences in suicidality detected between agents is quite possibly related to differences in the method of assessment between trials, as opposed to actual differences in risk between agents.

Cates plot depicting the benefits of antidepressants vs risk of suicidal ideation for pediatric patients with obsessive-compulsive disorder

Epidemiologic data further support the use of antidepressants in pediatric patients, showing that antidepressant use is associated with decreased teen suicide attempts and completions,48 and the decline in prescriptions that occurred following the black-box warning was accompanied by a 14% increase in teen suicides.49 Multiple hypotheses have been proposed to explain the pediatric clinical trial findings. One idea is that potential adverse effects of activation, or the intended effects of restoring the motivation, energy, and social engagement that is often impaired in depression, increases the likelihood of thinking about suicide or acting on thoughts. Another theory is that reporting of suicidality may be increased, rather than increased de novo suicidality itself. Antidepressants are effective for treating pediatric anxiety disorders, including social anxiety disorder,16 which could result in more willingness to report. Also, the manner in which adverse effects are generally ascertained in trials might have led to increased spontaneous reporting. In many trials, investigators ask whether participants have any adverse effects in general, and inquire about specific adverse effects only if the family answers affirmatively. Thus, the increased rate of other adverse effects associated with antidepressants (sleep problems, gastrointestinal upset, dry mouth, etc.) might trigger a specific question regarding suicidal ideation, which the child or family then may be more likely to report. Alternatively, any type of psychiatric treatment could increase an individual’s propensity to report; in adolescent psychotherapy trials, non-medicated participants have reported emergent suicidality at similar frequencies as those described in drug trials.50 Regardless of the mechanism, the possibility of treatment-emergent suicidality is a low-frequency but serious event that necessitates careful monitoring when starting medication. Current guidelines suggest seeing children weekly for the first month after medication initiation, every 2 weeks for the following month, and monthly thereafter.51

Continue to: How long should the antidepressant be continued?

 

 

How long should the antidepressant be continued?

Many patients are concerned about how long they may be taking medication, and whether they will be taking an antidepressant “forever.” A treatment course can be broken into an acute phase, wherein remission is achieved and maintained for 6 to 8 weeks. This is followed by a continuation phase, with the goal of relapse prevention, lasting 16 to 20 weeks. The length of the last phase—the maintenance phase—depends both on the child’s history, the underlying therapeutic indication, the adverse effect burden experienced, and the family’s preferences/values. In general, for a first depressive episode, after treating for 1 year, a trial of discontinuation can be attempted with close monitoring. For a second depressive episode, we recommend 2 years of remission on antidepressant therapy before attempting discontinuation. In patients who have had 3 depressive episodes, or have had episodes of high severity, we recommend continuing antidepressant treatment indefinitely. Although much less well studied, the risk of relapse following SSRI discontinuation appears much more significant in OCD, whereas anxiety disorders and MDD have a relatively comparable risk.52

In general, stopping an antidepressant should be done carefully and slowly. The speed with which a specific antidepressant can be stopped is largely related to its half-life. Agents with very long half-lives, such as fluoxetine (half-life of 5 days for the parent compound and 9 days for active metabolite), can often be stopped altogether, being “auto-tapered” by the long half-life. One might still consider a taper if the patient were taking high doses. Medications with shorter half-lives must be more carefully tapered to avoid discontinuation syndromes. Discontinuation syndromes are characterized by flu-like symptoms (nausea, myalgias, fatigue, dizziness) and worsening mood. Medications with short half-lives (eg, paroxetine and venlafaxine) have the highest potential for this syndrome in children,53 and thus are used less frequently.

What to do when first-line treatments fail

When a child does not experience sufficient improvement from first-line treatments, it is crucial to determine whether they have experienced an adequate dosing, duration, and quality of medication and psychotherapy.

Adequate psychotherapy? To determine whether children are receiving adequate CBT, ask:

  1. if the child receives homework from psychotherapy
  2. if the parents are included in treatment
  3. if therapy has involved identifying thought patterns that may be contributing to the child’s illness, and
  4. if the therapist has ever exposed the child to a challenge likely to produce anxiety or distress in a supervised environment and has developed an exposure hierarchy (for conditions with primarily exposure-based therapies, such as OCD or anxiety disorders).

If a family is not receiving most of these elements in psychotherapy, this is a good indicator that they may not be receiving evidence-based CBT.

Continue to: Adequate pharmacotherapy?

 

 

Adequate pharmacotherapy? Similarly, when determining the adequacy of previous pharmacotherapy, it is critical to determine whether the child received an adequate dose of medications (at least the FDA-recommended minimum dose) for an adequate duration of time at therapeutic dosing (at least 6 weeks for MDD, 8 weeks for anxiety disorders, and 8 to 12 weeks for pediatric patients with OCD), and that the child actually took the medication regularly during that period. Patient compliance can typically be tracked through checking refill requests or intervals through the patient’s pharmacy. Ensuring proper delivery of first-line treatments is imperative because (1) the adverse effects associated with second-line treatments are often more substantial; (2) the cost in terms of time and money is considerably higher with second-line treatments, and; (3) the evidence regarding the benefits of these treatments is much less certain.

Inadequate dosing is a common reason for non-response in pediatric patients. Therapeutic dose ranges for common antidepressants are displayed in Table 1. Many clinicians underdose antidepressants for pediatric patients initially (and often throughout treatment) because they fear that the typical dose titration used in clinical trials will increase the risk of adverse effects compared with more conservative dosing. There is limited evidence to suggest that this underdosing strategy is likely to be successful; adverse effects attributable to these medications are modest, and most that are experienced early in treatment (eg, headache, increased anxiety or irritability, sleep problems, gastrointestinal upset) are self-limiting and may be coincidental rather than medication-induced. Furthermore, there is no evidence for efficacy of subtherapeutic dosing in children in the acute phase of treatment or for preventing relapse.14 Thus, from an efficacy standpoint, a medication trial has not officially begun until the therapeutic dose range is reached.

Once dosing is within the therapeutic range, however, pediatric data differs from the adult literature. In most adult psychi­atric conditions, higher doses of SSRIs within the therapeutic range are associated with an increased response rate.14,54 In pediatrics, there are few fixed dose trials, and once within the recommended therapeutic range, minimal data supports an association between higher dosing and higher efficacy.14 In general, pediatric guidelines are silent regarding optimal dosing of SSRIs within the recommended dose range, and higher antidepressant doses often result in a more significant adverse effect burden for children. One exception is pediatric OCD, where, similar to adults, the guidelines suggest that higher dosing of SSRIs often is required to induce a therapeutic response as compared to MDD and GAD.31,55

If a child does not respond to adequate first-line treatment (or has a treatment history that cannot be fully verified), repeating these first-line interventions carries little risk and can be quite effective. For example, 60% of adolescents with MDD who did not initially respond to an SSRI demonstrated a significant response when prescribed a second SSRI or venlafaxine (with or without CBT).56

When pediatric patients continue to experience significantly distressing and/or debilitating symptoms (particularly in MDD) despite multiple trials of antidepressants and psychotherapy, practitioners should consider a careful referral to interventional psychiatry services, which can include the more intensive treatments of electroconvulsive therapy, repetitive transcranial magnetic stimulation, or ketamine (see Box 1). Given the substantial morbidity and mortality associated with adolescent depression, interventional psychiatry treatments are under-researched and under-utilized clinically in pediatric populations.

Continue to: Antidepressants in general...

 

 

Antidepressants in general, and SSRIs in particular, are the first-line pharmacotherapy for pediatric anxiety, OCD, and MDD. For PTSD, although they are a first-line treatment in adults, their efficacy has not been demonstrated in children and adolescents. Antidepressants are generally safe, well-tolerated, and effective, with low NNTs (3 to 5 for anxiety and OCD; 4 to 12 in MDD, depending on whether industry trials are included). It is important that clinicians and families be educated about possible adverse effects and their time course in order to anticipate difficulties, ensure adequate informed consent, and monitor appropriately. The black-box warning regarding treatment-emergent suicidal thoughts or behaviors must be discussed (for suggested talking points, see Box 2). The NNH is large (100 to 143), and for many patients, the benefits will outweigh the risks. For pediatric patients who fail to respond to multiple adequate trials of antidepressants and psychotherapy, referrals for interventional psychiatry consultation should be considered.

Bottom Line

Although the evidence base for prescribing antidepressants for children and adolescents is smaller compared to the adult literature, properly understanding and prescribing these agents, and explaining their risks and benefits to families, can make a major difference in patient compliance, satisfaction, and outcomes. Antidepressants (particularly selective serotonin reuptake inhibitors) are the firstline pharmacologic intervention for pediatric patients with anxiety disorders, obsessive-compulsive disorder, or major depressive disorder.

Related Resource

 

Drug Brand Names

Bupropion • Wellbutrin, Zyban
Cimetidine • Tagamet
Citalopram • Celexa
Clomipramine • Anafranil
Desipramine • Norpramin
Desvenlafaxine • Pristiq
Duloxetine • Cymbalta
Escitalopram • Lexapro
Fluoxetine • Prozac
Fluvoxamine • Luvox
Imipramine • Tofranil
Mirtazapine • Remeron
Nortriptyline • Pamelor
Paroxetine • Paxil
Sertraline • Zoloft
Venlafaxine • Effexor
Vilazodone • Viibryd
Vortioxetine • Trintellix

 

 

Box 1

Interventional treatments

Continuing severe depression is associated with reduced educational attainment and quality of life, as well as increased risk of substance abuse and suicide,1,2 which is the second leading cause of death in individuals age 10 to 24 years.3 Given the substantial morbidity and mortality associated with adolescent depression, interventional psychiatry treatments are under-researched and underutilized in pediatric patients. Interventional antidepressants in adults include electroconvulsive therapy (ECT), repetitive transcranial magnetic stimulation (rTMS), and, most recently, ketamine.

Electroconvulsive therapy is the most effective therapy available for depression in adults, alleviating depressive symptoms in treatment-refractory patients and outperforming both pharmacotherapy4 and rTMS.5 Despite its track record of effectiveness and safety in adults, ECT continues to suffer considerable stigma.4 Cognitive adverse effects and memory problems in adults are generally self-limited, and some aspects of cognition actually improve after ECT as depression lifts.6 The combination of stigma and the concern about possible cognitive adverse effects during periods of brain development have likely impeded the rigorous testing of ECT in treatment-refractory pediatric patients. Several case series and other retrospective analyses suggest, however, that ECT has strong efficacy and limited adverse effects in adolescents who have severe depression or psychotic symptoms.7-9 Despite these positive preliminary data in pediatric patients, and a large body of literature in adults, no controlled trials of ECT have been conducted in the pediatric population, and it remains a rarely used treatment in severe pediatric mental illness.

Repetitive transcranial magnetic stimulation is a technique in which magnetic stimulation is used to activate the left dorsolateral prefrontal cortex (DLPFC), a target thought to be important in the pathophysiology of MDD. Repetitive transcranial magnetic stimulation is FDAapproved to treat medication-refractory major depressive disorder (MDD) in adults, and has been shown to be effective as both a monotherapy10 and an adjunctive treatment.11 The estimated number needed to treat (NNT) for rTMS ranges from 6 to 8, which is quite effective, although less so than ECT (and probably initial pharmacotherapy).5 Similar to ECT, however, there are no large randomized controlled trials (RCTs) in children or adolescents. Pilot RCTs12 and open trials13 suggest that DLPFC rTMS may be effective as an adjunctive treatment, speeding or augmenting response to a selective serotonin reuptake inhibitor in adolescents with MDD. Larger trials studying rTMS in pediatric patients are needed. While rTMS is generally well tolerated, disadvantages include the time-consuming schedule (the initial treatment is typically 5 days/week for several weeks) and local adverse effects of headache and scalp pain.

Ketamine, which traditionally is used as a dissociative anesthetic, is a rapidly emerging novel treatment in adult treatment-refractory MDD. It acts quickly (within hours to days) and cause significant improvement in difficult symptoms such as anhedonia14 and suicidal ideation.15 In adult studies, ketamine has a robust average effect size of >1.2, and an NNT ranging from 3 to 5 in medication-refractory patients.16,17 Ketamine is a glutamatergic modulator, acting outside of the monoamine neurochemical systems traditionally targeted by standard antidepressants.16 The efficacy of ketamine in treatment-refractory adults is impressive, but the effects of a single treatment are ephemeral, dissipating within 1 to 2 weeks, which has led to significant discussion surrounding optimal dosing strategies.16 Although small RCTs in pediatric patients are currently underway, at this time, the only evidence for ketamine for pediatric MDD is based on case series/report data18,19 which was positive.

For all of these interventional modalities, it is critical to refer children with treatmentrefractory disorders to interventionists who have appropriate experience and monitoring capabilities.

References
1. Weissman MM, Wolk S, Goldstein RB, et al. Depressed adolescents grown up. JAMA.1999;281(18):1707-1713.
2. Fergusson DM, Woodward LJ. Mental health, educational, and social role outcomes of adolescents with depression. Arch Gen Psychiatry. 2002;59(3):225-231.
3. Centers for Disease Control and Prevention. National Vital Statistics System. Deaths, percent of total deaths, and death rates for the 15 leading causes of death in 5-year age groups, by race and sex: United States, 1999-2015. Centers for Disease Control and Prevention. https://www.cdc.gov/nchs/nvss/mortality/lcwk1.htm. Published October 23, 2017. Accessed May 2, 2019.
4. UK ECT Review Group. Efficacy and safety of electroconvulsive therapy in depressive disorders: a systematic review and metaanalysis. Lancet. 2003;361(9360):799-808.
5. Berlim MT, Van den Eynde F, Daskalakis ZJ. Efficacy and acceptability of high frequency repetitive transcranial magnetic stimulation (rTMS) versus electroconvulsive therapy (ECT) for major depression: a systematic review and meta-analysis of randomized trials. Depress Anxiety. 2013;30(7):614-623.
6. Semkovska M, McLoughlin DM. Objective cognitive performance associated with electroconvulsive therapy for depression: a systematic review and meta-analysis. Biol Psychiatry. 2010;68(6):568-577.
7. Jacob P, Gogi PK, Srinath S, et al. Review of electroconvulsive therapy practice from a tertiary child and adolescent psychiatry centre. Asian J Psychiatr. 2014;12(1):95-99.
8. Zhand N, Courtney DB, Flament MF. Use of electroconvulsive therapy in adolescents with treatment-resistant depressive disorders: a case series. J ECT. 2015;31(4):238-245.
9. Puffer CC, Wall CA, Huxsahl JE, et al. A 20 year practice review of electroconvulsive therapy for adolescents. J Child Adolesc Psychopharmacol. 2016;26(7):632-636.
10. Berlim MT, van den Eynde F, Tovar-Perdomo S, et al. Response, remission and drop-out rates following high-frequency repetitive transcranial magnetic stimulation (rTMS) for treating major depression: a systematic review and meta-analysis of randomized, double-blind and sham-controlled trials. Psychol Med. 2014;44(2):225-239.
11. Liu B, Zhang Y, Zhang L, et al. Repetitive transcranial magnetic stimulation as an augmentative strategy for treatment-resistant depression, a meta-analysis of randomized, double-blind and sham-controlled study. BMC Psychiatry. 2014;14:342.
12. Huang ML, Luo BY, Hu JB, et al. Repetitive transcranial magnetic stimulation in combination with citalopram in young patients with first-episode major depressive disorder: a double-blind, randomized, sham-controlled trial. Aust N Z J Psychiatry. 2012;46(3):257-264.
13. Wall CA, Croarkin PE, Sim LA, et al. Adjunctive use of repetitive transcranial magnetic stimulation in depressed adolescents: a prospective, open pilot study. J Clin Psychiatry. 2011;72(9):1263-1269.
14. Lally N, Nugent AC, Luckenbaugh DA, et al. Anti-anhedonic effect of ketamine and its neural correlates in treatment-resistant bipolar depression. Transl Psychiatry. 2014;4:e469. doi: 10.1038/tp.2014.105.
15. Ballard ED, Ionescu DF, Vande Voort JL, et al. Improvement in suicidal ideation after ketamine infusion: relationship to reductions in depression and anxiety. J Psychiatr Res. 2014;58:161-166.
16. Newport DJ, Carpenter LL, McDonald WM, et al. Ketamine and other NMDA antagonists: early clinical trials and possible mechanisms in depression. Am J Psychiatry. 2015;172(10):950-966.
17. McGirr A, Berlim MT, Bond DJ, et al. A systematic review and meta-analysis of randomized, double-blind, placebo-controlled trials of ketamine in the rapid treatment of major depressive episodes. Psychol Med. 2015;45(4):693-704.
18. Dwyer JB, Beyer C, Wilkinson ST, et al. Ketamine as a treatment for adolescent depression: a case report. J Am Acad Child Adolesc Psychiatry. 2017;56(4):352-354.
19. Cullen KR, Amatya P, Roback MG, et al. Intravenous ketamine for adolescents with treatment-resistant depression: an open-label study. J Child Adolesc Psychopharmacol. 2018;28(7):437-444.

Box 2

Talking to families when starting antidepressants for pediatric patients

Efficacy

  • Selective serotonin reuptake inhibitors are the most effective pharmacologic treatment we have for pediatric depression, OCD, and anxiety
  • More than one-half of children who are prescribed SSRIs have a significant improvement, regardless of condition
  • Based on current estimates, we need to treat 4 to 6 children with an SSRI to find one that will improve who would not improve with placebo
  • The clinical benefits of SSRIs generally take a while to accrue; therefore, it is advisable to take the medication for at least 2 to 3 months before concluding that it is ineffective
  • In addition to medication, evidence-based psychotherapies provide significant benefit for pediatric depression, OCD, and anxiety

Tolerability

  • Most commonly prescribed pediatric antidepressants have been used safely in children for 2 to 3 decades. The safety profiles of SSRIs are among the best of any medications used for children and adolescents
  • While many children get better when taking these medications, it’s important that we also talk about potential adverse effects. Some children will experience sleep problems (either sleepier than usual or difficulty sleeping), changes in energy levels, headache, gastrointestinal upset, and dry mouth. These are most likely at the beginning of treatment, or when we increase the dose; they usually are time-limited and go away on their own
  • Often adverse effects occur first and the benefits come later. Because it may take at least a few weeks to start to see the mood/anxiety benefits, it’s important for us to talk about any adverse effects your child experiences and remember that they usually are short-lived

Suicidality

  • The FDA placed a “black-box” warning on antidepressants after pediatric studies found a small but statistically significant increased risk of reporting suicidal thoughts or behaviors over the short-term compared with placebo
  • The increased risk of spontaneously reporting suicidal ideation was quite small. Studies suggested that one would need to treat 100 to 140 children to see 1 child report suicidal ideation compared to placebo. Suicidal ideation is a common symptom in children with depression and anxiety
  • Studies found no increased risk when suicidal ideation was systematically assessed using structured rating scales
  • In the studies evaluated, there were no completed suicides by patients taking medication or placebo
  • Population studies show that higher rates of antidepressant prescriptions are associated with lower rates of attempted and completed teen suicide, which underscores that in general, these medicines treat the underlying causes of suicidality
  • No scientific consensus exists on whether these medications are truly associated with an increased risk of new-onset suicidal ideation, or if this association is due to other factors (eg, improvement in anxiety and depressive symptoms that make patients more comfortable to report suicidal ideation spontaneously)
  • Regardless, the FDA recommends frequent monitoring of children for suicidal thoughts when these medications are started. This should be done anyway in children experiencing depression and anxiety, and it’s why we will plan to have more frequent appointments as the medication is initiated

OCD: obsessive-compulsive disorder; SSRIs: selective serotonin reuptake inhibitors

References

1. Williams SB, O’Connor EA, Eder M, et al. Screening for child and adolescent depression in primary care settings: a systematic evidence review for the US Preventive Services Task Force. Pediatrics. 2009;123(4):e716-e735. doi: 10.1542/peds.2008-2415.
2. Kessler RC, Avenevoli S, Ries Merikangas K. Mood disorders in children and adolescents: an epidemiologic perspective. Biol Psychiatry. 2001;49(12):1002-1014.
3. Lewinsohn PM, Clarke GN, Seeley JR, et al. Major depression in community adolescents: age at onset, episode duration, and time to recurrence. J Am Acad Child Adolesc Psychiatry. 1994;33(6):809-818.
4. Weissman MM, Wolk S, Goldstein RB, et al. Depressed adolescents grown up. JAMA.1999;281(18):1707-1713.
5. Fergusson DM, Woodward LJ. Mental health, educational, and social role outcomes of adolescents with depression. Arch Gen Psychiatry. 2002;59(3):225-231.
6. Keenan-Miller D, Hammen CL, Brennan PA. Health outcomes related to early adolescent depression. J Adolesc Health. 2007; 41(3): 256-62.
7. Shaffer D, Gould MS, Fisher P, et al. Psychiatric diagnosis in child and adolescent suicide. Arch Gen Psychiatry. 1996;53(4):339-348.
8. Centers for Disease Control and Prevention. National Vital Statistics System. Deaths, percent of total deaths, and death rates for the 15 leading causes of death in 5-year age groups, by race and sex: United States, 1999-2015. https://www.cdc.gov/nchs/nvss/mortality/lcwk1.htm. Published October 23, 2017. Accessed May 2, 2019.
9. Merikangas KR, He JP, Burstein M, et al. Lifetime prevalence of mental disorders in US adolescents: results from the National Comorbidity Survey Replication-Adolescent Supplement (NCS-A). J Am Acad Child Adolesc Psychiatry. 2010;49(10):980-989.
10. Wittchen HU, Nelson CB, Lachner G. Prevalence of mental disorders and psychosocial impairments in adolescents and young adults. Psychol Med. 1998;28(1):109-126.
11. Foley DL, Goldston DB, Costello EJ, et al. Proximal psychiatric risk factors for suicidality in youth: the Great Smoky Mountains Study. Arch Gen Psychiatry. 2006;63(9):1017-1024.
12. Cheung A, Sacks D, Dewa CS, et al. Pediatric prescribing practices and the FDA black-box warning on antidepressants. J Dev Behav Pediatr. 2008 29(3):213-215.
13. Walkup JT. Antidepressant efficacy for depression in children and adolescents: industry- and NIMH-funded studies. Am J Psychiatry. 2017;174(5):430-437.
14. Jakubovski E, Varigonda AL, Freemantle N, et al. Systematic review and meta-analysis: dose-response relationship of selective serotonin reuptake inhibitors in major depressive disorder. Am J Psychiatry. 2016;173(2):174-183.
15. Varigonda AL, Jakubovski E, Taylor MJ, et al. Systematic review and meta-analysis: early treatment responses of selective serotonin reuptake inhibitors in pediatric major depressive disorder. J Am Acad Child Adolesc Psychiatry. 2015;54(7):557-564.
16. Strawn JR, Welge JA, Wehry AM, et al. Efficacy and tolerability of antidepressants in pediatric anxiety disorders: a systematic review and meta-analysis. Depress Anxiety. 2015;32(3):149-157.
17. March JS, Biederman J, Wolkow R, et al. Sertraline in children and adolescents with obsessive-compulsive disorder: a multicenter randomized controlled trial. JAMA. 1998;280(20):1752-1756.
18. Walkup JT, Albano AM, Piacentini J, et al. Cognitive behavioral therapy, sertraline, or a combination in childhood anxiety. N Engl J Med. 2008;359(26):2753-2766.
19. Kennard BD, Silva SG, Tonev S, et al. Remission and recovery in the Treatment for Adolescents with Depression Study (TADS): acute and long-term outcomes. J Am Acad Child Adolesc Psychiatry. 2009;48(2):186-195.
20. Cipriani A, Zhou X, Del Giovane C, et al. Comparative efficacy and tolerability of antidepressants for major depressive disorder in children and adolescents: a network meta-analysis. Lancet. 2016;388(10047):881-890.
21. Cohen JA, Mannarino AP, Perel JM, et al. A pilot randomized controlled trial of combined trauma-focused CBT and sertraline for childhood PTSD symptoms. J Am Acad Child Adolesc Psychiatry. 2007;46(7):811-819.
22. Robb AS, Cueva JE, Sporn J, et al. Sertraline treatment of children and adolescents with posttraumatic stress disorder: a double-blind, placebo-controlled trial. J Child Adolesc Psychopharmacol. 2010;20(6):463-471.
23. Diehle J, Opmeer BC, Boer F, et al. Trauma-focused cognitive behavioral therapy or eye movement desensitization and reprocessing: what works in children with posttraumatic stress symptoms? A randomized controlled trial. Eur Child Adolesc Psychiatry. 2015;24(2):227-236.
24. Aiyer R, Barkin RL, Bhatia A. Treatment of neuropathic pain with venlafaxine: a systematic review. Pain Med. 2017;18(10):1999-2012.
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26. Monuteaux MC, Spencer TJ, Faraone SV, et al. A randomized, placebo-controlled clinical trial of bupropion for the prevention of smoking in children and adolescents with attention-deficit/hyperactivity disorder. J Clin Psychiatry. 2007;68(7):1094-1101.
27. Biederman J, Baldessarini RJ, Wright V, et al. A double-blind placebo controlled study of desipramine in the treatment of ADD: I. Efficacy. J Am Acad Child Adolesc Psychiatry. 1989;28(5):777-784.
28. Spencer T, Biederman J, Coffey B, et al. A double-blind comparison of desipramine and placebo in children and adolescents with chronic tic disorder and comorbid attention-deficit/hyperactivity disorder. Arch Gen Psychiatry. 2002;59(7):649-656.
29. DeVeaugh-Geiss J, Moroz G, Biederman J, et al. Clomipramine hydrochloride in childhood and adolescent obsessive-compulsive disorder--a multicenter trial. J Am Acad Child Adolesc Psychiatry. 1992;31(1):45-49.
30. Caldwell PH, Sureshkumar P, Wong WC. Tricyclic and related drugs for nocturnal enuresis in children. Cochrane Database Syst Rev. 2016;(1):CD002117.
31. Varigonda AL, Jakubovski E, Bloch MH. Systematic review and meta-analysis: early treatment responses of selective serotonin reuptake inhibitors and clomipramine in pediatric obsessive-compulsive disorder. J Am Acad Child Adolesc Psychiatry. 2016;55(10):851-859.e2. doi: 10.1016/j.jaac.2016.07.768.
32. Walkup J, Labellarte M. Complications of SSRI treatment. J Child Adolesc Psychopharmacol. 2001;11(1):1-4.
33. Leo RJ, Lichter DG, Hershey LA. Parkinsonism associated with fluoxetine and cimetidine: a case report. J Geriatr Psychiatry Neurol. 1995;8(4):231-233.
34. Strawn JR, Prakash A, Zhang Q, et al. A randomized, placebo-controlled study of duloxetine for the treatment of children and adolescents with generalized anxiety disorder. J Am Acad Child Adolesc Psychiatry. 2015;54(4):283-293.
35. Bernstein GA, Borchardt CM, Perwien AR, et al. Imipramine plus cognitive-behavioral therapy in the treatment of school refusal. J Am Acad Child Adolesc Psychiatry. 2000;39(3): 276-283.
36. Safer DJ, Zito JM. Treatment-emergent adverse events from selective serotonin reuptake inhibitors by age group: children versus adolescents. J Child Adolesc Psychopharmacol. 2006;16(1-2):159-169.
37. Reinblatt SP, DosReis S, Walkup JT, et al. Activation adverse events induced by the selective serotonin reuptake inhibitor fluvoxamine in children and adolescents. J Child Adolesc Psychopharmacol. 2009;19(2):119-126.
38. Goldsmith M, Singh M, Chang K. Antidepressants and psychostimulants in pediatric populations: is there an association with mania? Paediatr Drugs. 2011;13(4): 225-243.
39. Sidor MM, Macqueen GM. Antidepressants for the acute treatment of bipolar depression: a systematic review and meta-analysis. J Clin Psychiatry. 2011;72(2):156-167.
40. Allain N, Leven C, Falissard B, et al. Manic switches induced by antidepressants: an umbrella review comparing randomized controlled trials and observational studies. Acta Psychiatr Scand. 2017;135(2):106-116.
41. McClellan J, Kowatch R, Findling RL. Practice parameter for the assessment and treatment of children and adolescents with bipolar disorder. J Am Acad Child Adolesc Psychiatry. 2007;46(1):107-125.
42. Dobry Y, Rice T, Sher L. Ecstasy use and serotonin syndrome: a neglected danger to adolescents and young adults prescribed selective serotonin reuptake inhibitors. Int J Adolesc Med Health. 2013; 25(3):193-199.
43. Schwartz AR, Pizon AF, Brooks DE. Dextromethorphan-induced serotonin syndrome. Clin Toxicol (Phila). 2008;46(8):771-773.
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45. Hammad TA, Laughren T, Racoosin J. Suicidality in pediatric patients treated with antidepressant drugs. Arch Gen Psychiatry. 2006;63(3):332-339.
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50. Bridge JA, Barbe RP, Birmaher B, et al. Emergent suicidality in a clinical psychotherapy trial for adolescent depression. Am J Psychiatry. 2005;162(11):2173-2175.
51. Birmaher B, Brent D, Bernet W, et al. Practice parameter for the assessment and treatment of children and adolescents with depressive disorders. J Am Acad Child Adolesc Psychiatry. 2007;46(11):1503-1526.
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54. Bloch MH, McGuire J, Landeros-Weisenberger A, et al. Meta-analysis of the dose-response relationship of SSRI in obsessive-compulsive disorder. Mol Psychiatry. 2010;15(8):850-855.
55. Issari Y, Jakubovski E, Bartley CA, et al. Early onset of response with selective serotonin reuptake inhibitors in obsessive-compulsive disorder: a meta-analysis. J Clin Psychiatry. 2016; 77(5):e605-e611. doi: 10.4088/JCP.14r09758.
56. Brent D, Emslie G, Clarke G, et al. Switching to another SSRI or to venlafaxine with or without cognitive behavioral therapy for adolescents with SSRI-resistant depression: the TORDIA randomized controlled trial. JAMA. 2008;299(8):901-913.

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Jennifer B. Dwyer, MD, PhD
Assistant Professor
Child Study Center
Department of Radiology and Biomedical Imaging
Yale University
New Haven, Connecticut

Michael H. Bloch, MD, MS
Associate Professor
Child Study Center
Department of Psychiatry
Yale University
New Haven, Connecticut

Disclosures
Dr. Bloch receives grant or research support from Biohaven Pharmaceuticals, Janssen Pharmaceuticals, Neurocrine Biosciences, and Therapix Biosciences. Dr. Dwyer received support from T32- MH018268 during the preparation of this manuscript.

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Jennifer B. Dwyer, MD, PhD
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Department of Radiology and Biomedical Imaging
Yale University
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Michael H. Bloch, MD, MS
Associate Professor
Child Study Center
Department of Psychiatry
Yale University
New Haven, Connecticut

Disclosures
Dr. Bloch receives grant or research support from Biohaven Pharmaceuticals, Janssen Pharmaceuticals, Neurocrine Biosciences, and Therapix Biosciences. Dr. Dwyer received support from T32- MH018268 during the preparation of this manuscript.

Author and Disclosure Information

Jennifer B. Dwyer, MD, PhD
Assistant Professor
Child Study Center
Department of Radiology and Biomedical Imaging
Yale University
New Haven, Connecticut

Michael H. Bloch, MD, MS
Associate Professor
Child Study Center
Department of Psychiatry
Yale University
New Haven, Connecticut

Disclosures
Dr. Bloch receives grant or research support from Biohaven Pharmaceuticals, Janssen Pharmaceuticals, Neurocrine Biosciences, and Therapix Biosciences. Dr. Dwyer received support from T32- MH018268 during the preparation of this manuscript.

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Major depressive disorder (MDD) is a significant pediatric health problem, with a lifetime prevalence as high as 20% by the end of adolescence.1-3 Major depressive disorder in adolescence is associated with significant morbidity, including poor social functioning, school difficulties, early pregnancy, and increased risk of physical illness and substance abuse.4-6 It is also linked with significant mortality, with increased risk for suicide, which is now the second leading cause of death in individuals age 10 to 24 years.1,7,8

As their name suggests, antidepressants comprise a group of medications that are used to treat MDD; they are also, however, first-line agents for generalized anxiety disorder (GAD), posttraumatic stress disorder (PTSD), and obsessive-compulsive disorder (OCD) in adults. Anxiety disorders (including GAD and other anxiety diagnoses) and PTSD are also common in childhood and adolescence with a combined lifetime prevalence ranging from 15% to 30%.9,10 These disorders are also associated with increased risk of suicide.11 For all of these disorders, depending on the severity of presentation and the preference of the patient, treatments are often a combination of psychotherapy and psychopharmacology.

Clinicians face several challenges when considering antidepressants for pediatric patients. Pediatricians and psychiatrists need to understand whether these medications work in children and adolescents, and whether there are unique developmental safety and tolerability issues. The evidence base in child psychiatry is considerably smaller compared with that of adult psychiatry. From this more limited evidence base also came the controversial “black-box” warning regarding a risk of emergent suicidality when starting antidepressants that accompanies all antidepressants for pediatric, but not adult, patients. This warning has had major effects on clinical encounters with children experiencing depression, including altering clinician prescribing behavior.12

In this article, we review the current evidence for antidepressant efficacy, tolerability, and safety in pediatric patients. We also suggest ways in which clinicians might choose, start, and stop antidepressants in children, as well as how to talk with parents about benefits, risks, and the black-box warning.

Do antidepressants work in children?

Selective serotonin reuptake inhibitors. Selective serotonin reuptake inhibitors (SSRIs) are the most commonly used class of antidepressants in both children and adults.13 While only a few SSRIs are FDA-approved for pediatric indications, the lack of FDA approval is typically related to a lack of sufficient testing in randomized controlled trials (RCTs) for specific pediatric indications, rather than to demonstrable differences in efficacy between antidepressant agents. Since there is currently no data to suggest inferiority of one agent compared to another in children or adults,14,15 efficacy data will be discussed here as applied to the class of SSRIs, generalizing from RCTs conducted on individual drugs. Table 1 lists FDA indications and dosing information for individual antidepressants.

Characteristics of commonly used antidepressants

There is strong evidence that SSRIs are effective for treating pediatric anxiety disorders (eg, social anxiety disorder and GAD)16 and OCD,17 with numbers needed to treat (NNT) between 3 and 5. For both of these disorders, SSRIs combined with cognitive-behavioral therapy (CBT) have the highest likelihood of improving symptoms or achieving remission.17,18

Selective serotonin reuptake inhibitors are also effective for treating pediatric MDD; however, the literature is more complex for this disorder compared to GAD and OCD as there are considerable differences in effect sizes between National Institute of Mental Health (NIMH)–funded studies and industry-sponsored trials.13 The major NIMH-sponsored adolescent depression trial, TADS (Treatment for Adolescents and Depression Study), showed that SSRIs (fluoxetine in this case) were quite effective, with an NNT of 4 over the acute phase (12 weeks).19 Ultimately, approximately 80% of adolescents improved over 9 months. Many industry-sponsored trials for MDD in pediatric patients had large placebo response rates (approximately 60%), which resulted in smaller between-group differences, and estimates of an NNT closer to 12,13 which has muddied the waters in meta-analyses that include all trials.20 Improvement in depressive symptoms also appears to be bolstered by concomitant CBT in MDD,19 but not as robustly as in GAD and OCD. While the full benefit of SSRIs for depression may take as long as 8 weeks, a meta-analysis of depression studies of pediatric patients suggests that significant benefits from placebo are observed as early as 2 weeks, and that further treatment gains are minimal after 4 weeks.15 Thus, we recommend at least a 4- to 6-week trial at therapeutic dosing before deeming a medication a treatment failure.

Continue to: Posttraumatic stress disorder...

 

 

Posttraumatic stress disorder is a fourth disorder in which SSRIs are a first-line treatment in adults. The data for using SSRIs to treat pediatric patients with PTSD is scant, with only a few RCTs, and no large NIMH-funded trials. Randomized controlled trials have not demonstrated significant differences between SSRIs and placebo21,22 and thus the current first-line recommendation in pediatric PTSD remains trauma-focused therapy, with good evidence for trauma-focused CBT.23 Practically speaking, there can be considerable overlap of PTSD, depression, and anxiety symptoms in children,23 and children with a history of trauma who also have comorbid MDD may benefit from medication if their symptoms persist despite an adequate trial of psychotherapy.

Taken together, the current evidence suggests that SSRIs are often effective in pediatric GAD, OCD, and MDD, with low NNTs (ranging from 3 to 5 based on NIMH-funded trials) for all of these disorders; there is not yet sufficient evidence of efficacy in pediatric patients with PTSD.

Fluoxetine has been studied more intensively than other SSRIs (for example, it was the antidepressant used in the TADS trial), and thus has the largest evidence base. For this reason, fluoxetine is often considered the first of the first-line options. Additionally, fluoxetine has a longer half-life than other antidepressants, which may make it more effective in situations where patients are likely to miss doses, and results in a lower risk of withdrawal symptoms when stopped due to “self-tapering.”

SNRIs and atypical antidepressants. Other antidepressants commonly used in pediatric patients but with far less evidence of efficacy include serotonin-norepinephrine reuptake inhibitors (SNRIs) and the atypical antidepressants bupropion and mirtazapine. The SNRI duloxetine is FDA-approved for treating GAD in children age 7 to 17, but there are no other pediatric indications for duloxetine, or for the other SNRIs.

In general, adverse effect profiles are worse for SNRIs compared to SSRIs, further limiting their utility. While there are no pediatric studies demonstrating SNRI efficacy for neuropathic pain, good data exists in adults.24 Thus, an SNRI could be a reasonable option if a pediatric patient has failed prior adequate SSRI trials and also has comorbid neuropathic pain.

Continue to: Neither bupropion nor mirtazapine...

 

 

Neither bupropion nor mirtazapine have undergone rigorous testing in pediatric patients, and therefore these agents should generally be considered only once other first-line treatments have failed. Bupropion has been evaluated for attention-deficit/hyperactivity disorder (ADHD)25 and for adolescent smoking cessation.26 However, the evidence is weak, and bupropion is not considered a first-line option for children and adolescents.

Tricyclic antidepressants. Randomized controlled trials have demonstrated that tricyclic antidepressants (TCAs) are efficacious for treating several pediatric conditions; however, their significant side effect profile, their monitoring requirements, as well as their lethality in overdose has left them replaced by SSRIs in most cases. That said, they can be appropriate in refractory ADHD (desipramine27,28) and refractory OCD (clomipramine is FDA-approved for this indication29); they are considered a third-line treatment for enuresis.30

Why did my patient stop the medication?

Common adverse effects. Although the greatest benefit of antidepressant medications compared with placebo is achieved relatively early on in treatment, it generally takes time for these benefits to accrue and become clinically apparent.15,31 By contrast, most adverse effects of antidepressants present and are at their most severe early in treatment. The combination of early adverse effects and delayed efficacy leads many patients, families, and clinicians to discontinue medications before they have an adequate chance to work. Thus, it is imperative to provide psychoeducation before starting a medication about the typical time-course of improvement and adverse effects (Table 2).

Summary of clinical guidance for antidepressants for pediatric patients and adults

Adverse effects of SSRIs often appear or worsen transiently during initiation of a medication, during a dose increase,32 or, theoretically, with the addition of a medication that interferes with SSRI metabolism (eg, cimetidine inhibition of cytochrome P450 2D6).33 If families are prepared for this phenomenon and the therapeutic alliance is adequate, adverse effects can be tolerated to allow for a full medication trial. Common adverse effects of SSRIs include sleep problems (insomnia/sedation), gastrointestinal upset, sexual dysfunction, dry mouth, and hyperhidrosis. Although SSRIs differ somewhat in the frequency of these effects, as a class, they are more similar than different. Adequate psychoeducation is especially imperative in the treatment of OCD and anxiety disorders, where there is limited evidence of efficacy for any non-serotonergic antidepressants.

Serotonin-norepinephrine reuptake inhibitors are not considered first-line medications because of the reduced evidence base compared to SSRIs and their enhanced adverse effect profiles. Because SNRIs partially share a mechanism of action with SSRIs, they also share portions of the adverse effects profile. However, SNRIs have the additional adverse effect of hypertension, which is related to their noradrenergic activity. Thus, it is reasonable to obtain a baseline blood pressure before initiating an SNRI, as well as periodically after initiation and during dose increases, particularly if the patient has other risk factors for hypertension.34

Continue to: Although TCAs have efficacy...

 

 

Although TCAs have efficacy in some pediatric disorders,27-29,35 their adverse effect profile limits their use. Tricyclic antidepressants are highly anticholinergic (causing dizziness secondary to orthostatic hypotension, dry mouth, and urinary retention) and antihistaminergic (causing sedation and weight gain). Additionally, TCAs lower the seizure threshold and have adverse cardiac effects relating to their anti-alpha-1 adrenergic activity, resulting in dose-dependent increases in the QTc and cardiac toxicity in overdose that could lead to arrhythmia and death. These medications have their place, but their use requires careful informed consent, clear treatment goals, and baseline and periodic cardiac monitoring (via electrocardiogram).

Serious adverse effects. Clinicians may be hesitant to prescribe antidepressants for pediatric patients because of the potential for more serious adverse effects, including severe behavioral activation syndromes, serotonin syndrome, and emergent suicidality. However, current FDA-approved antidepressants arguably have one of the most positive risk/benefit profiles of any orally-administered medication approved for pediatric patients. Having a strong understanding of the evidence is critical to evaluating when it is appropriate to prescribe an antidepressant, how to properly monitor the patient, and how to obtain accurate informed consent.

Pediatric behavioral activation syndrome. Many clinicians report that children receiving antidepressants experience a pediatric behavioral activation syndrome, which exists along a spectrum from mild activation, increased energy, insomnia, or irritability up through more severe presentations of agitation, hyperactivity, or possibly mania. A recent meta-analysis suggested a positive association between antidepressant use and activation events on the milder end of this spectrum in pediatric patients with non-OCD anxiety disorders,16 and it is thought that compared with adolescents, younger children are more susceptible to activation adverse effects.36 The likelihood of activation events has been associated with higher antidepressant plasma levels,37 suggesting that dose or individual differences in metabolism may play a role. At the severe end of the spectrum, the risk of induction of mania in pediatric patients with depression or anxiety is relatively rare (<2%) and not statistically different from placebo in RCTs of pediatric participants.38 Meta-analyses of larger randomized, placebo-controlled trials of adults do not support the idea that SSRIs and other second-generation antidepressants carry an increased risk of mania compared with placebo.39,40 Children or adolescents with bona fide bipolar disorder (ie, patients who have had observed mania that meets all DSM-5 criteria) should be treated with a mood-stabilizing agent or antipsychotic if prescribed an antidepressant.41 These clear-cut cases are, however, relatively rare, and more often clinicians are confronted with ambiguous cases that include a family history of bipolar disorder along with “softer” symptoms of irritability, intrusiveness, or aggression. In these children, SSRIs may be appropriate for depressive, OCD, or anxiety symptoms, and should be strongly considered before prescribing antipsychotics or mood stabilizers, as long as initiated with proper monitoring.

Serotonin syndrome is a life-threatening condition caused by excess synaptic serotonin. It is characterized by confusion, sweating, diarrhea, hypertension, hyperthermia, and tachycardia. At its most severe, serotonin syndrome can result in seizures, arrhythmias, and death. The risk of serotonin syndrome is very low when using an SSRI as monotherapy. Risk increases with polypharmacy, particularly unexamined polypharmacy when multiple serotonergic agents are inadvertently on board. Commonly used serotonergic agents include other antidepressants, migraine medications (eg, triptans), some pain medications, and the cough suppressant dextromethorphan.

The easiest way to mitigate the risk of serotonin syndrome is to use an interaction index computer program, which can help ensure that the interacting agents are not prescribed without first discussing the risks and benefits. It is important to teach adolescents that certain recreational drugs are highly serotonergic and can cause serious interactions with antidepressants. For example, recreational use of dextrometh­orphan or 3,4-methylenedioxymethamphetamine (MDMA; commonly known as “ecstasy”) has been associated with serotonin syndrome in adolescents taking antidepressant medications.42,43

Continue to: Suicidality

 

 

Suicidality. The black-box warning regarding a risk of emergent suicidality when starting antidepressant treatment in children is controversial.44 The prospect that a medication intended to ameliorate depression might instead risk increasing suicidal thinking is alarming to parents and clinicians alike. To appropriately weigh and discuss the risks and benefits with families, it is important to understand the data upon which the warning is based.

Cates plot depicting the benefits of antidepressants vs risk of suicidal ideation for pediatric patients with anxiety disorders

In 2004, the FDA commissioned a review of 23 antidepressant trials, both published and unpublished, pooling studies across multiple indications (MDD, OCD, anxiety, and ADHD) and multiple antidepressant classes. This meta-analysis, which included nearly 4,400 pediatric patients, found a small but statistically significant increase in spontaneously-reported suicidal thoughts or actions, with a risk difference of 1% (95% confidence interval [CI], 1% to 2%).45 These data suggest that if one treats 100 pediatric patients, 1 to 2 of them may experience short-term increases in suicidal thinking or behavior.45 There were no differences in suicidal thinking when assessed systematically (ie, when all subjects reported symptoms of suicidal ideation on structured rating scales), and there were no completed suicides.45 A subsequent analysis that included 27 pediatric trials suggested an even lower, although still significant, risk difference (<1%), yielding a number needed to harm (NNH) of 143.46 Thus, with low NNT for efficacy (3 to 6) and relatively high NNH for emergent suicidal thoughts or behaviors (100 to 143), for many patients the benefits will outweigh the risks.

Cates plot depicting the benefits of antidepressants vs risk of suicidal ideation for pediatric patients with major depressive disorder

Figure 1, Figure 2, and Figure 3 are Cates plots that depict the absolute benefits of antidepressants compared with the risk of suicidality for pediatric patients with MDD, OCD, and anxiety disorders. Recent meta-analyses have suggested that the increased risk of suicidality in antidepressant trials is specific to studies that included children and adolescents, and is not observed in adult studies. A meta-analysis of 70 trials involving 18,526 participants suggested that the odds ratio of suicidality in trials of children and adolescents was 2.39 (95% CI, 1.31 to 4.33) compared with 0.81 (95% CI, 0.51 to 1.28) in adults.47 Additionally, a network meta-analysis exclusively focusing on pediatric antidepressant trials in MDD reported significantly higher suicidality-related adverse events in venlafaxine trials compared with placebo, duloxetine, and several SSRIs (fluoxetine, paroxetine, and escitalopram).20 These data should be interpreted with caution as differences in suicidality detected between agents is quite possibly related to differences in the method of assessment between trials, as opposed to actual differences in risk between agents.

Cates plot depicting the benefits of antidepressants vs risk of suicidal ideation for pediatric patients with obsessive-compulsive disorder

Epidemiologic data further support the use of antidepressants in pediatric patients, showing that antidepressant use is associated with decreased teen suicide attempts and completions,48 and the decline in prescriptions that occurred following the black-box warning was accompanied by a 14% increase in teen suicides.49 Multiple hypotheses have been proposed to explain the pediatric clinical trial findings. One idea is that potential adverse effects of activation, or the intended effects of restoring the motivation, energy, and social engagement that is often impaired in depression, increases the likelihood of thinking about suicide or acting on thoughts. Another theory is that reporting of suicidality may be increased, rather than increased de novo suicidality itself. Antidepressants are effective for treating pediatric anxiety disorders, including social anxiety disorder,16 which could result in more willingness to report. Also, the manner in which adverse effects are generally ascertained in trials might have led to increased spontaneous reporting. In many trials, investigators ask whether participants have any adverse effects in general, and inquire about specific adverse effects only if the family answers affirmatively. Thus, the increased rate of other adverse effects associated with antidepressants (sleep problems, gastrointestinal upset, dry mouth, etc.) might trigger a specific question regarding suicidal ideation, which the child or family then may be more likely to report. Alternatively, any type of psychiatric treatment could increase an individual’s propensity to report; in adolescent psychotherapy trials, non-medicated participants have reported emergent suicidality at similar frequencies as those described in drug trials.50 Regardless of the mechanism, the possibility of treatment-emergent suicidality is a low-frequency but serious event that necessitates careful monitoring when starting medication. Current guidelines suggest seeing children weekly for the first month after medication initiation, every 2 weeks for the following month, and monthly thereafter.51

Continue to: How long should the antidepressant be continued?

 

 

How long should the antidepressant be continued?

Many patients are concerned about how long they may be taking medication, and whether they will be taking an antidepressant “forever.” A treatment course can be broken into an acute phase, wherein remission is achieved and maintained for 6 to 8 weeks. This is followed by a continuation phase, with the goal of relapse prevention, lasting 16 to 20 weeks. The length of the last phase—the maintenance phase—depends both on the child’s history, the underlying therapeutic indication, the adverse effect burden experienced, and the family’s preferences/values. In general, for a first depressive episode, after treating for 1 year, a trial of discontinuation can be attempted with close monitoring. For a second depressive episode, we recommend 2 years of remission on antidepressant therapy before attempting discontinuation. In patients who have had 3 depressive episodes, or have had episodes of high severity, we recommend continuing antidepressant treatment indefinitely. Although much less well studied, the risk of relapse following SSRI discontinuation appears much more significant in OCD, whereas anxiety disorders and MDD have a relatively comparable risk.52

In general, stopping an antidepressant should be done carefully and slowly. The speed with which a specific antidepressant can be stopped is largely related to its half-life. Agents with very long half-lives, such as fluoxetine (half-life of 5 days for the parent compound and 9 days for active metabolite), can often be stopped altogether, being “auto-tapered” by the long half-life. One might still consider a taper if the patient were taking high doses. Medications with shorter half-lives must be more carefully tapered to avoid discontinuation syndromes. Discontinuation syndromes are characterized by flu-like symptoms (nausea, myalgias, fatigue, dizziness) and worsening mood. Medications with short half-lives (eg, paroxetine and venlafaxine) have the highest potential for this syndrome in children,53 and thus are used less frequently.

What to do when first-line treatments fail

When a child does not experience sufficient improvement from first-line treatments, it is crucial to determine whether they have experienced an adequate dosing, duration, and quality of medication and psychotherapy.

Adequate psychotherapy? To determine whether children are receiving adequate CBT, ask:

  1. if the child receives homework from psychotherapy
  2. if the parents are included in treatment
  3. if therapy has involved identifying thought patterns that may be contributing to the child’s illness, and
  4. if the therapist has ever exposed the child to a challenge likely to produce anxiety or distress in a supervised environment and has developed an exposure hierarchy (for conditions with primarily exposure-based therapies, such as OCD or anxiety disorders).

If a family is not receiving most of these elements in psychotherapy, this is a good indicator that they may not be receiving evidence-based CBT.

Continue to: Adequate pharmacotherapy?

 

 

Adequate pharmacotherapy? Similarly, when determining the adequacy of previous pharmacotherapy, it is critical to determine whether the child received an adequate dose of medications (at least the FDA-recommended minimum dose) for an adequate duration of time at therapeutic dosing (at least 6 weeks for MDD, 8 weeks for anxiety disorders, and 8 to 12 weeks for pediatric patients with OCD), and that the child actually took the medication regularly during that period. Patient compliance can typically be tracked through checking refill requests or intervals through the patient’s pharmacy. Ensuring proper delivery of first-line treatments is imperative because (1) the adverse effects associated with second-line treatments are often more substantial; (2) the cost in terms of time and money is considerably higher with second-line treatments, and; (3) the evidence regarding the benefits of these treatments is much less certain.

Inadequate dosing is a common reason for non-response in pediatric patients. Therapeutic dose ranges for common antidepressants are displayed in Table 1. Many clinicians underdose antidepressants for pediatric patients initially (and often throughout treatment) because they fear that the typical dose titration used in clinical trials will increase the risk of adverse effects compared with more conservative dosing. There is limited evidence to suggest that this underdosing strategy is likely to be successful; adverse effects attributable to these medications are modest, and most that are experienced early in treatment (eg, headache, increased anxiety or irritability, sleep problems, gastrointestinal upset) are self-limiting and may be coincidental rather than medication-induced. Furthermore, there is no evidence for efficacy of subtherapeutic dosing in children in the acute phase of treatment or for preventing relapse.14 Thus, from an efficacy standpoint, a medication trial has not officially begun until the therapeutic dose range is reached.

Once dosing is within the therapeutic range, however, pediatric data differs from the adult literature. In most adult psychi­atric conditions, higher doses of SSRIs within the therapeutic range are associated with an increased response rate.14,54 In pediatrics, there are few fixed dose trials, and once within the recommended therapeutic range, minimal data supports an association between higher dosing and higher efficacy.14 In general, pediatric guidelines are silent regarding optimal dosing of SSRIs within the recommended dose range, and higher antidepressant doses often result in a more significant adverse effect burden for children. One exception is pediatric OCD, where, similar to adults, the guidelines suggest that higher dosing of SSRIs often is required to induce a therapeutic response as compared to MDD and GAD.31,55

If a child does not respond to adequate first-line treatment (or has a treatment history that cannot be fully verified), repeating these first-line interventions carries little risk and can be quite effective. For example, 60% of adolescents with MDD who did not initially respond to an SSRI demonstrated a significant response when prescribed a second SSRI or venlafaxine (with or without CBT).56

When pediatric patients continue to experience significantly distressing and/or debilitating symptoms (particularly in MDD) despite multiple trials of antidepressants and psychotherapy, practitioners should consider a careful referral to interventional psychiatry services, which can include the more intensive treatments of electroconvulsive therapy, repetitive transcranial magnetic stimulation, or ketamine (see Box 1). Given the substantial morbidity and mortality associated with adolescent depression, interventional psychiatry treatments are under-researched and under-utilized clinically in pediatric populations.

Continue to: Antidepressants in general...

 

 

Antidepressants in general, and SSRIs in particular, are the first-line pharmacotherapy for pediatric anxiety, OCD, and MDD. For PTSD, although they are a first-line treatment in adults, their efficacy has not been demonstrated in children and adolescents. Antidepressants are generally safe, well-tolerated, and effective, with low NNTs (3 to 5 for anxiety and OCD; 4 to 12 in MDD, depending on whether industry trials are included). It is important that clinicians and families be educated about possible adverse effects and their time course in order to anticipate difficulties, ensure adequate informed consent, and monitor appropriately. The black-box warning regarding treatment-emergent suicidal thoughts or behaviors must be discussed (for suggested talking points, see Box 2). The NNH is large (100 to 143), and for many patients, the benefits will outweigh the risks. For pediatric patients who fail to respond to multiple adequate trials of antidepressants and psychotherapy, referrals for interventional psychiatry consultation should be considered.

Bottom Line

Although the evidence base for prescribing antidepressants for children and adolescents is smaller compared to the adult literature, properly understanding and prescribing these agents, and explaining their risks and benefits to families, can make a major difference in patient compliance, satisfaction, and outcomes. Antidepressants (particularly selective serotonin reuptake inhibitors) are the firstline pharmacologic intervention for pediatric patients with anxiety disorders, obsessive-compulsive disorder, or major depressive disorder.

Related Resource

 

Drug Brand Names

Bupropion • Wellbutrin, Zyban
Cimetidine • Tagamet
Citalopram • Celexa
Clomipramine • Anafranil
Desipramine • Norpramin
Desvenlafaxine • Pristiq
Duloxetine • Cymbalta
Escitalopram • Lexapro
Fluoxetine • Prozac
Fluvoxamine • Luvox
Imipramine • Tofranil
Mirtazapine • Remeron
Nortriptyline • Pamelor
Paroxetine • Paxil
Sertraline • Zoloft
Venlafaxine • Effexor
Vilazodone • Viibryd
Vortioxetine • Trintellix

 

 

Box 1

Interventional treatments

Continuing severe depression is associated with reduced educational attainment and quality of life, as well as increased risk of substance abuse and suicide,1,2 which is the second leading cause of death in individuals age 10 to 24 years.3 Given the substantial morbidity and mortality associated with adolescent depression, interventional psychiatry treatments are under-researched and underutilized in pediatric patients. Interventional antidepressants in adults include electroconvulsive therapy (ECT), repetitive transcranial magnetic stimulation (rTMS), and, most recently, ketamine.

Electroconvulsive therapy is the most effective therapy available for depression in adults, alleviating depressive symptoms in treatment-refractory patients and outperforming both pharmacotherapy4 and rTMS.5 Despite its track record of effectiveness and safety in adults, ECT continues to suffer considerable stigma.4 Cognitive adverse effects and memory problems in adults are generally self-limited, and some aspects of cognition actually improve after ECT as depression lifts.6 The combination of stigma and the concern about possible cognitive adverse effects during periods of brain development have likely impeded the rigorous testing of ECT in treatment-refractory pediatric patients. Several case series and other retrospective analyses suggest, however, that ECT has strong efficacy and limited adverse effects in adolescents who have severe depression or psychotic symptoms.7-9 Despite these positive preliminary data in pediatric patients, and a large body of literature in adults, no controlled trials of ECT have been conducted in the pediatric population, and it remains a rarely used treatment in severe pediatric mental illness.

Repetitive transcranial magnetic stimulation is a technique in which magnetic stimulation is used to activate the left dorsolateral prefrontal cortex (DLPFC), a target thought to be important in the pathophysiology of MDD. Repetitive transcranial magnetic stimulation is FDAapproved to treat medication-refractory major depressive disorder (MDD) in adults, and has been shown to be effective as both a monotherapy10 and an adjunctive treatment.11 The estimated number needed to treat (NNT) for rTMS ranges from 6 to 8, which is quite effective, although less so than ECT (and probably initial pharmacotherapy).5 Similar to ECT, however, there are no large randomized controlled trials (RCTs) in children or adolescents. Pilot RCTs12 and open trials13 suggest that DLPFC rTMS may be effective as an adjunctive treatment, speeding or augmenting response to a selective serotonin reuptake inhibitor in adolescents with MDD. Larger trials studying rTMS in pediatric patients are needed. While rTMS is generally well tolerated, disadvantages include the time-consuming schedule (the initial treatment is typically 5 days/week for several weeks) and local adverse effects of headache and scalp pain.

Ketamine, which traditionally is used as a dissociative anesthetic, is a rapidly emerging novel treatment in adult treatment-refractory MDD. It acts quickly (within hours to days) and cause significant improvement in difficult symptoms such as anhedonia14 and suicidal ideation.15 In adult studies, ketamine has a robust average effect size of >1.2, and an NNT ranging from 3 to 5 in medication-refractory patients.16,17 Ketamine is a glutamatergic modulator, acting outside of the monoamine neurochemical systems traditionally targeted by standard antidepressants.16 The efficacy of ketamine in treatment-refractory adults is impressive, but the effects of a single treatment are ephemeral, dissipating within 1 to 2 weeks, which has led to significant discussion surrounding optimal dosing strategies.16 Although small RCTs in pediatric patients are currently underway, at this time, the only evidence for ketamine for pediatric MDD is based on case series/report data18,19 which was positive.

For all of these interventional modalities, it is critical to refer children with treatmentrefractory disorders to interventionists who have appropriate experience and monitoring capabilities.

References
1. Weissman MM, Wolk S, Goldstein RB, et al. Depressed adolescents grown up. JAMA.1999;281(18):1707-1713.
2. Fergusson DM, Woodward LJ. Mental health, educational, and social role outcomes of adolescents with depression. Arch Gen Psychiatry. 2002;59(3):225-231.
3. Centers for Disease Control and Prevention. National Vital Statistics System. Deaths, percent of total deaths, and death rates for the 15 leading causes of death in 5-year age groups, by race and sex: United States, 1999-2015. Centers for Disease Control and Prevention. https://www.cdc.gov/nchs/nvss/mortality/lcwk1.htm. Published October 23, 2017. Accessed May 2, 2019.
4. UK ECT Review Group. Efficacy and safety of electroconvulsive therapy in depressive disorders: a systematic review and metaanalysis. Lancet. 2003;361(9360):799-808.
5. Berlim MT, Van den Eynde F, Daskalakis ZJ. Efficacy and acceptability of high frequency repetitive transcranial magnetic stimulation (rTMS) versus electroconvulsive therapy (ECT) for major depression: a systematic review and meta-analysis of randomized trials. Depress Anxiety. 2013;30(7):614-623.
6. Semkovska M, McLoughlin DM. Objective cognitive performance associated with electroconvulsive therapy for depression: a systematic review and meta-analysis. Biol Psychiatry. 2010;68(6):568-577.
7. Jacob P, Gogi PK, Srinath S, et al. Review of electroconvulsive therapy practice from a tertiary child and adolescent psychiatry centre. Asian J Psychiatr. 2014;12(1):95-99.
8. Zhand N, Courtney DB, Flament MF. Use of electroconvulsive therapy in adolescents with treatment-resistant depressive disorders: a case series. J ECT. 2015;31(4):238-245.
9. Puffer CC, Wall CA, Huxsahl JE, et al. A 20 year practice review of electroconvulsive therapy for adolescents. J Child Adolesc Psychopharmacol. 2016;26(7):632-636.
10. Berlim MT, van den Eynde F, Tovar-Perdomo S, et al. Response, remission and drop-out rates following high-frequency repetitive transcranial magnetic stimulation (rTMS) for treating major depression: a systematic review and meta-analysis of randomized, double-blind and sham-controlled trials. Psychol Med. 2014;44(2):225-239.
11. Liu B, Zhang Y, Zhang L, et al. Repetitive transcranial magnetic stimulation as an augmentative strategy for treatment-resistant depression, a meta-analysis of randomized, double-blind and sham-controlled study. BMC Psychiatry. 2014;14:342.
12. Huang ML, Luo BY, Hu JB, et al. Repetitive transcranial magnetic stimulation in combination with citalopram in young patients with first-episode major depressive disorder: a double-blind, randomized, sham-controlled trial. Aust N Z J Psychiatry. 2012;46(3):257-264.
13. Wall CA, Croarkin PE, Sim LA, et al. Adjunctive use of repetitive transcranial magnetic stimulation in depressed adolescents: a prospective, open pilot study. J Clin Psychiatry. 2011;72(9):1263-1269.
14. Lally N, Nugent AC, Luckenbaugh DA, et al. Anti-anhedonic effect of ketamine and its neural correlates in treatment-resistant bipolar depression. Transl Psychiatry. 2014;4:e469. doi: 10.1038/tp.2014.105.
15. Ballard ED, Ionescu DF, Vande Voort JL, et al. Improvement in suicidal ideation after ketamine infusion: relationship to reductions in depression and anxiety. J Psychiatr Res. 2014;58:161-166.
16. Newport DJ, Carpenter LL, McDonald WM, et al. Ketamine and other NMDA antagonists: early clinical trials and possible mechanisms in depression. Am J Psychiatry. 2015;172(10):950-966.
17. McGirr A, Berlim MT, Bond DJ, et al. A systematic review and meta-analysis of randomized, double-blind, placebo-controlled trials of ketamine in the rapid treatment of major depressive episodes. Psychol Med. 2015;45(4):693-704.
18. Dwyer JB, Beyer C, Wilkinson ST, et al. Ketamine as a treatment for adolescent depression: a case report. J Am Acad Child Adolesc Psychiatry. 2017;56(4):352-354.
19. Cullen KR, Amatya P, Roback MG, et al. Intravenous ketamine for adolescents with treatment-resistant depression: an open-label study. J Child Adolesc Psychopharmacol. 2018;28(7):437-444.

Box 2

Talking to families when starting antidepressants for pediatric patients

Efficacy

  • Selective serotonin reuptake inhibitors are the most effective pharmacologic treatment we have for pediatric depression, OCD, and anxiety
  • More than one-half of children who are prescribed SSRIs have a significant improvement, regardless of condition
  • Based on current estimates, we need to treat 4 to 6 children with an SSRI to find one that will improve who would not improve with placebo
  • The clinical benefits of SSRIs generally take a while to accrue; therefore, it is advisable to take the medication for at least 2 to 3 months before concluding that it is ineffective
  • In addition to medication, evidence-based psychotherapies provide significant benefit for pediatric depression, OCD, and anxiety

Tolerability

  • Most commonly prescribed pediatric antidepressants have been used safely in children for 2 to 3 decades. The safety profiles of SSRIs are among the best of any medications used for children and adolescents
  • While many children get better when taking these medications, it’s important that we also talk about potential adverse effects. Some children will experience sleep problems (either sleepier than usual or difficulty sleeping), changes in energy levels, headache, gastrointestinal upset, and dry mouth. These are most likely at the beginning of treatment, or when we increase the dose; they usually are time-limited and go away on their own
  • Often adverse effects occur first and the benefits come later. Because it may take at least a few weeks to start to see the mood/anxiety benefits, it’s important for us to talk about any adverse effects your child experiences and remember that they usually are short-lived

Suicidality

  • The FDA placed a “black-box” warning on antidepressants after pediatric studies found a small but statistically significant increased risk of reporting suicidal thoughts or behaviors over the short-term compared with placebo
  • The increased risk of spontaneously reporting suicidal ideation was quite small. Studies suggested that one would need to treat 100 to 140 children to see 1 child report suicidal ideation compared to placebo. Suicidal ideation is a common symptom in children with depression and anxiety
  • Studies found no increased risk when suicidal ideation was systematically assessed using structured rating scales
  • In the studies evaluated, there were no completed suicides by patients taking medication or placebo
  • Population studies show that higher rates of antidepressant prescriptions are associated with lower rates of attempted and completed teen suicide, which underscores that in general, these medicines treat the underlying causes of suicidality
  • No scientific consensus exists on whether these medications are truly associated with an increased risk of new-onset suicidal ideation, or if this association is due to other factors (eg, improvement in anxiety and depressive symptoms that make patients more comfortable to report suicidal ideation spontaneously)
  • Regardless, the FDA recommends frequent monitoring of children for suicidal thoughts when these medications are started. This should be done anyway in children experiencing depression and anxiety, and it’s why we will plan to have more frequent appointments as the medication is initiated

OCD: obsessive-compulsive disorder; SSRIs: selective serotonin reuptake inhibitors

Major depressive disorder (MDD) is a significant pediatric health problem, with a lifetime prevalence as high as 20% by the end of adolescence.1-3 Major depressive disorder in adolescence is associated with significant morbidity, including poor social functioning, school difficulties, early pregnancy, and increased risk of physical illness and substance abuse.4-6 It is also linked with significant mortality, with increased risk for suicide, which is now the second leading cause of death in individuals age 10 to 24 years.1,7,8

As their name suggests, antidepressants comprise a group of medications that are used to treat MDD; they are also, however, first-line agents for generalized anxiety disorder (GAD), posttraumatic stress disorder (PTSD), and obsessive-compulsive disorder (OCD) in adults. Anxiety disorders (including GAD and other anxiety diagnoses) and PTSD are also common in childhood and adolescence with a combined lifetime prevalence ranging from 15% to 30%.9,10 These disorders are also associated with increased risk of suicide.11 For all of these disorders, depending on the severity of presentation and the preference of the patient, treatments are often a combination of psychotherapy and psychopharmacology.

Clinicians face several challenges when considering antidepressants for pediatric patients. Pediatricians and psychiatrists need to understand whether these medications work in children and adolescents, and whether there are unique developmental safety and tolerability issues. The evidence base in child psychiatry is considerably smaller compared with that of adult psychiatry. From this more limited evidence base also came the controversial “black-box” warning regarding a risk of emergent suicidality when starting antidepressants that accompanies all antidepressants for pediatric, but not adult, patients. This warning has had major effects on clinical encounters with children experiencing depression, including altering clinician prescribing behavior.12

In this article, we review the current evidence for antidepressant efficacy, tolerability, and safety in pediatric patients. We also suggest ways in which clinicians might choose, start, and stop antidepressants in children, as well as how to talk with parents about benefits, risks, and the black-box warning.

Do antidepressants work in children?

Selective serotonin reuptake inhibitors. Selective serotonin reuptake inhibitors (SSRIs) are the most commonly used class of antidepressants in both children and adults.13 While only a few SSRIs are FDA-approved for pediatric indications, the lack of FDA approval is typically related to a lack of sufficient testing in randomized controlled trials (RCTs) for specific pediatric indications, rather than to demonstrable differences in efficacy between antidepressant agents. Since there is currently no data to suggest inferiority of one agent compared to another in children or adults,14,15 efficacy data will be discussed here as applied to the class of SSRIs, generalizing from RCTs conducted on individual drugs. Table 1 lists FDA indications and dosing information for individual antidepressants.

Characteristics of commonly used antidepressants

There is strong evidence that SSRIs are effective for treating pediatric anxiety disorders (eg, social anxiety disorder and GAD)16 and OCD,17 with numbers needed to treat (NNT) between 3 and 5. For both of these disorders, SSRIs combined with cognitive-behavioral therapy (CBT) have the highest likelihood of improving symptoms or achieving remission.17,18

Selective serotonin reuptake inhibitors are also effective for treating pediatric MDD; however, the literature is more complex for this disorder compared to GAD and OCD as there are considerable differences in effect sizes between National Institute of Mental Health (NIMH)–funded studies and industry-sponsored trials.13 The major NIMH-sponsored adolescent depression trial, TADS (Treatment for Adolescents and Depression Study), showed that SSRIs (fluoxetine in this case) were quite effective, with an NNT of 4 over the acute phase (12 weeks).19 Ultimately, approximately 80% of adolescents improved over 9 months. Many industry-sponsored trials for MDD in pediatric patients had large placebo response rates (approximately 60%), which resulted in smaller between-group differences, and estimates of an NNT closer to 12,13 which has muddied the waters in meta-analyses that include all trials.20 Improvement in depressive symptoms also appears to be bolstered by concomitant CBT in MDD,19 but not as robustly as in GAD and OCD. While the full benefit of SSRIs for depression may take as long as 8 weeks, a meta-analysis of depression studies of pediatric patients suggests that significant benefits from placebo are observed as early as 2 weeks, and that further treatment gains are minimal after 4 weeks.15 Thus, we recommend at least a 4- to 6-week trial at therapeutic dosing before deeming a medication a treatment failure.

Continue to: Posttraumatic stress disorder...

 

 

Posttraumatic stress disorder is a fourth disorder in which SSRIs are a first-line treatment in adults. The data for using SSRIs to treat pediatric patients with PTSD is scant, with only a few RCTs, and no large NIMH-funded trials. Randomized controlled trials have not demonstrated significant differences between SSRIs and placebo21,22 and thus the current first-line recommendation in pediatric PTSD remains trauma-focused therapy, with good evidence for trauma-focused CBT.23 Practically speaking, there can be considerable overlap of PTSD, depression, and anxiety symptoms in children,23 and children with a history of trauma who also have comorbid MDD may benefit from medication if their symptoms persist despite an adequate trial of psychotherapy.

Taken together, the current evidence suggests that SSRIs are often effective in pediatric GAD, OCD, and MDD, with low NNTs (ranging from 3 to 5 based on NIMH-funded trials) for all of these disorders; there is not yet sufficient evidence of efficacy in pediatric patients with PTSD.

Fluoxetine has been studied more intensively than other SSRIs (for example, it was the antidepressant used in the TADS trial), and thus has the largest evidence base. For this reason, fluoxetine is often considered the first of the first-line options. Additionally, fluoxetine has a longer half-life than other antidepressants, which may make it more effective in situations where patients are likely to miss doses, and results in a lower risk of withdrawal symptoms when stopped due to “self-tapering.”

SNRIs and atypical antidepressants. Other antidepressants commonly used in pediatric patients but with far less evidence of efficacy include serotonin-norepinephrine reuptake inhibitors (SNRIs) and the atypical antidepressants bupropion and mirtazapine. The SNRI duloxetine is FDA-approved for treating GAD in children age 7 to 17, but there are no other pediatric indications for duloxetine, or for the other SNRIs.

In general, adverse effect profiles are worse for SNRIs compared to SSRIs, further limiting their utility. While there are no pediatric studies demonstrating SNRI efficacy for neuropathic pain, good data exists in adults.24 Thus, an SNRI could be a reasonable option if a pediatric patient has failed prior adequate SSRI trials and also has comorbid neuropathic pain.

Continue to: Neither bupropion nor mirtazapine...

 

 

Neither bupropion nor mirtazapine have undergone rigorous testing in pediatric patients, and therefore these agents should generally be considered only once other first-line treatments have failed. Bupropion has been evaluated for attention-deficit/hyperactivity disorder (ADHD)25 and for adolescent smoking cessation.26 However, the evidence is weak, and bupropion is not considered a first-line option for children and adolescents.

Tricyclic antidepressants. Randomized controlled trials have demonstrated that tricyclic antidepressants (TCAs) are efficacious for treating several pediatric conditions; however, their significant side effect profile, their monitoring requirements, as well as their lethality in overdose has left them replaced by SSRIs in most cases. That said, they can be appropriate in refractory ADHD (desipramine27,28) and refractory OCD (clomipramine is FDA-approved for this indication29); they are considered a third-line treatment for enuresis.30

Why did my patient stop the medication?

Common adverse effects. Although the greatest benefit of antidepressant medications compared with placebo is achieved relatively early on in treatment, it generally takes time for these benefits to accrue and become clinically apparent.15,31 By contrast, most adverse effects of antidepressants present and are at their most severe early in treatment. The combination of early adverse effects and delayed efficacy leads many patients, families, and clinicians to discontinue medications before they have an adequate chance to work. Thus, it is imperative to provide psychoeducation before starting a medication about the typical time-course of improvement and adverse effects (Table 2).

Summary of clinical guidance for antidepressants for pediatric patients and adults

Adverse effects of SSRIs often appear or worsen transiently during initiation of a medication, during a dose increase,32 or, theoretically, with the addition of a medication that interferes with SSRI metabolism (eg, cimetidine inhibition of cytochrome P450 2D6).33 If families are prepared for this phenomenon and the therapeutic alliance is adequate, adverse effects can be tolerated to allow for a full medication trial. Common adverse effects of SSRIs include sleep problems (insomnia/sedation), gastrointestinal upset, sexual dysfunction, dry mouth, and hyperhidrosis. Although SSRIs differ somewhat in the frequency of these effects, as a class, they are more similar than different. Adequate psychoeducation is especially imperative in the treatment of OCD and anxiety disorders, where there is limited evidence of efficacy for any non-serotonergic antidepressants.

Serotonin-norepinephrine reuptake inhibitors are not considered first-line medications because of the reduced evidence base compared to SSRIs and their enhanced adverse effect profiles. Because SNRIs partially share a mechanism of action with SSRIs, they also share portions of the adverse effects profile. However, SNRIs have the additional adverse effect of hypertension, which is related to their noradrenergic activity. Thus, it is reasonable to obtain a baseline blood pressure before initiating an SNRI, as well as periodically after initiation and during dose increases, particularly if the patient has other risk factors for hypertension.34

Continue to: Although TCAs have efficacy...

 

 

Although TCAs have efficacy in some pediatric disorders,27-29,35 their adverse effect profile limits their use. Tricyclic antidepressants are highly anticholinergic (causing dizziness secondary to orthostatic hypotension, dry mouth, and urinary retention) and antihistaminergic (causing sedation and weight gain). Additionally, TCAs lower the seizure threshold and have adverse cardiac effects relating to their anti-alpha-1 adrenergic activity, resulting in dose-dependent increases in the QTc and cardiac toxicity in overdose that could lead to arrhythmia and death. These medications have their place, but their use requires careful informed consent, clear treatment goals, and baseline and periodic cardiac monitoring (via electrocardiogram).

Serious adverse effects. Clinicians may be hesitant to prescribe antidepressants for pediatric patients because of the potential for more serious adverse effects, including severe behavioral activation syndromes, serotonin syndrome, and emergent suicidality. However, current FDA-approved antidepressants arguably have one of the most positive risk/benefit profiles of any orally-administered medication approved for pediatric patients. Having a strong understanding of the evidence is critical to evaluating when it is appropriate to prescribe an antidepressant, how to properly monitor the patient, and how to obtain accurate informed consent.

Pediatric behavioral activation syndrome. Many clinicians report that children receiving antidepressants experience a pediatric behavioral activation syndrome, which exists along a spectrum from mild activation, increased energy, insomnia, or irritability up through more severe presentations of agitation, hyperactivity, or possibly mania. A recent meta-analysis suggested a positive association between antidepressant use and activation events on the milder end of this spectrum in pediatric patients with non-OCD anxiety disorders,16 and it is thought that compared with adolescents, younger children are more susceptible to activation adverse effects.36 The likelihood of activation events has been associated with higher antidepressant plasma levels,37 suggesting that dose or individual differences in metabolism may play a role. At the severe end of the spectrum, the risk of induction of mania in pediatric patients with depression or anxiety is relatively rare (<2%) and not statistically different from placebo in RCTs of pediatric participants.38 Meta-analyses of larger randomized, placebo-controlled trials of adults do not support the idea that SSRIs and other second-generation antidepressants carry an increased risk of mania compared with placebo.39,40 Children or adolescents with bona fide bipolar disorder (ie, patients who have had observed mania that meets all DSM-5 criteria) should be treated with a mood-stabilizing agent or antipsychotic if prescribed an antidepressant.41 These clear-cut cases are, however, relatively rare, and more often clinicians are confronted with ambiguous cases that include a family history of bipolar disorder along with “softer” symptoms of irritability, intrusiveness, or aggression. In these children, SSRIs may be appropriate for depressive, OCD, or anxiety symptoms, and should be strongly considered before prescribing antipsychotics or mood stabilizers, as long as initiated with proper monitoring.

Serotonin syndrome is a life-threatening condition caused by excess synaptic serotonin. It is characterized by confusion, sweating, diarrhea, hypertension, hyperthermia, and tachycardia. At its most severe, serotonin syndrome can result in seizures, arrhythmias, and death. The risk of serotonin syndrome is very low when using an SSRI as monotherapy. Risk increases with polypharmacy, particularly unexamined polypharmacy when multiple serotonergic agents are inadvertently on board. Commonly used serotonergic agents include other antidepressants, migraine medications (eg, triptans), some pain medications, and the cough suppressant dextromethorphan.

The easiest way to mitigate the risk of serotonin syndrome is to use an interaction index computer program, which can help ensure that the interacting agents are not prescribed without first discussing the risks and benefits. It is important to teach adolescents that certain recreational drugs are highly serotonergic and can cause serious interactions with antidepressants. For example, recreational use of dextrometh­orphan or 3,4-methylenedioxymethamphetamine (MDMA; commonly known as “ecstasy”) has been associated with serotonin syndrome in adolescents taking antidepressant medications.42,43

Continue to: Suicidality

 

 

Suicidality. The black-box warning regarding a risk of emergent suicidality when starting antidepressant treatment in children is controversial.44 The prospect that a medication intended to ameliorate depression might instead risk increasing suicidal thinking is alarming to parents and clinicians alike. To appropriately weigh and discuss the risks and benefits with families, it is important to understand the data upon which the warning is based.

Cates plot depicting the benefits of antidepressants vs risk of suicidal ideation for pediatric patients with anxiety disorders

In 2004, the FDA commissioned a review of 23 antidepressant trials, both published and unpublished, pooling studies across multiple indications (MDD, OCD, anxiety, and ADHD) and multiple antidepressant classes. This meta-analysis, which included nearly 4,400 pediatric patients, found a small but statistically significant increase in spontaneously-reported suicidal thoughts or actions, with a risk difference of 1% (95% confidence interval [CI], 1% to 2%).45 These data suggest that if one treats 100 pediatric patients, 1 to 2 of them may experience short-term increases in suicidal thinking or behavior.45 There were no differences in suicidal thinking when assessed systematically (ie, when all subjects reported symptoms of suicidal ideation on structured rating scales), and there were no completed suicides.45 A subsequent analysis that included 27 pediatric trials suggested an even lower, although still significant, risk difference (<1%), yielding a number needed to harm (NNH) of 143.46 Thus, with low NNT for efficacy (3 to 6) and relatively high NNH for emergent suicidal thoughts or behaviors (100 to 143), for many patients the benefits will outweigh the risks.

Cates plot depicting the benefits of antidepressants vs risk of suicidal ideation for pediatric patients with major depressive disorder

Figure 1, Figure 2, and Figure 3 are Cates plots that depict the absolute benefits of antidepressants compared with the risk of suicidality for pediatric patients with MDD, OCD, and anxiety disorders. Recent meta-analyses have suggested that the increased risk of suicidality in antidepressant trials is specific to studies that included children and adolescents, and is not observed in adult studies. A meta-analysis of 70 trials involving 18,526 participants suggested that the odds ratio of suicidality in trials of children and adolescents was 2.39 (95% CI, 1.31 to 4.33) compared with 0.81 (95% CI, 0.51 to 1.28) in adults.47 Additionally, a network meta-analysis exclusively focusing on pediatric antidepressant trials in MDD reported significantly higher suicidality-related adverse events in venlafaxine trials compared with placebo, duloxetine, and several SSRIs (fluoxetine, paroxetine, and escitalopram).20 These data should be interpreted with caution as differences in suicidality detected between agents is quite possibly related to differences in the method of assessment between trials, as opposed to actual differences in risk between agents.

Cates plot depicting the benefits of antidepressants vs risk of suicidal ideation for pediatric patients with obsessive-compulsive disorder

Epidemiologic data further support the use of antidepressants in pediatric patients, showing that antidepressant use is associated with decreased teen suicide attempts and completions,48 and the decline in prescriptions that occurred following the black-box warning was accompanied by a 14% increase in teen suicides.49 Multiple hypotheses have been proposed to explain the pediatric clinical trial findings. One idea is that potential adverse effects of activation, or the intended effects of restoring the motivation, energy, and social engagement that is often impaired in depression, increases the likelihood of thinking about suicide or acting on thoughts. Another theory is that reporting of suicidality may be increased, rather than increased de novo suicidality itself. Antidepressants are effective for treating pediatric anxiety disorders, including social anxiety disorder,16 which could result in more willingness to report. Also, the manner in which adverse effects are generally ascertained in trials might have led to increased spontaneous reporting. In many trials, investigators ask whether participants have any adverse effects in general, and inquire about specific adverse effects only if the family answers affirmatively. Thus, the increased rate of other adverse effects associated with antidepressants (sleep problems, gastrointestinal upset, dry mouth, etc.) might trigger a specific question regarding suicidal ideation, which the child or family then may be more likely to report. Alternatively, any type of psychiatric treatment could increase an individual’s propensity to report; in adolescent psychotherapy trials, non-medicated participants have reported emergent suicidality at similar frequencies as those described in drug trials.50 Regardless of the mechanism, the possibility of treatment-emergent suicidality is a low-frequency but serious event that necessitates careful monitoring when starting medication. Current guidelines suggest seeing children weekly for the first month after medication initiation, every 2 weeks for the following month, and monthly thereafter.51

Continue to: How long should the antidepressant be continued?

 

 

How long should the antidepressant be continued?

Many patients are concerned about how long they may be taking medication, and whether they will be taking an antidepressant “forever.” A treatment course can be broken into an acute phase, wherein remission is achieved and maintained for 6 to 8 weeks. This is followed by a continuation phase, with the goal of relapse prevention, lasting 16 to 20 weeks. The length of the last phase—the maintenance phase—depends both on the child’s history, the underlying therapeutic indication, the adverse effect burden experienced, and the family’s preferences/values. In general, for a first depressive episode, after treating for 1 year, a trial of discontinuation can be attempted with close monitoring. For a second depressive episode, we recommend 2 years of remission on antidepressant therapy before attempting discontinuation. In patients who have had 3 depressive episodes, or have had episodes of high severity, we recommend continuing antidepressant treatment indefinitely. Although much less well studied, the risk of relapse following SSRI discontinuation appears much more significant in OCD, whereas anxiety disorders and MDD have a relatively comparable risk.52

In general, stopping an antidepressant should be done carefully and slowly. The speed with which a specific antidepressant can be stopped is largely related to its half-life. Agents with very long half-lives, such as fluoxetine (half-life of 5 days for the parent compound and 9 days for active metabolite), can often be stopped altogether, being “auto-tapered” by the long half-life. One might still consider a taper if the patient were taking high doses. Medications with shorter half-lives must be more carefully tapered to avoid discontinuation syndromes. Discontinuation syndromes are characterized by flu-like symptoms (nausea, myalgias, fatigue, dizziness) and worsening mood. Medications with short half-lives (eg, paroxetine and venlafaxine) have the highest potential for this syndrome in children,53 and thus are used less frequently.

What to do when first-line treatments fail

When a child does not experience sufficient improvement from first-line treatments, it is crucial to determine whether they have experienced an adequate dosing, duration, and quality of medication and psychotherapy.

Adequate psychotherapy? To determine whether children are receiving adequate CBT, ask:

  1. if the child receives homework from psychotherapy
  2. if the parents are included in treatment
  3. if therapy has involved identifying thought patterns that may be contributing to the child’s illness, and
  4. if the therapist has ever exposed the child to a challenge likely to produce anxiety or distress in a supervised environment and has developed an exposure hierarchy (for conditions with primarily exposure-based therapies, such as OCD or anxiety disorders).

If a family is not receiving most of these elements in psychotherapy, this is a good indicator that they may not be receiving evidence-based CBT.

Continue to: Adequate pharmacotherapy?

 

 

Adequate pharmacotherapy? Similarly, when determining the adequacy of previous pharmacotherapy, it is critical to determine whether the child received an adequate dose of medications (at least the FDA-recommended minimum dose) for an adequate duration of time at therapeutic dosing (at least 6 weeks for MDD, 8 weeks for anxiety disorders, and 8 to 12 weeks for pediatric patients with OCD), and that the child actually took the medication regularly during that period. Patient compliance can typically be tracked through checking refill requests or intervals through the patient’s pharmacy. Ensuring proper delivery of first-line treatments is imperative because (1) the adverse effects associated with second-line treatments are often more substantial; (2) the cost in terms of time and money is considerably higher with second-line treatments, and; (3) the evidence regarding the benefits of these treatments is much less certain.

Inadequate dosing is a common reason for non-response in pediatric patients. Therapeutic dose ranges for common antidepressants are displayed in Table 1. Many clinicians underdose antidepressants for pediatric patients initially (and often throughout treatment) because they fear that the typical dose titration used in clinical trials will increase the risk of adverse effects compared with more conservative dosing. There is limited evidence to suggest that this underdosing strategy is likely to be successful; adverse effects attributable to these medications are modest, and most that are experienced early in treatment (eg, headache, increased anxiety or irritability, sleep problems, gastrointestinal upset) are self-limiting and may be coincidental rather than medication-induced. Furthermore, there is no evidence for efficacy of subtherapeutic dosing in children in the acute phase of treatment or for preventing relapse.14 Thus, from an efficacy standpoint, a medication trial has not officially begun until the therapeutic dose range is reached.

Once dosing is within the therapeutic range, however, pediatric data differs from the adult literature. In most adult psychi­atric conditions, higher doses of SSRIs within the therapeutic range are associated with an increased response rate.14,54 In pediatrics, there are few fixed dose trials, and once within the recommended therapeutic range, minimal data supports an association between higher dosing and higher efficacy.14 In general, pediatric guidelines are silent regarding optimal dosing of SSRIs within the recommended dose range, and higher antidepressant doses often result in a more significant adverse effect burden for children. One exception is pediatric OCD, where, similar to adults, the guidelines suggest that higher dosing of SSRIs often is required to induce a therapeutic response as compared to MDD and GAD.31,55

If a child does not respond to adequate first-line treatment (or has a treatment history that cannot be fully verified), repeating these first-line interventions carries little risk and can be quite effective. For example, 60% of adolescents with MDD who did not initially respond to an SSRI demonstrated a significant response when prescribed a second SSRI or venlafaxine (with or without CBT).56

When pediatric patients continue to experience significantly distressing and/or debilitating symptoms (particularly in MDD) despite multiple trials of antidepressants and psychotherapy, practitioners should consider a careful referral to interventional psychiatry services, which can include the more intensive treatments of electroconvulsive therapy, repetitive transcranial magnetic stimulation, or ketamine (see Box 1). Given the substantial morbidity and mortality associated with adolescent depression, interventional psychiatry treatments are under-researched and under-utilized clinically in pediatric populations.

Continue to: Antidepressants in general...

 

 

Antidepressants in general, and SSRIs in particular, are the first-line pharmacotherapy for pediatric anxiety, OCD, and MDD. For PTSD, although they are a first-line treatment in adults, their efficacy has not been demonstrated in children and adolescents. Antidepressants are generally safe, well-tolerated, and effective, with low NNTs (3 to 5 for anxiety and OCD; 4 to 12 in MDD, depending on whether industry trials are included). It is important that clinicians and families be educated about possible adverse effects and their time course in order to anticipate difficulties, ensure adequate informed consent, and monitor appropriately. The black-box warning regarding treatment-emergent suicidal thoughts or behaviors must be discussed (for suggested talking points, see Box 2). The NNH is large (100 to 143), and for many patients, the benefits will outweigh the risks. For pediatric patients who fail to respond to multiple adequate trials of antidepressants and psychotherapy, referrals for interventional psychiatry consultation should be considered.

Bottom Line

Although the evidence base for prescribing antidepressants for children and adolescents is smaller compared to the adult literature, properly understanding and prescribing these agents, and explaining their risks and benefits to families, can make a major difference in patient compliance, satisfaction, and outcomes. Antidepressants (particularly selective serotonin reuptake inhibitors) are the firstline pharmacologic intervention for pediatric patients with anxiety disorders, obsessive-compulsive disorder, or major depressive disorder.

Related Resource

 

Drug Brand Names

Bupropion • Wellbutrin, Zyban
Cimetidine • Tagamet
Citalopram • Celexa
Clomipramine • Anafranil
Desipramine • Norpramin
Desvenlafaxine • Pristiq
Duloxetine • Cymbalta
Escitalopram • Lexapro
Fluoxetine • Prozac
Fluvoxamine • Luvox
Imipramine • Tofranil
Mirtazapine • Remeron
Nortriptyline • Pamelor
Paroxetine • Paxil
Sertraline • Zoloft
Venlafaxine • Effexor
Vilazodone • Viibryd
Vortioxetine • Trintellix

 

 

Box 1

Interventional treatments

Continuing severe depression is associated with reduced educational attainment and quality of life, as well as increased risk of substance abuse and suicide,1,2 which is the second leading cause of death in individuals age 10 to 24 years.3 Given the substantial morbidity and mortality associated with adolescent depression, interventional psychiatry treatments are under-researched and underutilized in pediatric patients. Interventional antidepressants in adults include electroconvulsive therapy (ECT), repetitive transcranial magnetic stimulation (rTMS), and, most recently, ketamine.

Electroconvulsive therapy is the most effective therapy available for depression in adults, alleviating depressive symptoms in treatment-refractory patients and outperforming both pharmacotherapy4 and rTMS.5 Despite its track record of effectiveness and safety in adults, ECT continues to suffer considerable stigma.4 Cognitive adverse effects and memory problems in adults are generally self-limited, and some aspects of cognition actually improve after ECT as depression lifts.6 The combination of stigma and the concern about possible cognitive adverse effects during periods of brain development have likely impeded the rigorous testing of ECT in treatment-refractory pediatric patients. Several case series and other retrospective analyses suggest, however, that ECT has strong efficacy and limited adverse effects in adolescents who have severe depression or psychotic symptoms.7-9 Despite these positive preliminary data in pediatric patients, and a large body of literature in adults, no controlled trials of ECT have been conducted in the pediatric population, and it remains a rarely used treatment in severe pediatric mental illness.

Repetitive transcranial magnetic stimulation is a technique in which magnetic stimulation is used to activate the left dorsolateral prefrontal cortex (DLPFC), a target thought to be important in the pathophysiology of MDD. Repetitive transcranial magnetic stimulation is FDAapproved to treat medication-refractory major depressive disorder (MDD) in adults, and has been shown to be effective as both a monotherapy10 and an adjunctive treatment.11 The estimated number needed to treat (NNT) for rTMS ranges from 6 to 8, which is quite effective, although less so than ECT (and probably initial pharmacotherapy).5 Similar to ECT, however, there are no large randomized controlled trials (RCTs) in children or adolescents. Pilot RCTs12 and open trials13 suggest that DLPFC rTMS may be effective as an adjunctive treatment, speeding or augmenting response to a selective serotonin reuptake inhibitor in adolescents with MDD. Larger trials studying rTMS in pediatric patients are needed. While rTMS is generally well tolerated, disadvantages include the time-consuming schedule (the initial treatment is typically 5 days/week for several weeks) and local adverse effects of headache and scalp pain.

Ketamine, which traditionally is used as a dissociative anesthetic, is a rapidly emerging novel treatment in adult treatment-refractory MDD. It acts quickly (within hours to days) and cause significant improvement in difficult symptoms such as anhedonia14 and suicidal ideation.15 In adult studies, ketamine has a robust average effect size of >1.2, and an NNT ranging from 3 to 5 in medication-refractory patients.16,17 Ketamine is a glutamatergic modulator, acting outside of the monoamine neurochemical systems traditionally targeted by standard antidepressants.16 The efficacy of ketamine in treatment-refractory adults is impressive, but the effects of a single treatment are ephemeral, dissipating within 1 to 2 weeks, which has led to significant discussion surrounding optimal dosing strategies.16 Although small RCTs in pediatric patients are currently underway, at this time, the only evidence for ketamine for pediatric MDD is based on case series/report data18,19 which was positive.

For all of these interventional modalities, it is critical to refer children with treatmentrefractory disorders to interventionists who have appropriate experience and monitoring capabilities.

References
1. Weissman MM, Wolk S, Goldstein RB, et al. Depressed adolescents grown up. JAMA.1999;281(18):1707-1713.
2. Fergusson DM, Woodward LJ. Mental health, educational, and social role outcomes of adolescents with depression. Arch Gen Psychiatry. 2002;59(3):225-231.
3. Centers for Disease Control and Prevention. National Vital Statistics System. Deaths, percent of total deaths, and death rates for the 15 leading causes of death in 5-year age groups, by race and sex: United States, 1999-2015. Centers for Disease Control and Prevention. https://www.cdc.gov/nchs/nvss/mortality/lcwk1.htm. Published October 23, 2017. Accessed May 2, 2019.
4. UK ECT Review Group. Efficacy and safety of electroconvulsive therapy in depressive disorders: a systematic review and metaanalysis. Lancet. 2003;361(9360):799-808.
5. Berlim MT, Van den Eynde F, Daskalakis ZJ. Efficacy and acceptability of high frequency repetitive transcranial magnetic stimulation (rTMS) versus electroconvulsive therapy (ECT) for major depression: a systematic review and meta-analysis of randomized trials. Depress Anxiety. 2013;30(7):614-623.
6. Semkovska M, McLoughlin DM. Objective cognitive performance associated with electroconvulsive therapy for depression: a systematic review and meta-analysis. Biol Psychiatry. 2010;68(6):568-577.
7. Jacob P, Gogi PK, Srinath S, et al. Review of electroconvulsive therapy practice from a tertiary child and adolescent psychiatry centre. Asian J Psychiatr. 2014;12(1):95-99.
8. Zhand N, Courtney DB, Flament MF. Use of electroconvulsive therapy in adolescents with treatment-resistant depressive disorders: a case series. J ECT. 2015;31(4):238-245.
9. Puffer CC, Wall CA, Huxsahl JE, et al. A 20 year practice review of electroconvulsive therapy for adolescents. J Child Adolesc Psychopharmacol. 2016;26(7):632-636.
10. Berlim MT, van den Eynde F, Tovar-Perdomo S, et al. Response, remission and drop-out rates following high-frequency repetitive transcranial magnetic stimulation (rTMS) for treating major depression: a systematic review and meta-analysis of randomized, double-blind and sham-controlled trials. Psychol Med. 2014;44(2):225-239.
11. Liu B, Zhang Y, Zhang L, et al. Repetitive transcranial magnetic stimulation as an augmentative strategy for treatment-resistant depression, a meta-analysis of randomized, double-blind and sham-controlled study. BMC Psychiatry. 2014;14:342.
12. Huang ML, Luo BY, Hu JB, et al. Repetitive transcranial magnetic stimulation in combination with citalopram in young patients with first-episode major depressive disorder: a double-blind, randomized, sham-controlled trial. Aust N Z J Psychiatry. 2012;46(3):257-264.
13. Wall CA, Croarkin PE, Sim LA, et al. Adjunctive use of repetitive transcranial magnetic stimulation in depressed adolescents: a prospective, open pilot study. J Clin Psychiatry. 2011;72(9):1263-1269.
14. Lally N, Nugent AC, Luckenbaugh DA, et al. Anti-anhedonic effect of ketamine and its neural correlates in treatment-resistant bipolar depression. Transl Psychiatry. 2014;4:e469. doi: 10.1038/tp.2014.105.
15. Ballard ED, Ionescu DF, Vande Voort JL, et al. Improvement in suicidal ideation after ketamine infusion: relationship to reductions in depression and anxiety. J Psychiatr Res. 2014;58:161-166.
16. Newport DJ, Carpenter LL, McDonald WM, et al. Ketamine and other NMDA antagonists: early clinical trials and possible mechanisms in depression. Am J Psychiatry. 2015;172(10):950-966.
17. McGirr A, Berlim MT, Bond DJ, et al. A systematic review and meta-analysis of randomized, double-blind, placebo-controlled trials of ketamine in the rapid treatment of major depressive episodes. Psychol Med. 2015;45(4):693-704.
18. Dwyer JB, Beyer C, Wilkinson ST, et al. Ketamine as a treatment for adolescent depression: a case report. J Am Acad Child Adolesc Psychiatry. 2017;56(4):352-354.
19. Cullen KR, Amatya P, Roback MG, et al. Intravenous ketamine for adolescents with treatment-resistant depression: an open-label study. J Child Adolesc Psychopharmacol. 2018;28(7):437-444.

Box 2

Talking to families when starting antidepressants for pediatric patients

Efficacy

  • Selective serotonin reuptake inhibitors are the most effective pharmacologic treatment we have for pediatric depression, OCD, and anxiety
  • More than one-half of children who are prescribed SSRIs have a significant improvement, regardless of condition
  • Based on current estimates, we need to treat 4 to 6 children with an SSRI to find one that will improve who would not improve with placebo
  • The clinical benefits of SSRIs generally take a while to accrue; therefore, it is advisable to take the medication for at least 2 to 3 months before concluding that it is ineffective
  • In addition to medication, evidence-based psychotherapies provide significant benefit for pediatric depression, OCD, and anxiety

Tolerability

  • Most commonly prescribed pediatric antidepressants have been used safely in children for 2 to 3 decades. The safety profiles of SSRIs are among the best of any medications used for children and adolescents
  • While many children get better when taking these medications, it’s important that we also talk about potential adverse effects. Some children will experience sleep problems (either sleepier than usual or difficulty sleeping), changes in energy levels, headache, gastrointestinal upset, and dry mouth. These are most likely at the beginning of treatment, or when we increase the dose; they usually are time-limited and go away on their own
  • Often adverse effects occur first and the benefits come later. Because it may take at least a few weeks to start to see the mood/anxiety benefits, it’s important for us to talk about any adverse effects your child experiences and remember that they usually are short-lived

Suicidality

  • The FDA placed a “black-box” warning on antidepressants after pediatric studies found a small but statistically significant increased risk of reporting suicidal thoughts or behaviors over the short-term compared with placebo
  • The increased risk of spontaneously reporting suicidal ideation was quite small. Studies suggested that one would need to treat 100 to 140 children to see 1 child report suicidal ideation compared to placebo. Suicidal ideation is a common symptom in children with depression and anxiety
  • Studies found no increased risk when suicidal ideation was systematically assessed using structured rating scales
  • In the studies evaluated, there were no completed suicides by patients taking medication or placebo
  • Population studies show that higher rates of antidepressant prescriptions are associated with lower rates of attempted and completed teen suicide, which underscores that in general, these medicines treat the underlying causes of suicidality
  • No scientific consensus exists on whether these medications are truly associated with an increased risk of new-onset suicidal ideation, or if this association is due to other factors (eg, improvement in anxiety and depressive symptoms that make patients more comfortable to report suicidal ideation spontaneously)
  • Regardless, the FDA recommends frequent monitoring of children for suicidal thoughts when these medications are started. This should be done anyway in children experiencing depression and anxiety, and it’s why we will plan to have more frequent appointments as the medication is initiated

OCD: obsessive-compulsive disorder; SSRIs: selective serotonin reuptake inhibitors

References

1. Williams SB, O’Connor EA, Eder M, et al. Screening for child and adolescent depression in primary care settings: a systematic evidence review for the US Preventive Services Task Force. Pediatrics. 2009;123(4):e716-e735. doi: 10.1542/peds.2008-2415.
2. Kessler RC, Avenevoli S, Ries Merikangas K. Mood disorders in children and adolescents: an epidemiologic perspective. Biol Psychiatry. 2001;49(12):1002-1014.
3. Lewinsohn PM, Clarke GN, Seeley JR, et al. Major depression in community adolescents: age at onset, episode duration, and time to recurrence. J Am Acad Child Adolesc Psychiatry. 1994;33(6):809-818.
4. Weissman MM, Wolk S, Goldstein RB, et al. Depressed adolescents grown up. JAMA.1999;281(18):1707-1713.
5. Fergusson DM, Woodward LJ. Mental health, educational, and social role outcomes of adolescents with depression. Arch Gen Psychiatry. 2002;59(3):225-231.
6. Keenan-Miller D, Hammen CL, Brennan PA. Health outcomes related to early adolescent depression. J Adolesc Health. 2007; 41(3): 256-62.
7. Shaffer D, Gould MS, Fisher P, et al. Psychiatric diagnosis in child and adolescent suicide. Arch Gen Psychiatry. 1996;53(4):339-348.
8. Centers for Disease Control and Prevention. National Vital Statistics System. Deaths, percent of total deaths, and death rates for the 15 leading causes of death in 5-year age groups, by race and sex: United States, 1999-2015. https://www.cdc.gov/nchs/nvss/mortality/lcwk1.htm. Published October 23, 2017. Accessed May 2, 2019.
9. Merikangas KR, He JP, Burstein M, et al. Lifetime prevalence of mental disorders in US adolescents: results from the National Comorbidity Survey Replication-Adolescent Supplement (NCS-A). J Am Acad Child Adolesc Psychiatry. 2010;49(10):980-989.
10. Wittchen HU, Nelson CB, Lachner G. Prevalence of mental disorders and psychosocial impairments in adolescents and young adults. Psychol Med. 1998;28(1):109-126.
11. Foley DL, Goldston DB, Costello EJ, et al. Proximal psychiatric risk factors for suicidality in youth: the Great Smoky Mountains Study. Arch Gen Psychiatry. 2006;63(9):1017-1024.
12. Cheung A, Sacks D, Dewa CS, et al. Pediatric prescribing practices and the FDA black-box warning on antidepressants. J Dev Behav Pediatr. 2008 29(3):213-215.
13. Walkup JT. Antidepressant efficacy for depression in children and adolescents: industry- and NIMH-funded studies. Am J Psychiatry. 2017;174(5):430-437.
14. Jakubovski E, Varigonda AL, Freemantle N, et al. Systematic review and meta-analysis: dose-response relationship of selective serotonin reuptake inhibitors in major depressive disorder. Am J Psychiatry. 2016;173(2):174-183.
15. Varigonda AL, Jakubovski E, Taylor MJ, et al. Systematic review and meta-analysis: early treatment responses of selective serotonin reuptake inhibitors in pediatric major depressive disorder. J Am Acad Child Adolesc Psychiatry. 2015;54(7):557-564.
16. Strawn JR, Welge JA, Wehry AM, et al. Efficacy and tolerability of antidepressants in pediatric anxiety disorders: a systematic review and meta-analysis. Depress Anxiety. 2015;32(3):149-157.
17. March JS, Biederman J, Wolkow R, et al. Sertraline in children and adolescents with obsessive-compulsive disorder: a multicenter randomized controlled trial. JAMA. 1998;280(20):1752-1756.
18. Walkup JT, Albano AM, Piacentini J, et al. Cognitive behavioral therapy, sertraline, or a combination in childhood anxiety. N Engl J Med. 2008;359(26):2753-2766.
19. Kennard BD, Silva SG, Tonev S, et al. Remission and recovery in the Treatment for Adolescents with Depression Study (TADS): acute and long-term outcomes. J Am Acad Child Adolesc Psychiatry. 2009;48(2):186-195.
20. Cipriani A, Zhou X, Del Giovane C, et al. Comparative efficacy and tolerability of antidepressants for major depressive disorder in children and adolescents: a network meta-analysis. Lancet. 2016;388(10047):881-890.
21. Cohen JA, Mannarino AP, Perel JM, et al. A pilot randomized controlled trial of combined trauma-focused CBT and sertraline for childhood PTSD symptoms. J Am Acad Child Adolesc Psychiatry. 2007;46(7):811-819.
22. Robb AS, Cueva JE, Sporn J, et al. Sertraline treatment of children and adolescents with posttraumatic stress disorder: a double-blind, placebo-controlled trial. J Child Adolesc Psychopharmacol. 2010;20(6):463-471.
23. Diehle J, Opmeer BC, Boer F, et al. Trauma-focused cognitive behavioral therapy or eye movement desensitization and reprocessing: what works in children with posttraumatic stress symptoms? A randomized controlled trial. Eur Child Adolesc Psychiatry. 2015;24(2):227-236.
24. Aiyer R, Barkin RL, Bhatia A. Treatment of neuropathic pain with venlafaxine: a systematic review. Pain Med. 2017;18(10):1999-2012.
25. Barrickman LL, Perry PJ, Allen AJ, et al. Bupropion versus methylphenidate in the treatment of attention-deficit hyperactivity disorder. J Am Acad Child Adolesc Psychiatry. 1995;34(5):649-657.
26. Monuteaux MC, Spencer TJ, Faraone SV, et al. A randomized, placebo-controlled clinical trial of bupropion for the prevention of smoking in children and adolescents with attention-deficit/hyperactivity disorder. J Clin Psychiatry. 2007;68(7):1094-1101.
27. Biederman J, Baldessarini RJ, Wright V, et al. A double-blind placebo controlled study of desipramine in the treatment of ADD: I. Efficacy. J Am Acad Child Adolesc Psychiatry. 1989;28(5):777-784.
28. Spencer T, Biederman J, Coffey B, et al. A double-blind comparison of desipramine and placebo in children and adolescents with chronic tic disorder and comorbid attention-deficit/hyperactivity disorder. Arch Gen Psychiatry. 2002;59(7):649-656.
29. DeVeaugh-Geiss J, Moroz G, Biederman J, et al. Clomipramine hydrochloride in childhood and adolescent obsessive-compulsive disorder--a multicenter trial. J Am Acad Child Adolesc Psychiatry. 1992;31(1):45-49.
30. Caldwell PH, Sureshkumar P, Wong WC. Tricyclic and related drugs for nocturnal enuresis in children. Cochrane Database Syst Rev. 2016;(1):CD002117.
31. Varigonda AL, Jakubovski E, Bloch MH. Systematic review and meta-analysis: early treatment responses of selective serotonin reuptake inhibitors and clomipramine in pediatric obsessive-compulsive disorder. J Am Acad Child Adolesc Psychiatry. 2016;55(10):851-859.e2. doi: 10.1016/j.jaac.2016.07.768.
32. Walkup J, Labellarte M. Complications of SSRI treatment. J Child Adolesc Psychopharmacol. 2001;11(1):1-4.
33. Leo RJ, Lichter DG, Hershey LA. Parkinsonism associated with fluoxetine and cimetidine: a case report. J Geriatr Psychiatry Neurol. 1995;8(4):231-233.
34. Strawn JR, Prakash A, Zhang Q, et al. A randomized, placebo-controlled study of duloxetine for the treatment of children and adolescents with generalized anxiety disorder. J Am Acad Child Adolesc Psychiatry. 2015;54(4):283-293.
35. Bernstein GA, Borchardt CM, Perwien AR, et al. Imipramine plus cognitive-behavioral therapy in the treatment of school refusal. J Am Acad Child Adolesc Psychiatry. 2000;39(3): 276-283.
36. Safer DJ, Zito JM. Treatment-emergent adverse events from selective serotonin reuptake inhibitors by age group: children versus adolescents. J Child Adolesc Psychopharmacol. 2006;16(1-2):159-169.
37. Reinblatt SP, DosReis S, Walkup JT, et al. Activation adverse events induced by the selective serotonin reuptake inhibitor fluvoxamine in children and adolescents. J Child Adolesc Psychopharmacol. 2009;19(2):119-126.
38. Goldsmith M, Singh M, Chang K. Antidepressants and psychostimulants in pediatric populations: is there an association with mania? Paediatr Drugs. 2011;13(4): 225-243.
39. Sidor MM, Macqueen GM. Antidepressants for the acute treatment of bipolar depression: a systematic review and meta-analysis. J Clin Psychiatry. 2011;72(2):156-167.
40. Allain N, Leven C, Falissard B, et al. Manic switches induced by antidepressants: an umbrella review comparing randomized controlled trials and observational studies. Acta Psychiatr Scand. 2017;135(2):106-116.
41. McClellan J, Kowatch R, Findling RL. Practice parameter for the assessment and treatment of children and adolescents with bipolar disorder. J Am Acad Child Adolesc Psychiatry. 2007;46(1):107-125.
42. Dobry Y, Rice T, Sher L. Ecstasy use and serotonin syndrome: a neglected danger to adolescents and young adults prescribed selective serotonin reuptake inhibitors. Int J Adolesc Med Health. 2013; 25(3):193-199.
43. Schwartz AR, Pizon AF, Brooks DE. Dextromethorphan-induced serotonin syndrome. Clin Toxicol (Phila). 2008;46(8):771-773.
44. Gibbons RD, Brown CH, Hur K, et al. Early evidence on the effects of regulators’ suicidality warnings on SSRI prescriptions and suicide in children and adolescents. Am J Psychiatry. 2007;164(9):1356-1363.
45. Hammad TA, Laughren T, Racoosin J. Suicidality in pediatric patients treated with antidepressant drugs. Arch Gen Psychiatry. 2006;63(3):332-339.
46. Bridge JA, Iyengar S, Salary CB, et al. Clinical response and risk for reported suicidal ideation and suicide attempts in pediatric antidepressant treatment: a meta-analysis of randomized controlled trials. JAMA. 2007;297(15):1683-1696.
47. Sharma T, Guski LS, Freund N, et al. Suicidality and aggression during antidepressant treatment: systematic review and meta-analyses based on clinical study reports. BMJ. 2016;352: i65. doi: https://doi.org/10.1136/bmj.i65.
48. Olfson M, Shaffer D, Marcus SC, et al. Relationship between antidepressant medication treatment and suicide in adolescents. Arch Gen Psychiatry. 2003;60(10):978-982.
49. Garland JE, Kutcher S, Virani A, et al. Update on the Use of SSRIs and SNRIs with children and adolescents in clinical practice. J Can Acad Child Adolesc Psychiatry. 2016;25(1):4-10.
50. Bridge JA, Barbe RP, Birmaher B, et al. Emergent suicidality in a clinical psychotherapy trial for adolescent depression. Am J Psychiatry. 2005;162(11):2173-2175.
51. Birmaher B, Brent D, Bernet W, et al. Practice parameter for the assessment and treatment of children and adolescents with depressive disorders. J Am Acad Child Adolesc Psychiatry. 2007;46(11):1503-1526.
52. Ravizza L, Maina G, Bogetto F, et al. Long term treatment of obsessive-compulsive disorder. CNS Drugs. 1998;10(4):247-255.
53. Hosenbocus S, Chahal R. SSRIs and SNRIs: a review of the discontinuation syndrome in children and adolescents. J Can Acad Child Adolesc Psychiatry. 2011;20(1):60-67.
54. Bloch MH, McGuire J, Landeros-Weisenberger A, et al. Meta-analysis of the dose-response relationship of SSRI in obsessive-compulsive disorder. Mol Psychiatry. 2010;15(8):850-855.
55. Issari Y, Jakubovski E, Bartley CA, et al. Early onset of response with selective serotonin reuptake inhibitors in obsessive-compulsive disorder: a meta-analysis. J Clin Psychiatry. 2016; 77(5):e605-e611. doi: 10.4088/JCP.14r09758.
56. Brent D, Emslie G, Clarke G, et al. Switching to another SSRI or to venlafaxine with or without cognitive behavioral therapy for adolescents with SSRI-resistant depression: the TORDIA randomized controlled trial. JAMA. 2008;299(8):901-913.

References

1. Williams SB, O’Connor EA, Eder M, et al. Screening for child and adolescent depression in primary care settings: a systematic evidence review for the US Preventive Services Task Force. Pediatrics. 2009;123(4):e716-e735. doi: 10.1542/peds.2008-2415.
2. Kessler RC, Avenevoli S, Ries Merikangas K. Mood disorders in children and adolescents: an epidemiologic perspective. Biol Psychiatry. 2001;49(12):1002-1014.
3. Lewinsohn PM, Clarke GN, Seeley JR, et al. Major depression in community adolescents: age at onset, episode duration, and time to recurrence. J Am Acad Child Adolesc Psychiatry. 1994;33(6):809-818.
4. Weissman MM, Wolk S, Goldstein RB, et al. Depressed adolescents grown up. JAMA.1999;281(18):1707-1713.
5. Fergusson DM, Woodward LJ. Mental health, educational, and social role outcomes of adolescents with depression. Arch Gen Psychiatry. 2002;59(3):225-231.
6. Keenan-Miller D, Hammen CL, Brennan PA. Health outcomes related to early adolescent depression. J Adolesc Health. 2007; 41(3): 256-62.
7. Shaffer D, Gould MS, Fisher P, et al. Psychiatric diagnosis in child and adolescent suicide. Arch Gen Psychiatry. 1996;53(4):339-348.
8. Centers for Disease Control and Prevention. National Vital Statistics System. Deaths, percent of total deaths, and death rates for the 15 leading causes of death in 5-year age groups, by race and sex: United States, 1999-2015. https://www.cdc.gov/nchs/nvss/mortality/lcwk1.htm. Published October 23, 2017. Accessed May 2, 2019.
9. Merikangas KR, He JP, Burstein M, et al. Lifetime prevalence of mental disorders in US adolescents: results from the National Comorbidity Survey Replication-Adolescent Supplement (NCS-A). J Am Acad Child Adolesc Psychiatry. 2010;49(10):980-989.
10. Wittchen HU, Nelson CB, Lachner G. Prevalence of mental disorders and psychosocial impairments in adolescents and young adults. Psychol Med. 1998;28(1):109-126.
11. Foley DL, Goldston DB, Costello EJ, et al. Proximal psychiatric risk factors for suicidality in youth: the Great Smoky Mountains Study. Arch Gen Psychiatry. 2006;63(9):1017-1024.
12. Cheung A, Sacks D, Dewa CS, et al. Pediatric prescribing practices and the FDA black-box warning on antidepressants. J Dev Behav Pediatr. 2008 29(3):213-215.
13. Walkup JT. Antidepressant efficacy for depression in children and adolescents: industry- and NIMH-funded studies. Am J Psychiatry. 2017;174(5):430-437.
14. Jakubovski E, Varigonda AL, Freemantle N, et al. Systematic review and meta-analysis: dose-response relationship of selective serotonin reuptake inhibitors in major depressive disorder. Am J Psychiatry. 2016;173(2):174-183.
15. Varigonda AL, Jakubovski E, Taylor MJ, et al. Systematic review and meta-analysis: early treatment responses of selective serotonin reuptake inhibitors in pediatric major depressive disorder. J Am Acad Child Adolesc Psychiatry. 2015;54(7):557-564.
16. Strawn JR, Welge JA, Wehry AM, et al. Efficacy and tolerability of antidepressants in pediatric anxiety disorders: a systematic review and meta-analysis. Depress Anxiety. 2015;32(3):149-157.
17. March JS, Biederman J, Wolkow R, et al. Sertraline in children and adolescents with obsessive-compulsive disorder: a multicenter randomized controlled trial. JAMA. 1998;280(20):1752-1756.
18. Walkup JT, Albano AM, Piacentini J, et al. Cognitive behavioral therapy, sertraline, or a combination in childhood anxiety. N Engl J Med. 2008;359(26):2753-2766.
19. Kennard BD, Silva SG, Tonev S, et al. Remission and recovery in the Treatment for Adolescents with Depression Study (TADS): acute and long-term outcomes. J Am Acad Child Adolesc Psychiatry. 2009;48(2):186-195.
20. Cipriani A, Zhou X, Del Giovane C, et al. Comparative efficacy and tolerability of antidepressants for major depressive disorder in children and adolescents: a network meta-analysis. Lancet. 2016;388(10047):881-890.
21. Cohen JA, Mannarino AP, Perel JM, et al. A pilot randomized controlled trial of combined trauma-focused CBT and sertraline for childhood PTSD symptoms. J Am Acad Child Adolesc Psychiatry. 2007;46(7):811-819.
22. Robb AS, Cueva JE, Sporn J, et al. Sertraline treatment of children and adolescents with posttraumatic stress disorder: a double-blind, placebo-controlled trial. J Child Adolesc Psychopharmacol. 2010;20(6):463-471.
23. Diehle J, Opmeer BC, Boer F, et al. Trauma-focused cognitive behavioral therapy or eye movement desensitization and reprocessing: what works in children with posttraumatic stress symptoms? A randomized controlled trial. Eur Child Adolesc Psychiatry. 2015;24(2):227-236.
24. Aiyer R, Barkin RL, Bhatia A. Treatment of neuropathic pain with venlafaxine: a systematic review. Pain Med. 2017;18(10):1999-2012.
25. Barrickman LL, Perry PJ, Allen AJ, et al. Bupropion versus methylphenidate in the treatment of attention-deficit hyperactivity disorder. J Am Acad Child Adolesc Psychiatry. 1995;34(5):649-657.
26. Monuteaux MC, Spencer TJ, Faraone SV, et al. A randomized, placebo-controlled clinical trial of bupropion for the prevention of smoking in children and adolescents with attention-deficit/hyperactivity disorder. J Clin Psychiatry. 2007;68(7):1094-1101.
27. Biederman J, Baldessarini RJ, Wright V, et al. A double-blind placebo controlled study of desipramine in the treatment of ADD: I. Efficacy. J Am Acad Child Adolesc Psychiatry. 1989;28(5):777-784.
28. Spencer T, Biederman J, Coffey B, et al. A double-blind comparison of desipramine and placebo in children and adolescents with chronic tic disorder and comorbid attention-deficit/hyperactivity disorder. Arch Gen Psychiatry. 2002;59(7):649-656.
29. DeVeaugh-Geiss J, Moroz G, Biederman J, et al. Clomipramine hydrochloride in childhood and adolescent obsessive-compulsive disorder--a multicenter trial. J Am Acad Child Adolesc Psychiatry. 1992;31(1):45-49.
30. Caldwell PH, Sureshkumar P, Wong WC. Tricyclic and related drugs for nocturnal enuresis in children. Cochrane Database Syst Rev. 2016;(1):CD002117.
31. Varigonda AL, Jakubovski E, Bloch MH. Systematic review and meta-analysis: early treatment responses of selective serotonin reuptake inhibitors and clomipramine in pediatric obsessive-compulsive disorder. J Am Acad Child Adolesc Psychiatry. 2016;55(10):851-859.e2. doi: 10.1016/j.jaac.2016.07.768.
32. Walkup J, Labellarte M. Complications of SSRI treatment. J Child Adolesc Psychopharmacol. 2001;11(1):1-4.
33. Leo RJ, Lichter DG, Hershey LA. Parkinsonism associated with fluoxetine and cimetidine: a case report. J Geriatr Psychiatry Neurol. 1995;8(4):231-233.
34. Strawn JR, Prakash A, Zhang Q, et al. A randomized, placebo-controlled study of duloxetine for the treatment of children and adolescents with generalized anxiety disorder. J Am Acad Child Adolesc Psychiatry. 2015;54(4):283-293.
35. Bernstein GA, Borchardt CM, Perwien AR, et al. Imipramine plus cognitive-behavioral therapy in the treatment of school refusal. J Am Acad Child Adolesc Psychiatry. 2000;39(3): 276-283.
36. Safer DJ, Zito JM. Treatment-emergent adverse events from selective serotonin reuptake inhibitors by age group: children versus adolescents. J Child Adolesc Psychopharmacol. 2006;16(1-2):159-169.
37. Reinblatt SP, DosReis S, Walkup JT, et al. Activation adverse events induced by the selective serotonin reuptake inhibitor fluvoxamine in children and adolescents. J Child Adolesc Psychopharmacol. 2009;19(2):119-126.
38. Goldsmith M, Singh M, Chang K. Antidepressants and psychostimulants in pediatric populations: is there an association with mania? Paediatr Drugs. 2011;13(4): 225-243.
39. Sidor MM, Macqueen GM. Antidepressants for the acute treatment of bipolar depression: a systematic review and meta-analysis. J Clin Psychiatry. 2011;72(2):156-167.
40. Allain N, Leven C, Falissard B, et al. Manic switches induced by antidepressants: an umbrella review comparing randomized controlled trials and observational studies. Acta Psychiatr Scand. 2017;135(2):106-116.
41. McClellan J, Kowatch R, Findling RL. Practice parameter for the assessment and treatment of children and adolescents with bipolar disorder. J Am Acad Child Adolesc Psychiatry. 2007;46(1):107-125.
42. Dobry Y, Rice T, Sher L. Ecstasy use and serotonin syndrome: a neglected danger to adolescents and young adults prescribed selective serotonin reuptake inhibitors. Int J Adolesc Med Health. 2013; 25(3):193-199.
43. Schwartz AR, Pizon AF, Brooks DE. Dextromethorphan-induced serotonin syndrome. Clin Toxicol (Phila). 2008;46(8):771-773.
44. Gibbons RD, Brown CH, Hur K, et al. Early evidence on the effects of regulators’ suicidality warnings on SSRI prescriptions and suicide in children and adolescents. Am J Psychiatry. 2007;164(9):1356-1363.
45. Hammad TA, Laughren T, Racoosin J. Suicidality in pediatric patients treated with antidepressant drugs. Arch Gen Psychiatry. 2006;63(3):332-339.
46. Bridge JA, Iyengar S, Salary CB, et al. Clinical response and risk for reported suicidal ideation and suicide attempts in pediatric antidepressant treatment: a meta-analysis of randomized controlled trials. JAMA. 2007;297(15):1683-1696.
47. Sharma T, Guski LS, Freund N, et al. Suicidality and aggression during antidepressant treatment: systematic review and meta-analyses based on clinical study reports. BMJ. 2016;352: i65. doi: https://doi.org/10.1136/bmj.i65.
48. Olfson M, Shaffer D, Marcus SC, et al. Relationship between antidepressant medication treatment and suicide in adolescents. Arch Gen Psychiatry. 2003;60(10):978-982.
49. Garland JE, Kutcher S, Virani A, et al. Update on the Use of SSRIs and SNRIs with children and adolescents in clinical practice. J Can Acad Child Adolesc Psychiatry. 2016;25(1):4-10.
50. Bridge JA, Barbe RP, Birmaher B, et al. Emergent suicidality in a clinical psychotherapy trial for adolescent depression. Am J Psychiatry. 2005;162(11):2173-2175.
51. Birmaher B, Brent D, Bernet W, et al. Practice parameter for the assessment and treatment of children and adolescents with depressive disorders. J Am Acad Child Adolesc Psychiatry. 2007;46(11):1503-1526.
52. Ravizza L, Maina G, Bogetto F, et al. Long term treatment of obsessive-compulsive disorder. CNS Drugs. 1998;10(4):247-255.
53. Hosenbocus S, Chahal R. SSRIs and SNRIs: a review of the discontinuation syndrome in children and adolescents. J Can Acad Child Adolesc Psychiatry. 2011;20(1):60-67.
54. Bloch MH, McGuire J, Landeros-Weisenberger A, et al. Meta-analysis of the dose-response relationship of SSRI in obsessive-compulsive disorder. Mol Psychiatry. 2010;15(8):850-855.
55. Issari Y, Jakubovski E, Bartley CA, et al. Early onset of response with selective serotonin reuptake inhibitors in obsessive-compulsive disorder: a meta-analysis. J Clin Psychiatry. 2016; 77(5):e605-e611. doi: 10.4088/JCP.14r09758.
56. Brent D, Emslie G, Clarke G, et al. Switching to another SSRI or to venlafaxine with or without cognitive behavioral therapy for adolescents with SSRI-resistant depression: the TORDIA randomized controlled trial. JAMA. 2008;299(8):901-913.

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Urine drug tests: How to make the most of them

Urine drug tests (UDTs) are useful clinical tools for assessing and monitoring the risk of misuse, abuse, and diversion when prescribing controlled substances, or for monitoring abstinence in patients with substance use disorders (SUDs). However, UDTs have been underutilized, and have been used without systematic documentation of reasons and results.1,2 In addition, many clinicians may lack the knowledge needed to effectively interpret test results.3,4 Although the reported use of UDTs is much higher among clinicians who are members of American Society of Addiction Medicine (ASAM), there is still a need for improved education.5

The appropriate use of UDTs strengthens the therapeutic relationship and promotes healthy behaviors and patients’ recovery. On the other hand, incorrect interpretation of test results may lead to missing potential aberrant behaviors, or inappropriate consequences for patients, such as discontinuing necessary medications or discharging them from care secondary to a perceived violation of a treatment contract due to unexpected positive or negative drug screening results.6 In this article, we review the basic concepts of UDTs and provide an algorithm to determine when to order these tests, how to interpret the results, and how to modify treatment accordingly.

Urine drug tests 101

Urine drug tests include rapid urine drug screening (UDS) and confirmatory tests. Urine drug screenings are usually based on various types of immunoassays. They are fast, sensitive, and cost-effective. Because immunoassays are antibody-mediated, they have significant false-positive and false-negative rates due to cross-reactivity and sensitivity of antibodies.7 For example, antibodies used in immunoassays to detect opioids are essentially morphine antibodies, and are not able to detect semisynthetic opioids or synthetic opioids (except hydrocodone).7 However, immunoassays specifically developed to detect oxycodone, buprenorphine, fentanyl, and methadone are available. On the other hand, antibodies can cross-react with molecules unrelated to proto-medicines or drug metabolites, but with similar antigenic determinants. For example, amphetamine immunoassays have high false-positive rates with many different classes of medications or substances.7

Urine drug tests based on mass spectrometry, gas chromatography/mass spectrometry (GC/MS), and liquid chromatography/mass spectrometry (LC/MS) are gold standards to confirm toxicology results. They are highly sensitive and specific, with accurate quantitative measurement. However, they are more expensive than UDS and usually need to be sent to a laboratory with capacity to perform GC/MS or LC/MS, with a turnaround time of up to 1 week.8 In clinical practice, we usually start with UDS tests and order confirmatory tests when needed.

When to order UDTs in outpatient psychiatry

On December 12, 2013, the ASAM released a white paper that suggests the use of drug testing as a primary prevention, diagnostic, and monitoring tool in the management of addiction or drug misuse and its application in a wide variety of medical settings.9 Many clinicians use treatment contracts when prescribing controlled substances as a part of a risk-mitigation strategy, and these contracts often include the use of UDTs. Urine drug tests provide objective evidence to support or negate self-report, because many people may underreport their use.10 The literature has shown significant “abnormal” urine test results, ranging from 9% to 53%, in patients receiving chronic opioid therapy.2,11

The CDC and the American Academy of Pain Medicine recommend UDS before initiating any controlled substance for pain therapy.12,13 They also suggest random drug testing at least once or twice a year for low-risk patients, and more frequent screening for high-risk patients, such as those with a history of addiction.12,13 For example, for patients with opioid use disorder who participate in a methadone program, weekly UDTs are mandated for the first 90 days, and at least 8 UDTs a year are required after that.

However, UDTs carry significant stigma due to their association with SUDs. Talking with patients from the start of treatment helps to reduce this stigma, and makes it easier to have further discussions when patients have unexpected results during treatment. For example, clinicians can explain to patients that monitoring UDTs when prescribing controlled substances is similar to monitoring thyroid function with lithium use because treatment with a controlled substance carries an inherent risk of misuse, abuse, and diversion. For patients with SUDs, clinicians can explain that using UDTs to monitor their abstinence is similar to monitoring HbA1c for glucose control in patients with diabetes.

Continue to: Factors that can affect UDT results

 

 

Factors that can affect UDT results

In addition to knowing when to order UDT, it is critical to know how to interpret the results of UDS and follow up with confirmatory tests when needed. Other than the limitations of the tests, the following factors could contribute to unexpected UDT results:

  • the drug itself, including its half-life, metabolic pathways, and potential interactions with other medications
  • how patients take their medications, including dose, frequency, and pattern of drug use
  • all the medications that patients are taking, including prescription, over-the-counter, and herbal and supplemental preparations
  • when the last dose of a prescribed controlled substance was taken. Always ask when the patient’s last dose was taken before you consider ordering a UDT.

To help better understand UDT results, Figure 114 and Figure 215 demonstrate metabolic pathways of commonly used benzodiazepines and opioids, respectively. There are several comprehensive reviews on commonly seen false positives and negatives for each drug or each class of drugs in immunoassays.16-21 Confirmatory tests are usually very accurate. However, chiral analysis is needed to differentiate enantiomers, such as methamphetamine (active R-enantiomer) and selegiline, which is metabolized into L-methamphetamine (inactive S-enantiomer).22 In addition, detection of tetrahydrocannabivarin (THCV), an ingredient of the cannabis plant, via GC/MS can be used to distinguish between consumption of dronabinol and natural cannabis products.23 The Table16-21 summarizes the proto­type agents, other detectable agents in the same class, and false positives and negatives in immunoassays.

Metabolic pathways of commonly used benzodiazepines

 

Interpreting UDT results and management strategies

Our Algorithm outlines how to interpret UDT results, and management strategies to consider based on whether the results are as expected or unexpected, with a few key caveats as described below.

Metabolic pathways of commonly used opioids

Expected results

If there are no concerns based on the patient’s clinical presentation or collateral information, simply continue the current treatment. However, for patients taking medications that are undetectable by UDS (for example, regular use of clonazepam or oxycodone), consider ordering confirmatory tests at least once to ensure compliance, even when UDS results are negative.

Commonly seen false positives and false negatives in urine drug screens

Unexpected positive results, including the presence of illicit drugs and/or unprescribed licit drugs

Drug misuse, abuse, or dependence. The first step is to talk with the patient, who may acknowledge drug misuse, abuse, or dependence. Next, consider modifying the treatment plan; this may include more frequent monitoring and visits, limiting or discontinuing prescribed controlled substances, or referring the patient to inpatient or outpatient SUD treatment, as appropriate.

Continue to: Interference from medications or diet

 

 

Interference from medications or diets. One example of a positive opioid screening result due to interference from diet is the consumption of foods that contain poppy seeds. Because of this potential interference, the cutoff value for a positive opioid immunoassay in workplace drug testing was increased from 300 to 2,000 ug/L.24 Educating patients regarding medication and lifestyle choices can help them avoid any interference with drug monitoring. Confirmatory tests can be ordered at the clinician’s discretion. The same principle applies to medication choice when prescribing. For example, a patient taking bupropion may experience a false positive result on a UDS for amphetamines, and a different antidepressant might be a better choice (Box 1).

Box 1

CASE: When medications interfere with drug monitoring

A patient with methamphetamine use disorder asked his psychiatrist for a letter to his probation officer because his recent urine drug screening (UDS) was positive for amphetamine. At a previous visit, the patient had been started on bupropion for depression and methamphetamine use disorder. After his most recent positive UDS, the patient stopped taking bupropion because he was aware that bupropion could cause a false-positive result on amphetamine screening. However, the psychiatrist could not confirm the results of the UDS, because he did not have the original sample for confirmatory testing. In this case, starting the patient on bupropion may not have been the best option without contacting the patient’s probation officer to discuss a good strategy for distinguishing true vs false-positive UDS results.

Urine sample tampering. Consider the possibility that urine samples could be substituted, especially when there are signs or indications of tampering, such as a positive pregnancy test for a male patient, or the presence of multiple prescription medications not prescribed to the patient. If there is high suspicion of urine sample tampering, consider observed urine sample collection.

When to order confirmatory tests for unexpected positive results.

Order a confirmatory test if a patient adamantly denies taking the substance(s) for which he/she has screened positive, and there’s no other explanation for the positive result. Continue the patient’s current treatment if the confirmatory test is negative. However, if the confirmatory test is positive, then modify the treatment plan (Algorithm).

Ordering UDTs, interpreting results, and implementing management strategies

Special circumstances.

A positive opioid screen in a patient who has been prescribed a synthetic or semisynthetic opioid indicates the patient is likely using opioids other than the one he/she has been prescribed. Similarly, clonazepam is expected to be negative in a benzodiazepine immunoassay. If such testing is positive, consider the possibility that the patient is taking other benzodiazepines, such as diazepam. The results of UDTs can also be complicated by common metabolites in the same class of drugs. For example, the presence of hydromorphone for patients taking hydrocodone does not necessarily indicate the use of hydromorphone, because hydromorphone is a metabolite of hydrocodone (Figure 215).

Unexpected negative results

Prescribed medications exist in low concentration that are below the UDS detection threshold. This unexpected UDS result could occur if patients:

  • take their medications less often than prescribed (because of financial difficulties or the patient feels better and does not think he/she needs it, etc.)
  • hydrate too much (intentionally or unintentionally), are pregnant, or are fast metabolizers (Box 2)
  • take other medications that increase the metabolism of the prescribed medication.

Box 2

CASE: An ultra-rapid metabolizer

A patient with opioid use disorder kept requesting a higher dose of methadone due to poorly controlled cravings. Even after he was observed taking methadone by the clinic staff, he was negative for methadone in immunoassay screening, and had a very low level of methadone based on liquid chromatography/mass spectrometry. Pharmacogenetic testing revealed that the patient was a cytochrome P450 2B6 ultra-rapid metabolizer; 2B6 is a primary metabolic enzyme for methadone. He also had a high concentration of 2-ethylidene- 1,5-dimethyl-3,3-diphenylpyrrolidine (EDDP), the primary metabolite of methadone, which was consistent with increased methadone metabolism.

Continue to: Further inquiry will...

 

 

Further inquiry will clarify these concerns. Clinicians should educate patients and manage accordingly. Confirmatory tests may be ordered upon clinicians’ discretion.

Urine sample tampering. Dilution or substitution of urine samples may lead to unexpected negative results. Usually, the urine sample will have abnormal parameters, including temperature, pH, specific gravity, urine creatinine level, or detection of adulterants. If needed, consider observed urine sample collection. Jaffee et al25 reviewed tampering methods in urine drug testing.

Diversion or binge use of medications. If patients adamantly deny diverting or binge using their medication, order confirmatory tests. If the confirmatory test also is negative, modify the treatment plan accordingly, and consider the following options:

  • adjust the medication dosage or frequency
  • discontinue the medication
  • conduct pill counts for more definitive evidence of diversion or misuse, especially if discontinuation may lead to potential harm (for example, for patients prescribed buprenorphine for opioid use disorder).
 

When to order confirmatory tests for unexpected negative results.

Because confirmatory tests also measure drug concentrations, clinicians sometimes order serial confirmatory testing to monitor lipophilic drugs after a patient reports discontinuation, such as in the case of a patient using marijuana, ketamine, or alprazolam. The level of a lipophilic drug, such as these 3, should continue to decline if the patient has discontinued using it. However, because the drug level is affected by how concentrated the urine samples are, it is necessary to compare the ratios of drug levels over urine creatinine levels.26 Another use for confirmatory-quantitative testing is to detect “urine spiking,”27,28 when a patient adds an unconsumed drug to his/her urine sample to produce a positive result without actually taking the drug (Box 3).

Box 3

CASE: Urine ‘spiking’ detected by confirmatory testing

On a confirmatory urine drug test, a patient taking buprenorphine/naloxone had a very high level of buprenorphine, but almost no norbuprenorphine (a metabolite of buprenorphine). After further discussion with the clinician, the patient admitted that he had dipped his buprenorphine/naltrexone pill in his urine sample (“spiking”) to disguise the fact that he stopped taking buprenorphine/naloxone several days ago in an effort to get high from taking opioids.

When to consult lab specialists

Because many clinicians may find it challenging to stay abreast of all of the factors necessary to properly interpret UDT results, consulting with qualified laboratory professionals is appropriate when needed. For example, a patient was prescribed codeine, and his UDTs showed morphine as anticipated; however, the prescribing clinician suspected that the patient was also using heroin. In this case, consultation with a specialist may be warranted to look for 6-mono-acetylemorphine (6-MAM, a unique heroin metabolite) and/or the ratio of morphine to codeine.

Continue to: In summary...

 

 

In summary, UDTs are important tools to use in general psychiatry practice, especially when prescribing controlled substances. To use UDTs effectively, it is essential to possess knowledge of drug metabolism and the limitations of these tests. All immunoassay results should be considered as presumptive, and confirmatory tests are often needed for making treatment decisions. Many clinicians are unlikely to possess all the knowledge needed to correctly interpret UDTs, and in some cases, communication with qualified laboratory professionals may be necessary. In addition, the patient’s history and clinical presentation, collateral information, and data from prescription drug monitoring programs are all important factors to consider.

The cost of UDTs, variable insurance coverage, and a lack of on-site laboratory services can be deterrents to implementing UDTs as recommended. These factors vary significantly across regions, facilities, and insurance providers (see Related Resources). If faced with these issues and you expect to often need UDTs in your practice, consider using point-of-care UDTs as an alternative to improve access, convenience, and possibly cost.

 

Bottom Line

Urine drug tests (UDTs) should be standard clinical practice when prescribing controlled substances and treating patients with substance use disorders in the outpatient setting. Clinicians need to be knowledgeable about the limitations of UDTs, drug metabolism, and relevant patient history to interpret UDTs proficiently for optimal patient care. Consult laboratory specialists when needed to help interpret the results.

Related Resources

Drug Brand Names

Alprazolam • Xanax
Amphetamine • Adderall
Atomoxetine • Strattera
Buprenorphine • Subutex
Buprenorphine/naloxone • Suboxone, Zubsolv
Bupropion • Wellbutrin, Zyban
Chlordiazepoxide • Librium
Chlorpromazine • Thorazine
Clonazepam • Klonopin
Desipramine • Norpramin
Dextroamphetamine • Dexedrine, ProCentra
Diazepam • Valium
Doxepin • Silenor
Dronabinol • Marinol
Efavirenz • Sustiva
Ephedrine • Akovaz
Fentanyl • Actiq, Duragesic
Flurazepam • Dalmane
Hydrocodone • Hysingla, Zohydro ER
Hydromorphone • Dilaudid, Exalgo
Labetalol • Normodyne, Trandate
Lamotrigine • Lamictal
Lisdexamfetamine • Vyvanse
Lithium • Eskalith, Lithobid
Lorazepam • Ativan
Meperidine • Demerol
Metformin • Fortamet, Glucophage
Methadone • Dolophine, Methadose
Methylphenidate • Ritalin
Midazolam • Versed
Morphine • Kadian, MorphaBond
Nabilone • Cesamet
Naltrexone • Vivitrol
Oxaprozin • Daypro
Oxazepam • Serax
Oxycodone • Oxycontin
Oxymorphone • Opana
Phentermine • Adipex-P, Ionamin
Promethazine • Phenergan
Quetiapine • Seroquel
Ranitidine • Zantac
Rifampicin • Rifadin
Selegiline • Eldepryl, Zelapar
Sertraline • Zoloft
Temazepam • Restoril
Thioridazine • Mellaril
Tramadol • Conzip, Ultram
Trazodone • Desyrel
Triazolam • Halcion
Venlafaxine • Effexor
Verapamil • Calan, Verelan
Zolpidem • Ambien

References

1. Passik SD, Schreiber J, Kirsh KL, et al. A chart review of the ordering and documentation of urine toxicology screens in a cancer center: do they influence patient management? J Pain Symptom Manag. 2000;19(1):40-44.
2. Arthur JA, Edwards T, Lu Z, et al. Frequency, predictors, and outcomes of urine drug testing among patients with advanced cancer on chronic opioid therapy at an outpatient supportive care clinic. Cancer. 2016;122(23):3732-3739.
3. Suzuki JM, Garayalde SM, Dodoo MM, et al. Psychiatry residents’ and fellows’ confidence and knowledge in interpreting urine drug testing results related to opioids. Subst Abus. 2018;39(4):518-521.
4. Reisfield GM, Bertholf R, Barkin RL, et al. Urine drug test interpretation: what do physicians know? J Opioid Manag. 2007;3(2):80-86.
5. Kirsh KL, Baxter LE, Rzetelny A, et al. A survey of ASAM members’ knowledge, attitudes, and practices in urine drug testing. J Addict Med. 2015;9(5):399-404.
6. Morasco BJ, Krebs EE, Adams MH, et al. Clinician response to aberrant urine drug test results of patients prescribed opioid therapy for chronic pain. Clin J Pain. 2019;35(1):1-6.
7. Liu RH. Comparison of common immunoassay kits for effective application in workplace drug urinalysis. Forensic Sci Rev. 1994;6(1):19-57.
8. Jannetto PJ, Fitzgerald RL. Effective use of mass spectrometry in the clinical laboratory. Clin Chem. 2016;62(1):92-98.
9. American Society of Addiction Medicine. Resources: ASAM releases white paper on drug testing. https://www.asam.org/resources/publications/magazine/read/article/2013/12/16/asam-releases-white-paper-on-drug-testing. Published December 16, 2019. Accessed June 25, 2019.
10. Fishbain DA, Cutler RB, Rosomoff HL, et al. Validity of self-reported drug use in chronic pain patients. Clin J Pain. 1999;15(3):184-191.
11. Michna E, Jamison RN, Pham LD, et al. Urine toxicology screening among chronic pain patients on opioid therapy: Frequency and predictability of abnormal findings. Clin J Pain. 2007;23(2):173-179.
12. Dowell D, Haegerich TM, Chou R. CDC guideline for prescribing opioids for chronic pain--United States, 2016. JAMA. 2016;315(15):1624-1645.
13. Chou R. 2009 clinical guidelines from the American Pain Society and the American Academy of Pain medicine on the use of chronic opioid therapy in chronic noncancer pain: what are the key messages for clinical practice? Pol Arch Med Wewn. 2009;119(7-8):469-477.
14. Mihic SJ, Harris RA. Hypnotics and sedatives. In: Brunton LL, Chabner BA, Knollmann BC, eds. Goodman & Gilman’s the pharmacological basis of therapeutics. 13th ed. New York, NY: McGrawHill Medical; 2017:343-344.
15. DePriest AZ, Puet BL, Holt AC, et al. Metabolism and disposition of prescription opioids: a review. Forensic Sci Rev. 2015;27(2):115-145.
16. Tenore PL. Advanced urine toxicology testing. J Addict Dis. 2010;29(4):436-448.
17. Brahm NC, Yeager LL, Fox MD, et al. Commonly prescribed medications and potential false-positive urine drug screens. Am J Health Syst Pharm. 2010;67(16):1344-1350.
18. Saitman A, Park HD, Fitzgerald RL. False-positive interferences of common urine drug screen immunoassays: a review. J Anal Toxicol. 2014;38(7):387-396.
19. Moeller KE, Kissack JC, Atayee RS, et al. Clinical interpretation of urine drug tests: what clinicians need to know about urine drug screens. Mayo Clin Proc. 2017;92(5):774-796.
20. Nelson ZJ, Stellpflug SJ, Engebretsen KM. What can a urine drug screening immunoassay really tell us? J Pharm Pract. 2016;29(5):516-526.
21. Reisfield GM, Goldberger BA, Bertholf RL. ‘False-positive’ and ‘false-negative’ test results in clinical urine drug testing. Bioanalysis. 2009;1(5):937-952.
22. Poklis A, Moore KA. Response of EMIT amphetamine immunoassays to urinary desoxyephedrine following Vicks inhaler use. Ther Drug Monit. 1995;17(1):89-94.
23. ElSohly MA, Feng S, Murphy TP, et al. Identification and quantitation of 11-nor-delta9-tetrahydrocannabivarin-9-carboxylic acid, a major metabolite of delta9-tetrahydrocannabivarin. J Anal Toxicol. 2001;25(6):476-480.
24. Selavka CM. Poppy seed ingestion as a contributing factor to opiate-positive urinalysis results: the pacific perspective. J Forensic Sci. 1991;36(3):685-696.
25. Jaffee WB, Trucco E, Levy S, et al. Is this urine really negative? A systematic review of tampering methods in urine drug screening and testing. J Subst Abuse Treat. 2007;33(1):33-42.
26. Fraser AD, Worth D. Urinary excretion profiles of 11-nor-9-carboxy-delta9-tetrahydrocannabinol: a delta9-thccooh to creatinine ratio study. J Anal Toxicol. 1999;23(6):531-534.
27. Holt SR, Donroe JH, Cavallo DA, et al. Addressing discordant quantitative urine buprenorphine and norbuprenorphine levels: case examples in opioid use disorder. Drug Alcohol Depend. 2018;186:171-174.
28. Accurso AJ, Lee JD, McNeely J. High prevalence of urine tampering in an office-based opioid treatment practice detected by evaluating the norbuprenorphine to buprenorphine ratio. J Subst Abuse Treat. 2017;83:62-67.

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Xiaofan Li, MD, PhD
Staff Psychiatrist
Sioux Falls Veterans Health Care System
Assistant Professor
University of South Dakota Sanford School of Medicine
Sioux Falls, South Dakota

Stephanie Moore, MS
Toxicologist
Richard L. Roudebush VA Medical Center
Indianapolis, Indiana

Chloe Olson, MD
PGY-4 Psychiatry Resident
University of South Dakota Sanford School of Medicine
Sioux Falls, South Dakota

Disclosures
The authors report no financial relationships with any companies whose products are mentioned in this article, or with manufacturers of competing products.

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Author and Disclosure Information

Xiaofan Li, MD, PhD
Staff Psychiatrist
Sioux Falls Veterans Health Care System
Assistant Professor
University of South Dakota Sanford School of Medicine
Sioux Falls, South Dakota

Stephanie Moore, MS
Toxicologist
Richard L. Roudebush VA Medical Center
Indianapolis, Indiana

Chloe Olson, MD
PGY-4 Psychiatry Resident
University of South Dakota Sanford School of Medicine
Sioux Falls, South Dakota

Disclosures
The authors report no financial relationships with any companies whose products are mentioned in this article, or with manufacturers of competing products.

Author and Disclosure Information

Xiaofan Li, MD, PhD
Staff Psychiatrist
Sioux Falls Veterans Health Care System
Assistant Professor
University of South Dakota Sanford School of Medicine
Sioux Falls, South Dakota

Stephanie Moore, MS
Toxicologist
Richard L. Roudebush VA Medical Center
Indianapolis, Indiana

Chloe Olson, MD
PGY-4 Psychiatry Resident
University of South Dakota Sanford School of Medicine
Sioux Falls, South Dakota

Disclosures
The authors report no financial relationships with any companies whose products are mentioned in this article, or with manufacturers of competing products.

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Article PDF

Urine drug tests (UDTs) are useful clinical tools for assessing and monitoring the risk of misuse, abuse, and diversion when prescribing controlled substances, or for monitoring abstinence in patients with substance use disorders (SUDs). However, UDTs have been underutilized, and have been used without systematic documentation of reasons and results.1,2 In addition, many clinicians may lack the knowledge needed to effectively interpret test results.3,4 Although the reported use of UDTs is much higher among clinicians who are members of American Society of Addiction Medicine (ASAM), there is still a need for improved education.5

The appropriate use of UDTs strengthens the therapeutic relationship and promotes healthy behaviors and patients’ recovery. On the other hand, incorrect interpretation of test results may lead to missing potential aberrant behaviors, or inappropriate consequences for patients, such as discontinuing necessary medications or discharging them from care secondary to a perceived violation of a treatment contract due to unexpected positive or negative drug screening results.6 In this article, we review the basic concepts of UDTs and provide an algorithm to determine when to order these tests, how to interpret the results, and how to modify treatment accordingly.

Urine drug tests 101

Urine drug tests include rapid urine drug screening (UDS) and confirmatory tests. Urine drug screenings are usually based on various types of immunoassays. They are fast, sensitive, and cost-effective. Because immunoassays are antibody-mediated, they have significant false-positive and false-negative rates due to cross-reactivity and sensitivity of antibodies.7 For example, antibodies used in immunoassays to detect opioids are essentially morphine antibodies, and are not able to detect semisynthetic opioids or synthetic opioids (except hydrocodone).7 However, immunoassays specifically developed to detect oxycodone, buprenorphine, fentanyl, and methadone are available. On the other hand, antibodies can cross-react with molecules unrelated to proto-medicines or drug metabolites, but with similar antigenic determinants. For example, amphetamine immunoassays have high false-positive rates with many different classes of medications or substances.7

Urine drug tests based on mass spectrometry, gas chromatography/mass spectrometry (GC/MS), and liquid chromatography/mass spectrometry (LC/MS) are gold standards to confirm toxicology results. They are highly sensitive and specific, with accurate quantitative measurement. However, they are more expensive than UDS and usually need to be sent to a laboratory with capacity to perform GC/MS or LC/MS, with a turnaround time of up to 1 week.8 In clinical practice, we usually start with UDS tests and order confirmatory tests when needed.

When to order UDTs in outpatient psychiatry

On December 12, 2013, the ASAM released a white paper that suggests the use of drug testing as a primary prevention, diagnostic, and monitoring tool in the management of addiction or drug misuse and its application in a wide variety of medical settings.9 Many clinicians use treatment contracts when prescribing controlled substances as a part of a risk-mitigation strategy, and these contracts often include the use of UDTs. Urine drug tests provide objective evidence to support or negate self-report, because many people may underreport their use.10 The literature has shown significant “abnormal” urine test results, ranging from 9% to 53%, in patients receiving chronic opioid therapy.2,11

The CDC and the American Academy of Pain Medicine recommend UDS before initiating any controlled substance for pain therapy.12,13 They also suggest random drug testing at least once or twice a year for low-risk patients, and more frequent screening for high-risk patients, such as those with a history of addiction.12,13 For example, for patients with opioid use disorder who participate in a methadone program, weekly UDTs are mandated for the first 90 days, and at least 8 UDTs a year are required after that.

However, UDTs carry significant stigma due to their association with SUDs. Talking with patients from the start of treatment helps to reduce this stigma, and makes it easier to have further discussions when patients have unexpected results during treatment. For example, clinicians can explain to patients that monitoring UDTs when prescribing controlled substances is similar to monitoring thyroid function with lithium use because treatment with a controlled substance carries an inherent risk of misuse, abuse, and diversion. For patients with SUDs, clinicians can explain that using UDTs to monitor their abstinence is similar to monitoring HbA1c for glucose control in patients with diabetes.

Continue to: Factors that can affect UDT results

 

 

Factors that can affect UDT results

In addition to knowing when to order UDT, it is critical to know how to interpret the results of UDS and follow up with confirmatory tests when needed. Other than the limitations of the tests, the following factors could contribute to unexpected UDT results:

  • the drug itself, including its half-life, metabolic pathways, and potential interactions with other medications
  • how patients take their medications, including dose, frequency, and pattern of drug use
  • all the medications that patients are taking, including prescription, over-the-counter, and herbal and supplemental preparations
  • when the last dose of a prescribed controlled substance was taken. Always ask when the patient’s last dose was taken before you consider ordering a UDT.

To help better understand UDT results, Figure 114 and Figure 215 demonstrate metabolic pathways of commonly used benzodiazepines and opioids, respectively. There are several comprehensive reviews on commonly seen false positives and negatives for each drug or each class of drugs in immunoassays.16-21 Confirmatory tests are usually very accurate. However, chiral analysis is needed to differentiate enantiomers, such as methamphetamine (active R-enantiomer) and selegiline, which is metabolized into L-methamphetamine (inactive S-enantiomer).22 In addition, detection of tetrahydrocannabivarin (THCV), an ingredient of the cannabis plant, via GC/MS can be used to distinguish between consumption of dronabinol and natural cannabis products.23 The Table16-21 summarizes the proto­type agents, other detectable agents in the same class, and false positives and negatives in immunoassays.

Metabolic pathways of commonly used benzodiazepines

 

Interpreting UDT results and management strategies

Our Algorithm outlines how to interpret UDT results, and management strategies to consider based on whether the results are as expected or unexpected, with a few key caveats as described below.

Metabolic pathways of commonly used opioids

Expected results

If there are no concerns based on the patient’s clinical presentation or collateral information, simply continue the current treatment. However, for patients taking medications that are undetectable by UDS (for example, regular use of clonazepam or oxycodone), consider ordering confirmatory tests at least once to ensure compliance, even when UDS results are negative.

Commonly seen false positives and false negatives in urine drug screens

Unexpected positive results, including the presence of illicit drugs and/or unprescribed licit drugs

Drug misuse, abuse, or dependence. The first step is to talk with the patient, who may acknowledge drug misuse, abuse, or dependence. Next, consider modifying the treatment plan; this may include more frequent monitoring and visits, limiting or discontinuing prescribed controlled substances, or referring the patient to inpatient or outpatient SUD treatment, as appropriate.

Continue to: Interference from medications or diet

 

 

Interference from medications or diets. One example of a positive opioid screening result due to interference from diet is the consumption of foods that contain poppy seeds. Because of this potential interference, the cutoff value for a positive opioid immunoassay in workplace drug testing was increased from 300 to 2,000 ug/L.24 Educating patients regarding medication and lifestyle choices can help them avoid any interference with drug monitoring. Confirmatory tests can be ordered at the clinician’s discretion. The same principle applies to medication choice when prescribing. For example, a patient taking bupropion may experience a false positive result on a UDS for amphetamines, and a different antidepressant might be a better choice (Box 1).

Box 1

CASE: When medications interfere with drug monitoring

A patient with methamphetamine use disorder asked his psychiatrist for a letter to his probation officer because his recent urine drug screening (UDS) was positive for amphetamine. At a previous visit, the patient had been started on bupropion for depression and methamphetamine use disorder. After his most recent positive UDS, the patient stopped taking bupropion because he was aware that bupropion could cause a false-positive result on amphetamine screening. However, the psychiatrist could not confirm the results of the UDS, because he did not have the original sample for confirmatory testing. In this case, starting the patient on bupropion may not have been the best option without contacting the patient’s probation officer to discuss a good strategy for distinguishing true vs false-positive UDS results.

Urine sample tampering. Consider the possibility that urine samples could be substituted, especially when there are signs or indications of tampering, such as a positive pregnancy test for a male patient, or the presence of multiple prescription medications not prescribed to the patient. If there is high suspicion of urine sample tampering, consider observed urine sample collection.

When to order confirmatory tests for unexpected positive results.

Order a confirmatory test if a patient adamantly denies taking the substance(s) for which he/she has screened positive, and there’s no other explanation for the positive result. Continue the patient’s current treatment if the confirmatory test is negative. However, if the confirmatory test is positive, then modify the treatment plan (Algorithm).

Ordering UDTs, interpreting results, and implementing management strategies

Special circumstances.

A positive opioid screen in a patient who has been prescribed a synthetic or semisynthetic opioid indicates the patient is likely using opioids other than the one he/she has been prescribed. Similarly, clonazepam is expected to be negative in a benzodiazepine immunoassay. If such testing is positive, consider the possibility that the patient is taking other benzodiazepines, such as diazepam. The results of UDTs can also be complicated by common metabolites in the same class of drugs. For example, the presence of hydromorphone for patients taking hydrocodone does not necessarily indicate the use of hydromorphone, because hydromorphone is a metabolite of hydrocodone (Figure 215).

Unexpected negative results

Prescribed medications exist in low concentration that are below the UDS detection threshold. This unexpected UDS result could occur if patients:

  • take their medications less often than prescribed (because of financial difficulties or the patient feels better and does not think he/she needs it, etc.)
  • hydrate too much (intentionally or unintentionally), are pregnant, or are fast metabolizers (Box 2)
  • take other medications that increase the metabolism of the prescribed medication.

Box 2

CASE: An ultra-rapid metabolizer

A patient with opioid use disorder kept requesting a higher dose of methadone due to poorly controlled cravings. Even after he was observed taking methadone by the clinic staff, he was negative for methadone in immunoassay screening, and had a very low level of methadone based on liquid chromatography/mass spectrometry. Pharmacogenetic testing revealed that the patient was a cytochrome P450 2B6 ultra-rapid metabolizer; 2B6 is a primary metabolic enzyme for methadone. He also had a high concentration of 2-ethylidene- 1,5-dimethyl-3,3-diphenylpyrrolidine (EDDP), the primary metabolite of methadone, which was consistent with increased methadone metabolism.

Continue to: Further inquiry will...

 

 

Further inquiry will clarify these concerns. Clinicians should educate patients and manage accordingly. Confirmatory tests may be ordered upon clinicians’ discretion.

Urine sample tampering. Dilution or substitution of urine samples may lead to unexpected negative results. Usually, the urine sample will have abnormal parameters, including temperature, pH, specific gravity, urine creatinine level, or detection of adulterants. If needed, consider observed urine sample collection. Jaffee et al25 reviewed tampering methods in urine drug testing.

Diversion or binge use of medications. If patients adamantly deny diverting or binge using their medication, order confirmatory tests. If the confirmatory test also is negative, modify the treatment plan accordingly, and consider the following options:

  • adjust the medication dosage or frequency
  • discontinue the medication
  • conduct pill counts for more definitive evidence of diversion or misuse, especially if discontinuation may lead to potential harm (for example, for patients prescribed buprenorphine for opioid use disorder).
 

When to order confirmatory tests for unexpected negative results.

Because confirmatory tests also measure drug concentrations, clinicians sometimes order serial confirmatory testing to monitor lipophilic drugs after a patient reports discontinuation, such as in the case of a patient using marijuana, ketamine, or alprazolam. The level of a lipophilic drug, such as these 3, should continue to decline if the patient has discontinued using it. However, because the drug level is affected by how concentrated the urine samples are, it is necessary to compare the ratios of drug levels over urine creatinine levels.26 Another use for confirmatory-quantitative testing is to detect “urine spiking,”27,28 when a patient adds an unconsumed drug to his/her urine sample to produce a positive result without actually taking the drug (Box 3).

Box 3

CASE: Urine ‘spiking’ detected by confirmatory testing

On a confirmatory urine drug test, a patient taking buprenorphine/naloxone had a very high level of buprenorphine, but almost no norbuprenorphine (a metabolite of buprenorphine). After further discussion with the clinician, the patient admitted that he had dipped his buprenorphine/naltrexone pill in his urine sample (“spiking”) to disguise the fact that he stopped taking buprenorphine/naloxone several days ago in an effort to get high from taking opioids.

When to consult lab specialists

Because many clinicians may find it challenging to stay abreast of all of the factors necessary to properly interpret UDT results, consulting with qualified laboratory professionals is appropriate when needed. For example, a patient was prescribed codeine, and his UDTs showed morphine as anticipated; however, the prescribing clinician suspected that the patient was also using heroin. In this case, consultation with a specialist may be warranted to look for 6-mono-acetylemorphine (6-MAM, a unique heroin metabolite) and/or the ratio of morphine to codeine.

Continue to: In summary...

 

 

In summary, UDTs are important tools to use in general psychiatry practice, especially when prescribing controlled substances. To use UDTs effectively, it is essential to possess knowledge of drug metabolism and the limitations of these tests. All immunoassay results should be considered as presumptive, and confirmatory tests are often needed for making treatment decisions. Many clinicians are unlikely to possess all the knowledge needed to correctly interpret UDTs, and in some cases, communication with qualified laboratory professionals may be necessary. In addition, the patient’s history and clinical presentation, collateral information, and data from prescription drug monitoring programs are all important factors to consider.

The cost of UDTs, variable insurance coverage, and a lack of on-site laboratory services can be deterrents to implementing UDTs as recommended. These factors vary significantly across regions, facilities, and insurance providers (see Related Resources). If faced with these issues and you expect to often need UDTs in your practice, consider using point-of-care UDTs as an alternative to improve access, convenience, and possibly cost.

 

Bottom Line

Urine drug tests (UDTs) should be standard clinical practice when prescribing controlled substances and treating patients with substance use disorders in the outpatient setting. Clinicians need to be knowledgeable about the limitations of UDTs, drug metabolism, and relevant patient history to interpret UDTs proficiently for optimal patient care. Consult laboratory specialists when needed to help interpret the results.

Related Resources

Drug Brand Names

Alprazolam • Xanax
Amphetamine • Adderall
Atomoxetine • Strattera
Buprenorphine • Subutex
Buprenorphine/naloxone • Suboxone, Zubsolv
Bupropion • Wellbutrin, Zyban
Chlordiazepoxide • Librium
Chlorpromazine • Thorazine
Clonazepam • Klonopin
Desipramine • Norpramin
Dextroamphetamine • Dexedrine, ProCentra
Diazepam • Valium
Doxepin • Silenor
Dronabinol • Marinol
Efavirenz • Sustiva
Ephedrine • Akovaz
Fentanyl • Actiq, Duragesic
Flurazepam • Dalmane
Hydrocodone • Hysingla, Zohydro ER
Hydromorphone • Dilaudid, Exalgo
Labetalol • Normodyne, Trandate
Lamotrigine • Lamictal
Lisdexamfetamine • Vyvanse
Lithium • Eskalith, Lithobid
Lorazepam • Ativan
Meperidine • Demerol
Metformin • Fortamet, Glucophage
Methadone • Dolophine, Methadose
Methylphenidate • Ritalin
Midazolam • Versed
Morphine • Kadian, MorphaBond
Nabilone • Cesamet
Naltrexone • Vivitrol
Oxaprozin • Daypro
Oxazepam • Serax
Oxycodone • Oxycontin
Oxymorphone • Opana
Phentermine • Adipex-P, Ionamin
Promethazine • Phenergan
Quetiapine • Seroquel
Ranitidine • Zantac
Rifampicin • Rifadin
Selegiline • Eldepryl, Zelapar
Sertraline • Zoloft
Temazepam • Restoril
Thioridazine • Mellaril
Tramadol • Conzip, Ultram
Trazodone • Desyrel
Triazolam • Halcion
Venlafaxine • Effexor
Verapamil • Calan, Verelan
Zolpidem • Ambien

Urine drug tests (UDTs) are useful clinical tools for assessing and monitoring the risk of misuse, abuse, and diversion when prescribing controlled substances, or for monitoring abstinence in patients with substance use disorders (SUDs). However, UDTs have been underutilized, and have been used without systematic documentation of reasons and results.1,2 In addition, many clinicians may lack the knowledge needed to effectively interpret test results.3,4 Although the reported use of UDTs is much higher among clinicians who are members of American Society of Addiction Medicine (ASAM), there is still a need for improved education.5

The appropriate use of UDTs strengthens the therapeutic relationship and promotes healthy behaviors and patients’ recovery. On the other hand, incorrect interpretation of test results may lead to missing potential aberrant behaviors, or inappropriate consequences for patients, such as discontinuing necessary medications or discharging them from care secondary to a perceived violation of a treatment contract due to unexpected positive or negative drug screening results.6 In this article, we review the basic concepts of UDTs and provide an algorithm to determine when to order these tests, how to interpret the results, and how to modify treatment accordingly.

Urine drug tests 101

Urine drug tests include rapid urine drug screening (UDS) and confirmatory tests. Urine drug screenings are usually based on various types of immunoassays. They are fast, sensitive, and cost-effective. Because immunoassays are antibody-mediated, they have significant false-positive and false-negative rates due to cross-reactivity and sensitivity of antibodies.7 For example, antibodies used in immunoassays to detect opioids are essentially morphine antibodies, and are not able to detect semisynthetic opioids or synthetic opioids (except hydrocodone).7 However, immunoassays specifically developed to detect oxycodone, buprenorphine, fentanyl, and methadone are available. On the other hand, antibodies can cross-react with molecules unrelated to proto-medicines or drug metabolites, but with similar antigenic determinants. For example, amphetamine immunoassays have high false-positive rates with many different classes of medications or substances.7

Urine drug tests based on mass spectrometry, gas chromatography/mass spectrometry (GC/MS), and liquid chromatography/mass spectrometry (LC/MS) are gold standards to confirm toxicology results. They are highly sensitive and specific, with accurate quantitative measurement. However, they are more expensive than UDS and usually need to be sent to a laboratory with capacity to perform GC/MS or LC/MS, with a turnaround time of up to 1 week.8 In clinical practice, we usually start with UDS tests and order confirmatory tests when needed.

When to order UDTs in outpatient psychiatry

On December 12, 2013, the ASAM released a white paper that suggests the use of drug testing as a primary prevention, diagnostic, and monitoring tool in the management of addiction or drug misuse and its application in a wide variety of medical settings.9 Many clinicians use treatment contracts when prescribing controlled substances as a part of a risk-mitigation strategy, and these contracts often include the use of UDTs. Urine drug tests provide objective evidence to support or negate self-report, because many people may underreport their use.10 The literature has shown significant “abnormal” urine test results, ranging from 9% to 53%, in patients receiving chronic opioid therapy.2,11

The CDC and the American Academy of Pain Medicine recommend UDS before initiating any controlled substance for pain therapy.12,13 They also suggest random drug testing at least once or twice a year for low-risk patients, and more frequent screening for high-risk patients, such as those with a history of addiction.12,13 For example, for patients with opioid use disorder who participate in a methadone program, weekly UDTs are mandated for the first 90 days, and at least 8 UDTs a year are required after that.

However, UDTs carry significant stigma due to their association with SUDs. Talking with patients from the start of treatment helps to reduce this stigma, and makes it easier to have further discussions when patients have unexpected results during treatment. For example, clinicians can explain to patients that monitoring UDTs when prescribing controlled substances is similar to monitoring thyroid function with lithium use because treatment with a controlled substance carries an inherent risk of misuse, abuse, and diversion. For patients with SUDs, clinicians can explain that using UDTs to monitor their abstinence is similar to monitoring HbA1c for glucose control in patients with diabetes.

Continue to: Factors that can affect UDT results

 

 

Factors that can affect UDT results

In addition to knowing when to order UDT, it is critical to know how to interpret the results of UDS and follow up with confirmatory tests when needed. Other than the limitations of the tests, the following factors could contribute to unexpected UDT results:

  • the drug itself, including its half-life, metabolic pathways, and potential interactions with other medications
  • how patients take their medications, including dose, frequency, and pattern of drug use
  • all the medications that patients are taking, including prescription, over-the-counter, and herbal and supplemental preparations
  • when the last dose of a prescribed controlled substance was taken. Always ask when the patient’s last dose was taken before you consider ordering a UDT.

To help better understand UDT results, Figure 114 and Figure 215 demonstrate metabolic pathways of commonly used benzodiazepines and opioids, respectively. There are several comprehensive reviews on commonly seen false positives and negatives for each drug or each class of drugs in immunoassays.16-21 Confirmatory tests are usually very accurate. However, chiral analysis is needed to differentiate enantiomers, such as methamphetamine (active R-enantiomer) and selegiline, which is metabolized into L-methamphetamine (inactive S-enantiomer).22 In addition, detection of tetrahydrocannabivarin (THCV), an ingredient of the cannabis plant, via GC/MS can be used to distinguish between consumption of dronabinol and natural cannabis products.23 The Table16-21 summarizes the proto­type agents, other detectable agents in the same class, and false positives and negatives in immunoassays.

Metabolic pathways of commonly used benzodiazepines

 

Interpreting UDT results and management strategies

Our Algorithm outlines how to interpret UDT results, and management strategies to consider based on whether the results are as expected or unexpected, with a few key caveats as described below.

Metabolic pathways of commonly used opioids

Expected results

If there are no concerns based on the patient’s clinical presentation or collateral information, simply continue the current treatment. However, for patients taking medications that are undetectable by UDS (for example, regular use of clonazepam or oxycodone), consider ordering confirmatory tests at least once to ensure compliance, even when UDS results are negative.

Commonly seen false positives and false negatives in urine drug screens

Unexpected positive results, including the presence of illicit drugs and/or unprescribed licit drugs

Drug misuse, abuse, or dependence. The first step is to talk with the patient, who may acknowledge drug misuse, abuse, or dependence. Next, consider modifying the treatment plan; this may include more frequent monitoring and visits, limiting or discontinuing prescribed controlled substances, or referring the patient to inpatient or outpatient SUD treatment, as appropriate.

Continue to: Interference from medications or diet

 

 

Interference from medications or diets. One example of a positive opioid screening result due to interference from diet is the consumption of foods that contain poppy seeds. Because of this potential interference, the cutoff value for a positive opioid immunoassay in workplace drug testing was increased from 300 to 2,000 ug/L.24 Educating patients regarding medication and lifestyle choices can help them avoid any interference with drug monitoring. Confirmatory tests can be ordered at the clinician’s discretion. The same principle applies to medication choice when prescribing. For example, a patient taking bupropion may experience a false positive result on a UDS for amphetamines, and a different antidepressant might be a better choice (Box 1).

Box 1

CASE: When medications interfere with drug monitoring

A patient with methamphetamine use disorder asked his psychiatrist for a letter to his probation officer because his recent urine drug screening (UDS) was positive for amphetamine. At a previous visit, the patient had been started on bupropion for depression and methamphetamine use disorder. After his most recent positive UDS, the patient stopped taking bupropion because he was aware that bupropion could cause a false-positive result on amphetamine screening. However, the psychiatrist could not confirm the results of the UDS, because he did not have the original sample for confirmatory testing. In this case, starting the patient on bupropion may not have been the best option without contacting the patient’s probation officer to discuss a good strategy for distinguishing true vs false-positive UDS results.

Urine sample tampering. Consider the possibility that urine samples could be substituted, especially when there are signs or indications of tampering, such as a positive pregnancy test for a male patient, or the presence of multiple prescription medications not prescribed to the patient. If there is high suspicion of urine sample tampering, consider observed urine sample collection.

When to order confirmatory tests for unexpected positive results.

Order a confirmatory test if a patient adamantly denies taking the substance(s) for which he/she has screened positive, and there’s no other explanation for the positive result. Continue the patient’s current treatment if the confirmatory test is negative. However, if the confirmatory test is positive, then modify the treatment plan (Algorithm).

Ordering UDTs, interpreting results, and implementing management strategies

Special circumstances.

A positive opioid screen in a patient who has been prescribed a synthetic or semisynthetic opioid indicates the patient is likely using opioids other than the one he/she has been prescribed. Similarly, clonazepam is expected to be negative in a benzodiazepine immunoassay. If such testing is positive, consider the possibility that the patient is taking other benzodiazepines, such as diazepam. The results of UDTs can also be complicated by common metabolites in the same class of drugs. For example, the presence of hydromorphone for patients taking hydrocodone does not necessarily indicate the use of hydromorphone, because hydromorphone is a metabolite of hydrocodone (Figure 215).

Unexpected negative results

Prescribed medications exist in low concentration that are below the UDS detection threshold. This unexpected UDS result could occur if patients:

  • take their medications less often than prescribed (because of financial difficulties or the patient feels better and does not think he/she needs it, etc.)
  • hydrate too much (intentionally or unintentionally), are pregnant, or are fast metabolizers (Box 2)
  • take other medications that increase the metabolism of the prescribed medication.

Box 2

CASE: An ultra-rapid metabolizer

A patient with opioid use disorder kept requesting a higher dose of methadone due to poorly controlled cravings. Even after he was observed taking methadone by the clinic staff, he was negative for methadone in immunoassay screening, and had a very low level of methadone based on liquid chromatography/mass spectrometry. Pharmacogenetic testing revealed that the patient was a cytochrome P450 2B6 ultra-rapid metabolizer; 2B6 is a primary metabolic enzyme for methadone. He also had a high concentration of 2-ethylidene- 1,5-dimethyl-3,3-diphenylpyrrolidine (EDDP), the primary metabolite of methadone, which was consistent with increased methadone metabolism.

Continue to: Further inquiry will...

 

 

Further inquiry will clarify these concerns. Clinicians should educate patients and manage accordingly. Confirmatory tests may be ordered upon clinicians’ discretion.

Urine sample tampering. Dilution or substitution of urine samples may lead to unexpected negative results. Usually, the urine sample will have abnormal parameters, including temperature, pH, specific gravity, urine creatinine level, or detection of adulterants. If needed, consider observed urine sample collection. Jaffee et al25 reviewed tampering methods in urine drug testing.

Diversion or binge use of medications. If patients adamantly deny diverting or binge using their medication, order confirmatory tests. If the confirmatory test also is negative, modify the treatment plan accordingly, and consider the following options:

  • adjust the medication dosage or frequency
  • discontinue the medication
  • conduct pill counts for more definitive evidence of diversion or misuse, especially if discontinuation may lead to potential harm (for example, for patients prescribed buprenorphine for opioid use disorder).
 

When to order confirmatory tests for unexpected negative results.

Because confirmatory tests also measure drug concentrations, clinicians sometimes order serial confirmatory testing to monitor lipophilic drugs after a patient reports discontinuation, such as in the case of a patient using marijuana, ketamine, or alprazolam. The level of a lipophilic drug, such as these 3, should continue to decline if the patient has discontinued using it. However, because the drug level is affected by how concentrated the urine samples are, it is necessary to compare the ratios of drug levels over urine creatinine levels.26 Another use for confirmatory-quantitative testing is to detect “urine spiking,”27,28 when a patient adds an unconsumed drug to his/her urine sample to produce a positive result without actually taking the drug (Box 3).

Box 3

CASE: Urine ‘spiking’ detected by confirmatory testing

On a confirmatory urine drug test, a patient taking buprenorphine/naloxone had a very high level of buprenorphine, but almost no norbuprenorphine (a metabolite of buprenorphine). After further discussion with the clinician, the patient admitted that he had dipped his buprenorphine/naltrexone pill in his urine sample (“spiking”) to disguise the fact that he stopped taking buprenorphine/naloxone several days ago in an effort to get high from taking opioids.

When to consult lab specialists

Because many clinicians may find it challenging to stay abreast of all of the factors necessary to properly interpret UDT results, consulting with qualified laboratory professionals is appropriate when needed. For example, a patient was prescribed codeine, and his UDTs showed morphine as anticipated; however, the prescribing clinician suspected that the patient was also using heroin. In this case, consultation with a specialist may be warranted to look for 6-mono-acetylemorphine (6-MAM, a unique heroin metabolite) and/or the ratio of morphine to codeine.

Continue to: In summary...

 

 

In summary, UDTs are important tools to use in general psychiatry practice, especially when prescribing controlled substances. To use UDTs effectively, it is essential to possess knowledge of drug metabolism and the limitations of these tests. All immunoassay results should be considered as presumptive, and confirmatory tests are often needed for making treatment decisions. Many clinicians are unlikely to possess all the knowledge needed to correctly interpret UDTs, and in some cases, communication with qualified laboratory professionals may be necessary. In addition, the patient’s history and clinical presentation, collateral information, and data from prescription drug monitoring programs are all important factors to consider.

The cost of UDTs, variable insurance coverage, and a lack of on-site laboratory services can be deterrents to implementing UDTs as recommended. These factors vary significantly across regions, facilities, and insurance providers (see Related Resources). If faced with these issues and you expect to often need UDTs in your practice, consider using point-of-care UDTs as an alternative to improve access, convenience, and possibly cost.

 

Bottom Line

Urine drug tests (UDTs) should be standard clinical practice when prescribing controlled substances and treating patients with substance use disorders in the outpatient setting. Clinicians need to be knowledgeable about the limitations of UDTs, drug metabolism, and relevant patient history to interpret UDTs proficiently for optimal patient care. Consult laboratory specialists when needed to help interpret the results.

Related Resources

Drug Brand Names

Alprazolam • Xanax
Amphetamine • Adderall
Atomoxetine • Strattera
Buprenorphine • Subutex
Buprenorphine/naloxone • Suboxone, Zubsolv
Bupropion • Wellbutrin, Zyban
Chlordiazepoxide • Librium
Chlorpromazine • Thorazine
Clonazepam • Klonopin
Desipramine • Norpramin
Dextroamphetamine • Dexedrine, ProCentra
Diazepam • Valium
Doxepin • Silenor
Dronabinol • Marinol
Efavirenz • Sustiva
Ephedrine • Akovaz
Fentanyl • Actiq, Duragesic
Flurazepam • Dalmane
Hydrocodone • Hysingla, Zohydro ER
Hydromorphone • Dilaudid, Exalgo
Labetalol • Normodyne, Trandate
Lamotrigine • Lamictal
Lisdexamfetamine • Vyvanse
Lithium • Eskalith, Lithobid
Lorazepam • Ativan
Meperidine • Demerol
Metformin • Fortamet, Glucophage
Methadone • Dolophine, Methadose
Methylphenidate • Ritalin
Midazolam • Versed
Morphine • Kadian, MorphaBond
Nabilone • Cesamet
Naltrexone • Vivitrol
Oxaprozin • Daypro
Oxazepam • Serax
Oxycodone • Oxycontin
Oxymorphone • Opana
Phentermine • Adipex-P, Ionamin
Promethazine • Phenergan
Quetiapine • Seroquel
Ranitidine • Zantac
Rifampicin • Rifadin
Selegiline • Eldepryl, Zelapar
Sertraline • Zoloft
Temazepam • Restoril
Thioridazine • Mellaril
Tramadol • Conzip, Ultram
Trazodone • Desyrel
Triazolam • Halcion
Venlafaxine • Effexor
Verapamil • Calan, Verelan
Zolpidem • Ambien

References

1. Passik SD, Schreiber J, Kirsh KL, et al. A chart review of the ordering and documentation of urine toxicology screens in a cancer center: do they influence patient management? J Pain Symptom Manag. 2000;19(1):40-44.
2. Arthur JA, Edwards T, Lu Z, et al. Frequency, predictors, and outcomes of urine drug testing among patients with advanced cancer on chronic opioid therapy at an outpatient supportive care clinic. Cancer. 2016;122(23):3732-3739.
3. Suzuki JM, Garayalde SM, Dodoo MM, et al. Psychiatry residents’ and fellows’ confidence and knowledge in interpreting urine drug testing results related to opioids. Subst Abus. 2018;39(4):518-521.
4. Reisfield GM, Bertholf R, Barkin RL, et al. Urine drug test interpretation: what do physicians know? J Opioid Manag. 2007;3(2):80-86.
5. Kirsh KL, Baxter LE, Rzetelny A, et al. A survey of ASAM members’ knowledge, attitudes, and practices in urine drug testing. J Addict Med. 2015;9(5):399-404.
6. Morasco BJ, Krebs EE, Adams MH, et al. Clinician response to aberrant urine drug test results of patients prescribed opioid therapy for chronic pain. Clin J Pain. 2019;35(1):1-6.
7. Liu RH. Comparison of common immunoassay kits for effective application in workplace drug urinalysis. Forensic Sci Rev. 1994;6(1):19-57.
8. Jannetto PJ, Fitzgerald RL. Effective use of mass spectrometry in the clinical laboratory. Clin Chem. 2016;62(1):92-98.
9. American Society of Addiction Medicine. Resources: ASAM releases white paper on drug testing. https://www.asam.org/resources/publications/magazine/read/article/2013/12/16/asam-releases-white-paper-on-drug-testing. Published December 16, 2019. Accessed June 25, 2019.
10. Fishbain DA, Cutler RB, Rosomoff HL, et al. Validity of self-reported drug use in chronic pain patients. Clin J Pain. 1999;15(3):184-191.
11. Michna E, Jamison RN, Pham LD, et al. Urine toxicology screening among chronic pain patients on opioid therapy: Frequency and predictability of abnormal findings. Clin J Pain. 2007;23(2):173-179.
12. Dowell D, Haegerich TM, Chou R. CDC guideline for prescribing opioids for chronic pain--United States, 2016. JAMA. 2016;315(15):1624-1645.
13. Chou R. 2009 clinical guidelines from the American Pain Society and the American Academy of Pain medicine on the use of chronic opioid therapy in chronic noncancer pain: what are the key messages for clinical practice? Pol Arch Med Wewn. 2009;119(7-8):469-477.
14. Mihic SJ, Harris RA. Hypnotics and sedatives. In: Brunton LL, Chabner BA, Knollmann BC, eds. Goodman & Gilman’s the pharmacological basis of therapeutics. 13th ed. New York, NY: McGrawHill Medical; 2017:343-344.
15. DePriest AZ, Puet BL, Holt AC, et al. Metabolism and disposition of prescription opioids: a review. Forensic Sci Rev. 2015;27(2):115-145.
16. Tenore PL. Advanced urine toxicology testing. J Addict Dis. 2010;29(4):436-448.
17. Brahm NC, Yeager LL, Fox MD, et al. Commonly prescribed medications and potential false-positive urine drug screens. Am J Health Syst Pharm. 2010;67(16):1344-1350.
18. Saitman A, Park HD, Fitzgerald RL. False-positive interferences of common urine drug screen immunoassays: a review. J Anal Toxicol. 2014;38(7):387-396.
19. Moeller KE, Kissack JC, Atayee RS, et al. Clinical interpretation of urine drug tests: what clinicians need to know about urine drug screens. Mayo Clin Proc. 2017;92(5):774-796.
20. Nelson ZJ, Stellpflug SJ, Engebretsen KM. What can a urine drug screening immunoassay really tell us? J Pharm Pract. 2016;29(5):516-526.
21. Reisfield GM, Goldberger BA, Bertholf RL. ‘False-positive’ and ‘false-negative’ test results in clinical urine drug testing. Bioanalysis. 2009;1(5):937-952.
22. Poklis A, Moore KA. Response of EMIT amphetamine immunoassays to urinary desoxyephedrine following Vicks inhaler use. Ther Drug Monit. 1995;17(1):89-94.
23. ElSohly MA, Feng S, Murphy TP, et al. Identification and quantitation of 11-nor-delta9-tetrahydrocannabivarin-9-carboxylic acid, a major metabolite of delta9-tetrahydrocannabivarin. J Anal Toxicol. 2001;25(6):476-480.
24. Selavka CM. Poppy seed ingestion as a contributing factor to opiate-positive urinalysis results: the pacific perspective. J Forensic Sci. 1991;36(3):685-696.
25. Jaffee WB, Trucco E, Levy S, et al. Is this urine really negative? A systematic review of tampering methods in urine drug screening and testing. J Subst Abuse Treat. 2007;33(1):33-42.
26. Fraser AD, Worth D. Urinary excretion profiles of 11-nor-9-carboxy-delta9-tetrahydrocannabinol: a delta9-thccooh to creatinine ratio study. J Anal Toxicol. 1999;23(6):531-534.
27. Holt SR, Donroe JH, Cavallo DA, et al. Addressing discordant quantitative urine buprenorphine and norbuprenorphine levels: case examples in opioid use disorder. Drug Alcohol Depend. 2018;186:171-174.
28. Accurso AJ, Lee JD, McNeely J. High prevalence of urine tampering in an office-based opioid treatment practice detected by evaluating the norbuprenorphine to buprenorphine ratio. J Subst Abuse Treat. 2017;83:62-67.

References

1. Passik SD, Schreiber J, Kirsh KL, et al. A chart review of the ordering and documentation of urine toxicology screens in a cancer center: do they influence patient management? J Pain Symptom Manag. 2000;19(1):40-44.
2. Arthur JA, Edwards T, Lu Z, et al. Frequency, predictors, and outcomes of urine drug testing among patients with advanced cancer on chronic opioid therapy at an outpatient supportive care clinic. Cancer. 2016;122(23):3732-3739.
3. Suzuki JM, Garayalde SM, Dodoo MM, et al. Psychiatry residents’ and fellows’ confidence and knowledge in interpreting urine drug testing results related to opioids. Subst Abus. 2018;39(4):518-521.
4. Reisfield GM, Bertholf R, Barkin RL, et al. Urine drug test interpretation: what do physicians know? J Opioid Manag. 2007;3(2):80-86.
5. Kirsh KL, Baxter LE, Rzetelny A, et al. A survey of ASAM members’ knowledge, attitudes, and practices in urine drug testing. J Addict Med. 2015;9(5):399-404.
6. Morasco BJ, Krebs EE, Adams MH, et al. Clinician response to aberrant urine drug test results of patients prescribed opioid therapy for chronic pain. Clin J Pain. 2019;35(1):1-6.
7. Liu RH. Comparison of common immunoassay kits for effective application in workplace drug urinalysis. Forensic Sci Rev. 1994;6(1):19-57.
8. Jannetto PJ, Fitzgerald RL. Effective use of mass spectrometry in the clinical laboratory. Clin Chem. 2016;62(1):92-98.
9. American Society of Addiction Medicine. Resources: ASAM releases white paper on drug testing. https://www.asam.org/resources/publications/magazine/read/article/2013/12/16/asam-releases-white-paper-on-drug-testing. Published December 16, 2019. Accessed June 25, 2019.
10. Fishbain DA, Cutler RB, Rosomoff HL, et al. Validity of self-reported drug use in chronic pain patients. Clin J Pain. 1999;15(3):184-191.
11. Michna E, Jamison RN, Pham LD, et al. Urine toxicology screening among chronic pain patients on opioid therapy: Frequency and predictability of abnormal findings. Clin J Pain. 2007;23(2):173-179.
12. Dowell D, Haegerich TM, Chou R. CDC guideline for prescribing opioids for chronic pain--United States, 2016. JAMA. 2016;315(15):1624-1645.
13. Chou R. 2009 clinical guidelines from the American Pain Society and the American Academy of Pain medicine on the use of chronic opioid therapy in chronic noncancer pain: what are the key messages for clinical practice? Pol Arch Med Wewn. 2009;119(7-8):469-477.
14. Mihic SJ, Harris RA. Hypnotics and sedatives. In: Brunton LL, Chabner BA, Knollmann BC, eds. Goodman & Gilman’s the pharmacological basis of therapeutics. 13th ed. New York, NY: McGrawHill Medical; 2017:343-344.
15. DePriest AZ, Puet BL, Holt AC, et al. Metabolism and disposition of prescription opioids: a review. Forensic Sci Rev. 2015;27(2):115-145.
16. Tenore PL. Advanced urine toxicology testing. J Addict Dis. 2010;29(4):436-448.
17. Brahm NC, Yeager LL, Fox MD, et al. Commonly prescribed medications and potential false-positive urine drug screens. Am J Health Syst Pharm. 2010;67(16):1344-1350.
18. Saitman A, Park HD, Fitzgerald RL. False-positive interferences of common urine drug screen immunoassays: a review. J Anal Toxicol. 2014;38(7):387-396.
19. Moeller KE, Kissack JC, Atayee RS, et al. Clinical interpretation of urine drug tests: what clinicians need to know about urine drug screens. Mayo Clin Proc. 2017;92(5):774-796.
20. Nelson ZJ, Stellpflug SJ, Engebretsen KM. What can a urine drug screening immunoassay really tell us? J Pharm Pract. 2016;29(5):516-526.
21. Reisfield GM, Goldberger BA, Bertholf RL. ‘False-positive’ and ‘false-negative’ test results in clinical urine drug testing. Bioanalysis. 2009;1(5):937-952.
22. Poklis A, Moore KA. Response of EMIT amphetamine immunoassays to urinary desoxyephedrine following Vicks inhaler use. Ther Drug Monit. 1995;17(1):89-94.
23. ElSohly MA, Feng S, Murphy TP, et al. Identification and quantitation of 11-nor-delta9-tetrahydrocannabivarin-9-carboxylic acid, a major metabolite of delta9-tetrahydrocannabivarin. J Anal Toxicol. 2001;25(6):476-480.
24. Selavka CM. Poppy seed ingestion as a contributing factor to opiate-positive urinalysis results: the pacific perspective. J Forensic Sci. 1991;36(3):685-696.
25. Jaffee WB, Trucco E, Levy S, et al. Is this urine really negative? A systematic review of tampering methods in urine drug screening and testing. J Subst Abuse Treat. 2007;33(1):33-42.
26. Fraser AD, Worth D. Urinary excretion profiles of 11-nor-9-carboxy-delta9-tetrahydrocannabinol: a delta9-thccooh to creatinine ratio study. J Anal Toxicol. 1999;23(6):531-534.
27. Holt SR, Donroe JH, Cavallo DA, et al. Addressing discordant quantitative urine buprenorphine and norbuprenorphine levels: case examples in opioid use disorder. Drug Alcohol Depend. 2018;186:171-174.
28. Accurso AJ, Lee JD, McNeely J. High prevalence of urine tampering in an office-based opioid treatment practice detected by evaluating the norbuprenorphine to buprenorphine ratio. J Subst Abuse Treat. 2017;83:62-67.

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Strategies for improving ADHD medication adherence

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Strategies for improving ADHD medication adherence

Attention-deficit/hyperactivity disorder (ADHD) is the most common childhood neurodevelopmental disorder, affecting 8% to 12% of school-aged children in the United States1-3 with significant impairments that often persist into adulthood.4-8 Current guidelines recommend stimulant medication and/or behavioral therapies as first-line treatments for ADHD.9,10 There is a wealth of evidence on the efficacy of stimulants in ADHD, with the most significant effects noted on core ADHD symptoms.11,12 Additional evidence links stimulants to decreased long-term negative outcomes, including reduced school absences and grade retention,13 as well as modestly but significantly improved reading and math scores.14 Other studies have reported that individuals with ADHD who receive medication have decreased criminality,15,16 motor vehicle accidents,17,18 injuries,19 substance abuse,20-22 and risk for subsequent and concurrent depression.23 Therefore, the evidence suggests that consistent medication treatment helps improve outcomes for individuals with ADHD.

Caregiver/family and child/adolescent factors associated with nonadherence to ADHD medication and strategies to improve adherence

Adherence is defined as “the extent to which a person’s behavior (eg, taking medication) corresponds with agreed recommendations from a clinician.”24 Unfortunately, pediatric ADHD medication adherence has been found to be poor (approximately 64%).25-30 Nonadherence to ADHD medication has been linked to multiple factors, including caregiver/family and child/adolescent factors (Table 1), medication-related factors (Table 2), and health care/system factors (Table 3). Understanding and addressing these factors is essential to maximizing long-term outcomes. In this article, we review the factors associated with nonadherence to ADHD medication, and outline strategies to improve adherence.

Medication factors associated with nonadherence to ADHD medication and strategies to improve adherence

Caregiver/family characteristics

Caregiver beliefs about ADHD and their attitudes toward treatment have been associated with the initiation of and adherence to ADHD medication. For example, caregivers who view a child’s difficulties as a medical disorder that requires a biologic intervention are more likely to accept and adhere to medication.31 Similarly, caregivers who perceive ADHD medication as safe, effective, and socially acceptable are more likely to be treatment-adherent.32-35Other caregiver-related factors associated with improved ADHD medication adherence include:

  • increased caregiver knowledge about ADHD33
  • receiving an ADHD diagnosis based on a thorough diagnostic process (ie, comprehensive psychological testing)36
  • satisfaction with information about medicine
  • comfort with the treatment plan.34
 

Socioeconomic status, family functioning, and caregiver mental health diagnoses (eg, ADHD, depression) have also been linked to ADHD medication adherence. Several studies, including the Multimodal Treatment Study of Children with ADHD,11 a landmark study of stimulant medication for children with ADHD, have found an association between low income and decreased likelihood of receiving ADHD medication.2,37-39 Further, Gau et al40 found that negative caregiver-child relationships and family dysfunction were associated with poor medication adherence in children with ADHD.9 Prior studies have also shown that mothers of children with ADHD are more likely to have depression and/or anxiety,41,42 and that caregivers with a history of mental health diagnoses are more accepting of initiating medication treatment for their children.43 However, additional studies have found that caregiver mental health diagnoses decreased the likelihood of ADHD medication adherence.40,44

Health care/system factors associated with nonadherence to ADHD medication and strategies to improve adherence

Child characteristics

Child characteristics associated with decreased ADHD medication adherence include older age (eg, adolescents vs school-aged children),29,30,34,40,45-47 non-White race, Hispanic ethnicity,29,33,48-51 female gender,29,33,52 lower baseline ADHD symptom severity,30,37 and child unwillingness to take medications.34 However, prior studies have not been completely consistent about the relationship between child comorbid conditions (eg, oppositional defiant disorder [ODD], conduct disorder) and ADHD medication adherence. A few studies found that child comorbid conditions, especially ODD, mediate poor ADHD medication adherence, possibly secondary to an increased caregiver-child conflict.30,53,54 However, other studies have reported that the presence of comorbid ODD, depression, and anxiety predicted increased adherence to ADHD medications.37,46

Medication-related factors

Adverse effects of medications are the most commonly cited reason for ADHD medication nonadherence.5,33,54-56 The adverse effects most often linked to nonadherence are reduced weight/appetite, increased aggressive behavior/irritability, and sleep difficulties.54,57 Studies comparing methylphenidates and amphetamines, including 2 recent meta-analyses, suggest that amphetamines may be less well-tolerated on average, particularly with regard to emotional lability and irritability.45,58,59 Therefore, clinicians might consider using methylphenidate-based preparations as first-line psychopharmacologic interventions in children with ADHD, as is consistent with the findings and conclusions drawn by a recent systematic review and meta-analysis of the comparative efficacy and tolerability of ADHD medications.60

On the other hand, increased ADHD medication effectiveness has been associated with improved medication adherence.5,34,54-56 Medication titration and dosing factors have also been shown to affect adherence. Specifically, adherence has been improved when ADHD medications are titrated in a systematic manner soon after starting treatment, and when families have an early first contact with a physician after starting medication (within 3 months).28 In addition, use of a simplified dose regimen has been linked to better adherence: patients who are prescribed long-acting stimulants are more likely to adhere to treatment compared with patients who take short-acting formulations.26,40,49,61-63 It is possible that long-acting stimulants increase adherence because they produce more even and sustained effects on ADHD symptoms throughout the day, compared with short-acting formulations.64 Furthermore, the inconvenience of taking multiple doses throughout the day, as well as the potential social stigma of mid-school day dosing, may negatively impact adherence to short-acting formulations.10

Continue to: Health care/system factors

 

 

Health care/system factors

Several studies have investigated the influence of health services factors on ADHD medication adherence. Specifically, limited transportation services and lack of mental health providers in the community have been linked to decreased ADHD medication adherence.47,65,66 Furthermore, limited insurance coverage and higher costs of ADHD medications, which lead to substantial out-of-pocket payments for families, have been associated with decreased likelihood of ADHD medication adherence.29,67

Clinician-related factors also can affect ADHD medication adherence. For example, a clinician’s lack knowledge of ADHD care can negatively impact ADHD medication adherence.68 Two studies have documented improved ADHD medication adherence when treatment is provided by specialists (eg, child psychiatrists) rather than by community primary care providers, possibly because specialists are more likely to provide close stimulant titration and monitoring (ie, ≥ 3 visits in the first 90 days) and use higher maximum doses.62,69 Furthermore, ADHD medication initiation and adherence are increased when patients have a strong working alliance with their clinician and trust the health care system,31,34,35 as well as when there is a match between the caregiver’s and clinician’s perception of the cause, course, and best treatment practices for a child’s ADHD.65

Strategies to improve medication adherence

A number of strategies to improve ADHD medication adherence can be derived from our knowledge of the factors that influence adherence.

Patient/family education. Unanswered questions about ADHD diagnosis, etiology, and medication adverse effects can negatively impact the ADHD treatment process. Therefore, patient/family education regarding ADHD and its management is necessary to improve medication adherence, because it helps families attain the knowledge, confidence, and motivation to manage their child’s condition.

Clinicians have an important role in educating patients about70:

  • the medications they are taking
  • why they are taking them
  • what the medications look like
  • the time of medication administration
  • the potential adverse effects
  • what to do if adverse effects occur
  • what regular testing/monitoring is necessary.

Clinicians can provide appropriate psychoeducation by sharing written materials and trusted websites with families (see Related Resources).

Behavioral strategies. Behavioral interventions have been among the most effective strategies for improving medication adherence in other chronic conditions.71 Behavioral strategies are likely to be particularly important for families of children with ADHD and comorbid conditions such as ODD because these families experience considerable caregiver-child conflict.72 Moreover, parents of children with ADHD are at higher risk for having ADHD and depression themselves,73 both of which may interfere with a parent’s ability to obtain and administer medications consistently. Thus, for these families, using a combination of psychoeducation and behavioral strategies will be necessary to affect change in attitude and behavior. Behavioral strategies that can be used to improve medication adherence include:

  • Technology-based interventions can reduce the impact of environmental barriers to adherence. For example, pharmacy automatic prescription renewal systems can reduce the likelihood of families failing to obtain ADHD medication refills. Pill reminder boxes, smartphone alerts, and setting various alarms can effectively prompt caregivers/patients to administer medication. In particular, these methods can be crucial in families for which multiple members have ADHD and its attendant difficulties with organization and task completion.
  • Caregiver training may assist families in developing specific behavioral management skills that support adherence. This training can be as straightforward as instructing caregivers on the use of positive reinforcement when teaching their children to swallow pills. It may also encompass structured behavioral interventions aimed at training caregivers to utilize rewards and consequences in order to maximize medication adherence.74

Continue to: Clinician interventions

 

 

Clinician interventions. Clinicians can use decision aids to help inform families about treatment options, promote shared decision making, and decrease uncertainty about the treatment plan75 (see Related Resources). Early titration of ADHD medications and early first contact (within months of starting medication treatment) between caregivers and clinicians, whether via in-person visit, telephone, or email, have also been related to improved adherence.28 Furthermore, clinicians can improve adherence by prescribing a simplified medication regimen (ie, long-acting formulations that provide full-day coverage). To address the negative impact of high out-of-pocket ADHD medication costs on adherence, clinicians can also prescribe generic preparations and/or “preferred” medications options on an individual patient’s formulary.

Because clinician knowledge and expertise in ADHD care has been linked to improved patient medication adherence,68 clinicians are encouraged to use the American Academy of Pediatrics (AAP) guideline for diagnosis and treatment of ADHD, which includes a supplemental process of care algorithm (last published in 2011,10 with an updated guideline anticipated in 2019), as well as the AAP/National Institute for Children’s Health Quality (NICHQ) ADHD Toolkit,76 which includes items helpful for ADHD diagnosis and treatment. The Society for Developmental and Behavioral Pediatrics is also developing a clinical practice guideline for the diagnosis and treatment of complex ADHD (ie, ADHD complicated by coexisting mental health, developmental, and/or psychosocial conditions or issues), with publication anticipated in 2019. Primary care providers can also improve their expertise in ADHD care by pursuing additional mental health–related trainings (such as those conducted by the REACH Institute).77

Because receiving ADHD care from a specialist has been shown to improve medication initiation and adherence,62,69 other strategies to address the short supply of child psychiatrists include offering incentives to medical students to pursue a career in child psychiatry (eg, loan forgiveness). Telepsychiatry and co-location of mental health specialists and primary care providers are additional innovative ways in which ADHD specialty care can be delivered to more patients.64

Finally, providing culturally-sensitive care can strengthen the clinician-caregiver relationship and promote adherence to treatment. For example, clinicians can partner with local groups to increase their understanding of how different racial/ethnic groups perceive ADHD and its treatment.64

Peer support models. Peers are credible role models who have a valued role in facilitating the use of mental health services by empowering families and enhancing service satisfaction.78 In several communities in the United States, peer models using family advocates have been introduced.79 Family advocates are typically caregivers of children who have special needs or have been involved in the mental health system. Their perspective—as peers and first-hand consumers of the health care and/or mental health system—can make them powerful and effective coaches to families of children with ADHD. By helping families to navigate ADHD care systems successfully, family advocates can play an important role in enhancing ADHD medication adherence, although further investigation is needed. In addition, the stigma around ADHD medication use, which adversely impacts adherence, can be mitigated if caregivers participate in organized ADHD-related support groups (eg, Children and Adults with ADHD [CHADD]).

Continue to: Health disparity-reducing interventions

 

 

Health disparity-reducing interventions. Successful health disparity-reducing interventions—such as those developed to enhance care of other chronic disorders including asthma and diabetes—can be applied to improve ADHD care. These interventions, which include medical-legal partnerships (eg, between clinicians, social workers, legal advocates, and community partners) in primary care centers, have been shown to improve health insurance coverage and therefore health care access.80,81 Although some hardships linked to nonadherence (eg, low socioeconomic status) may not be amenable to health care–related interventions, screening for these hardships can identify children who are most at risk for poor adherence. This would alert clinicians to proactively identify barriers to adherence and implement mitigation strategies. This might include developing more streamlined, easier-to-follow management plans for these patients, such as those that can be delivered through pharmacist-physician collaborative programs82 and school-based therapy programs.83-85

Bottom Line

Suboptimal adherence to medications for attention-deficit/hyperactivity disorder (ADHD) can be addressed through patient/family education, behavioral strategies, clinician interventions, peer support models, and health disparity-reducing interventions. By improving ADHD treatment adherence, these interventions have the potential to maximize long-term outcomes.

Related Resources

Drug Brand Name

Methylphenidate • Concerta, Ritalin

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62. Olfson M, Marcus S, Wan G. Stimulant dosing for children with ADHD: a medical claims analysis. J Am Acad Child Adolesc Psychiatry. 2009;48(1):51-59.
63. Jensen PS, Arnold LE, Swanson JM, et al. 3-year follow-up of the NIMH MTA study. J Am Acad Child Adolesc Psychiatry. 2007;46(8):989-1002.
64. Van Cleave J, Leslie LK. Approaching ADHD as a chronic condition: implications for long-term adherence. Pediatr Ann. 2008;37(1):19-26.
65. Leslie LK, Plemmons D, Monn AR, et al. Investigating ADHD treatment trajectories: listening to families’ stories about medication use. J Dev Behav Pediatr. 2007;28(3):179-188.
66. Fiks AG, Mayne S, Localio AR, et al. Shared decision making and behavioral impairment: a national study among children with special health care needs. BMC Pediatr. 2012;12:153.
67. Stevens J, Harman JS, Kelleher KJ. Race/ethnicity and insurance status as factors associated with ADHD treatment patterns. J Child Adolesc Psychopharmacol. 2005;15(1):88-96.
68. Charach A, Skyba A, Cook L, et al. Using stimulant medication for children with ADHD: what do parents say? A brief report. J Can Acad Child Adolesc Psychiatry. 2006;15(2):75-83.
69. Chen CY, Gerhard T, Winterstein AG. Determinants of initial pharmacological treatment for youths with attention-deficit/hyperactivity disorder. J Child Adolescent Psychopharmacol. 2009;19(2):187-195.
70. National Council on Patient Information and Education. Enhancing prescription medication adherence: a national action plan. http://www.bemedwise.org/docs/enhancingprescriptionmedicineadherence.pdf. Published August 2007. Accessed July 22, 2019.
71. Kahana S, Drotar D, Frazier T. Meta-analysis of psychological interventions to promote adherence to treatment in pediatric chronic health conditions. J Pediatr Psychol. 2008;33(6):590-611.
72. Johnston C, Mash EJ. Families of children with attention-deficit/hyperactivity disorder: review and recommendations for future research. Clin Child Fam Psychol Rev. 2001;4(3):183-207.
73. Chronis AM, Lahey BB, Pelham WE Jr., et al. Psychopathology and substance abuse in parents of young children with attention-deficit/hyperactivity disorder. J Am Acad Child Adolesc Psychiatry. 2003;42(12):1424-1432.
74. Chacko A, Newcorn JH, Feirsen N, et al. Improving medication adherence in chronic pediatric health conditions: a focus on ADHD in youth. Curr Pharm Des. 2010;16(22):2416-2423.
75. Brinkman WB, Hartl Majcher J, Polling LM, et al. Shared decision-making to improve attention-deficit hyperactivity disorder care. Patient Educ Couns. 2013;93(1):95-101.
76. American Academy of Pediatrics. Caring for children with ADHD: a resource toolkit for clinicians. 2nd ed. https://www.aap.org/en-us/pubserv/adhd2/Pages/default.aspx. Published 2011. Accessed July 22, 2019.
77. The REACH Institute. Course dates and registration. http://www.thereachinstitute.org/services/for-primary-care-practitioners/training-dates-and-registration. Accessed July 22, 2019.
78. Sells D, Davidson L, Jewell C, et al. The treatment relationship in peer-based and regular case management for clients with severe mental illness. Psychiatr Serv. 2006;57(8):1179-1184.
79. Hoagwood KE, Green E, Kelleher K, et al. Family advocacy, support and education in children’s mental health: results of a national survey. Adm Policy Ment Health. 2008;35(1-2):73-83.
80. Klein MD, Beck AF, Henize AW, et al. Doctors and lawyers collaborating to HeLP children—outcomes from a successful partnership between professions. J Health Care Poor Underserved. 2013;24(3):1063-1073.
81. Weintraub D, Rodgers MA, Botcheva L, et al. Pilot study of medical-legal partnership to address social and legal needs of patients. J Health Care Poor Underserved. 2010;21(Suppl 2):157-168.
82. Bradley CL, Luder HR, Beck AF, et al. Pediatric asthma medication therapy management through community pharmacy and primary care collaboration. J Am Pharm Assoc (2003). 2016;56(4):455-460.
83. Noyes K, Bajorska A, Fisher S, et al. Cost-effectiveness of the school-based asthma therapy (SBAT) program. Pediatrics. 2013;131(3):e709-e717.
84. Halterman JS, Fagnano M, Montes G, et al. The school-based preventive asthma care trial: results of a pilot study. J Pediatr. 2012;161(6):1109-1115.
85. Halterman JS, Szilagyi PG, Fisher SG, et al. Randomized controlled trial to improve care for urban children with asthma: results of the school-based asthma therapy trial. Arch Pediatr Adolesc Med. 2011;165(3):262-268.

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William B. Brinkman, MD, MEd, MSc
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Department of Pediatrics
Division of General and Community Pediatrics

Tanya E. Froehlich, MD, MS
Associate Professor
Department of Pediatrics
Division of Developmental and Behavioral Pediatrics

• • • •

Cincinnati Children’s Hospital Medical Center University of Cincinnati Cincinnati, Ohio

Disclosures
The authors report no financial relationships with any companies whose products are mentioned in this article, or with manufacturers of competing products.

Supported by the National Institute of Mental Health R01 MH105425 (T.F.), R01 MH105425-S1 (T.F.), and K23 MH083027 (W.B.).

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Department of Pediatrics Division of Developmental and Behavioral Pediatrics

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Department of Pediatrics
Division of General and Community Pediatrics

Tanya E. Froehlich, MD, MS
Associate Professor
Department of Pediatrics
Division of Developmental and Behavioral Pediatrics

• • • •

Cincinnati Children’s Hospital Medical Center University of Cincinnati Cincinnati, Ohio

Disclosures
The authors report no financial relationships with any companies whose products are mentioned in this article, or with manufacturers of competing products.

Supported by the National Institute of Mental Health R01 MH105425 (T.F.), R01 MH105425-S1 (T.F.), and K23 MH083027 (W.B.).

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Kelly I. Kamimura-Nishimura, MD, MS
Assistant Professor
Department of Pediatrics Division of Developmental and Behavioral Pediatrics

William B. Brinkman, MD, MEd, MSc
Professor
Department of Pediatrics
Division of General and Community Pediatrics

Tanya E. Froehlich, MD, MS
Associate Professor
Department of Pediatrics
Division of Developmental and Behavioral Pediatrics

• • • •

Cincinnati Children’s Hospital Medical Center University of Cincinnati Cincinnati, Ohio

Disclosures
The authors report no financial relationships with any companies whose products are mentioned in this article, or with manufacturers of competing products.

Supported by the National Institute of Mental Health R01 MH105425 (T.F.), R01 MH105425-S1 (T.F.), and K23 MH083027 (W.B.).

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Attention-deficit/hyperactivity disorder (ADHD) is the most common childhood neurodevelopmental disorder, affecting 8% to 12% of school-aged children in the United States1-3 with significant impairments that often persist into adulthood.4-8 Current guidelines recommend stimulant medication and/or behavioral therapies as first-line treatments for ADHD.9,10 There is a wealth of evidence on the efficacy of stimulants in ADHD, with the most significant effects noted on core ADHD symptoms.11,12 Additional evidence links stimulants to decreased long-term negative outcomes, including reduced school absences and grade retention,13 as well as modestly but significantly improved reading and math scores.14 Other studies have reported that individuals with ADHD who receive medication have decreased criminality,15,16 motor vehicle accidents,17,18 injuries,19 substance abuse,20-22 and risk for subsequent and concurrent depression.23 Therefore, the evidence suggests that consistent medication treatment helps improve outcomes for individuals with ADHD.

Caregiver/family and child/adolescent factors associated with nonadherence to ADHD medication and strategies to improve adherence

Adherence is defined as “the extent to which a person’s behavior (eg, taking medication) corresponds with agreed recommendations from a clinician.”24 Unfortunately, pediatric ADHD medication adherence has been found to be poor (approximately 64%).25-30 Nonadherence to ADHD medication has been linked to multiple factors, including caregiver/family and child/adolescent factors (Table 1), medication-related factors (Table 2), and health care/system factors (Table 3). Understanding and addressing these factors is essential to maximizing long-term outcomes. In this article, we review the factors associated with nonadherence to ADHD medication, and outline strategies to improve adherence.

Medication factors associated with nonadherence to ADHD medication and strategies to improve adherence

Caregiver/family characteristics

Caregiver beliefs about ADHD and their attitudes toward treatment have been associated with the initiation of and adherence to ADHD medication. For example, caregivers who view a child’s difficulties as a medical disorder that requires a biologic intervention are more likely to accept and adhere to medication.31 Similarly, caregivers who perceive ADHD medication as safe, effective, and socially acceptable are more likely to be treatment-adherent.32-35Other caregiver-related factors associated with improved ADHD medication adherence include:

  • increased caregiver knowledge about ADHD33
  • receiving an ADHD diagnosis based on a thorough diagnostic process (ie, comprehensive psychological testing)36
  • satisfaction with information about medicine
  • comfort with the treatment plan.34
 

Socioeconomic status, family functioning, and caregiver mental health diagnoses (eg, ADHD, depression) have also been linked to ADHD medication adherence. Several studies, including the Multimodal Treatment Study of Children with ADHD,11 a landmark study of stimulant medication for children with ADHD, have found an association between low income and decreased likelihood of receiving ADHD medication.2,37-39 Further, Gau et al40 found that negative caregiver-child relationships and family dysfunction were associated with poor medication adherence in children with ADHD.9 Prior studies have also shown that mothers of children with ADHD are more likely to have depression and/or anxiety,41,42 and that caregivers with a history of mental health diagnoses are more accepting of initiating medication treatment for their children.43 However, additional studies have found that caregiver mental health diagnoses decreased the likelihood of ADHD medication adherence.40,44

Health care/system factors associated with nonadherence to ADHD medication and strategies to improve adherence

Child characteristics

Child characteristics associated with decreased ADHD medication adherence include older age (eg, adolescents vs school-aged children),29,30,34,40,45-47 non-White race, Hispanic ethnicity,29,33,48-51 female gender,29,33,52 lower baseline ADHD symptom severity,30,37 and child unwillingness to take medications.34 However, prior studies have not been completely consistent about the relationship between child comorbid conditions (eg, oppositional defiant disorder [ODD], conduct disorder) and ADHD medication adherence. A few studies found that child comorbid conditions, especially ODD, mediate poor ADHD medication adherence, possibly secondary to an increased caregiver-child conflict.30,53,54 However, other studies have reported that the presence of comorbid ODD, depression, and anxiety predicted increased adherence to ADHD medications.37,46

Medication-related factors

Adverse effects of medications are the most commonly cited reason for ADHD medication nonadherence.5,33,54-56 The adverse effects most often linked to nonadherence are reduced weight/appetite, increased aggressive behavior/irritability, and sleep difficulties.54,57 Studies comparing methylphenidates and amphetamines, including 2 recent meta-analyses, suggest that amphetamines may be less well-tolerated on average, particularly with regard to emotional lability and irritability.45,58,59 Therefore, clinicians might consider using methylphenidate-based preparations as first-line psychopharmacologic interventions in children with ADHD, as is consistent with the findings and conclusions drawn by a recent systematic review and meta-analysis of the comparative efficacy and tolerability of ADHD medications.60

On the other hand, increased ADHD medication effectiveness has been associated with improved medication adherence.5,34,54-56 Medication titration and dosing factors have also been shown to affect adherence. Specifically, adherence has been improved when ADHD medications are titrated in a systematic manner soon after starting treatment, and when families have an early first contact with a physician after starting medication (within 3 months).28 In addition, use of a simplified dose regimen has been linked to better adherence: patients who are prescribed long-acting stimulants are more likely to adhere to treatment compared with patients who take short-acting formulations.26,40,49,61-63 It is possible that long-acting stimulants increase adherence because they produce more even and sustained effects on ADHD symptoms throughout the day, compared with short-acting formulations.64 Furthermore, the inconvenience of taking multiple doses throughout the day, as well as the potential social stigma of mid-school day dosing, may negatively impact adherence to short-acting formulations.10

Continue to: Health care/system factors

 

 

Health care/system factors

Several studies have investigated the influence of health services factors on ADHD medication adherence. Specifically, limited transportation services and lack of mental health providers in the community have been linked to decreased ADHD medication adherence.47,65,66 Furthermore, limited insurance coverage and higher costs of ADHD medications, which lead to substantial out-of-pocket payments for families, have been associated with decreased likelihood of ADHD medication adherence.29,67

Clinician-related factors also can affect ADHD medication adherence. For example, a clinician’s lack knowledge of ADHD care can negatively impact ADHD medication adherence.68 Two studies have documented improved ADHD medication adherence when treatment is provided by specialists (eg, child psychiatrists) rather than by community primary care providers, possibly because specialists are more likely to provide close stimulant titration and monitoring (ie, ≥ 3 visits in the first 90 days) and use higher maximum doses.62,69 Furthermore, ADHD medication initiation and adherence are increased when patients have a strong working alliance with their clinician and trust the health care system,31,34,35 as well as when there is a match between the caregiver’s and clinician’s perception of the cause, course, and best treatment practices for a child’s ADHD.65

Strategies to improve medication adherence

A number of strategies to improve ADHD medication adherence can be derived from our knowledge of the factors that influence adherence.

Patient/family education. Unanswered questions about ADHD diagnosis, etiology, and medication adverse effects can negatively impact the ADHD treatment process. Therefore, patient/family education regarding ADHD and its management is necessary to improve medication adherence, because it helps families attain the knowledge, confidence, and motivation to manage their child’s condition.

Clinicians have an important role in educating patients about70:

  • the medications they are taking
  • why they are taking them
  • what the medications look like
  • the time of medication administration
  • the potential adverse effects
  • what to do if adverse effects occur
  • what regular testing/monitoring is necessary.

Clinicians can provide appropriate psychoeducation by sharing written materials and trusted websites with families (see Related Resources).

Behavioral strategies. Behavioral interventions have been among the most effective strategies for improving medication adherence in other chronic conditions.71 Behavioral strategies are likely to be particularly important for families of children with ADHD and comorbid conditions such as ODD because these families experience considerable caregiver-child conflict.72 Moreover, parents of children with ADHD are at higher risk for having ADHD and depression themselves,73 both of which may interfere with a parent’s ability to obtain and administer medications consistently. Thus, for these families, using a combination of psychoeducation and behavioral strategies will be necessary to affect change in attitude and behavior. Behavioral strategies that can be used to improve medication adherence include:

  • Technology-based interventions can reduce the impact of environmental barriers to adherence. For example, pharmacy automatic prescription renewal systems can reduce the likelihood of families failing to obtain ADHD medication refills. Pill reminder boxes, smartphone alerts, and setting various alarms can effectively prompt caregivers/patients to administer medication. In particular, these methods can be crucial in families for which multiple members have ADHD and its attendant difficulties with organization and task completion.
  • Caregiver training may assist families in developing specific behavioral management skills that support adherence. This training can be as straightforward as instructing caregivers on the use of positive reinforcement when teaching their children to swallow pills. It may also encompass structured behavioral interventions aimed at training caregivers to utilize rewards and consequences in order to maximize medication adherence.74

Continue to: Clinician interventions

 

 

Clinician interventions. Clinicians can use decision aids to help inform families about treatment options, promote shared decision making, and decrease uncertainty about the treatment plan75 (see Related Resources). Early titration of ADHD medications and early first contact (within months of starting medication treatment) between caregivers and clinicians, whether via in-person visit, telephone, or email, have also been related to improved adherence.28 Furthermore, clinicians can improve adherence by prescribing a simplified medication regimen (ie, long-acting formulations that provide full-day coverage). To address the negative impact of high out-of-pocket ADHD medication costs on adherence, clinicians can also prescribe generic preparations and/or “preferred” medications options on an individual patient’s formulary.

Because clinician knowledge and expertise in ADHD care has been linked to improved patient medication adherence,68 clinicians are encouraged to use the American Academy of Pediatrics (AAP) guideline for diagnosis and treatment of ADHD, which includes a supplemental process of care algorithm (last published in 2011,10 with an updated guideline anticipated in 2019), as well as the AAP/National Institute for Children’s Health Quality (NICHQ) ADHD Toolkit,76 which includes items helpful for ADHD diagnosis and treatment. The Society for Developmental and Behavioral Pediatrics is also developing a clinical practice guideline for the diagnosis and treatment of complex ADHD (ie, ADHD complicated by coexisting mental health, developmental, and/or psychosocial conditions or issues), with publication anticipated in 2019. Primary care providers can also improve their expertise in ADHD care by pursuing additional mental health–related trainings (such as those conducted by the REACH Institute).77

Because receiving ADHD care from a specialist has been shown to improve medication initiation and adherence,62,69 other strategies to address the short supply of child psychiatrists include offering incentives to medical students to pursue a career in child psychiatry (eg, loan forgiveness). Telepsychiatry and co-location of mental health specialists and primary care providers are additional innovative ways in which ADHD specialty care can be delivered to more patients.64

Finally, providing culturally-sensitive care can strengthen the clinician-caregiver relationship and promote adherence to treatment. For example, clinicians can partner with local groups to increase their understanding of how different racial/ethnic groups perceive ADHD and its treatment.64

Peer support models. Peers are credible role models who have a valued role in facilitating the use of mental health services by empowering families and enhancing service satisfaction.78 In several communities in the United States, peer models using family advocates have been introduced.79 Family advocates are typically caregivers of children who have special needs or have been involved in the mental health system. Their perspective—as peers and first-hand consumers of the health care and/or mental health system—can make them powerful and effective coaches to families of children with ADHD. By helping families to navigate ADHD care systems successfully, family advocates can play an important role in enhancing ADHD medication adherence, although further investigation is needed. In addition, the stigma around ADHD medication use, which adversely impacts adherence, can be mitigated if caregivers participate in organized ADHD-related support groups (eg, Children and Adults with ADHD [CHADD]).

Continue to: Health disparity-reducing interventions

 

 

Health disparity-reducing interventions. Successful health disparity-reducing interventions—such as those developed to enhance care of other chronic disorders including asthma and diabetes—can be applied to improve ADHD care. These interventions, which include medical-legal partnerships (eg, between clinicians, social workers, legal advocates, and community partners) in primary care centers, have been shown to improve health insurance coverage and therefore health care access.80,81 Although some hardships linked to nonadherence (eg, low socioeconomic status) may not be amenable to health care–related interventions, screening for these hardships can identify children who are most at risk for poor adherence. This would alert clinicians to proactively identify barriers to adherence and implement mitigation strategies. This might include developing more streamlined, easier-to-follow management plans for these patients, such as those that can be delivered through pharmacist-physician collaborative programs82 and school-based therapy programs.83-85

Bottom Line

Suboptimal adherence to medications for attention-deficit/hyperactivity disorder (ADHD) can be addressed through patient/family education, behavioral strategies, clinician interventions, peer support models, and health disparity-reducing interventions. By improving ADHD treatment adherence, these interventions have the potential to maximize long-term outcomes.

Related Resources

Drug Brand Name

Methylphenidate • Concerta, Ritalin

Attention-deficit/hyperactivity disorder (ADHD) is the most common childhood neurodevelopmental disorder, affecting 8% to 12% of school-aged children in the United States1-3 with significant impairments that often persist into adulthood.4-8 Current guidelines recommend stimulant medication and/or behavioral therapies as first-line treatments for ADHD.9,10 There is a wealth of evidence on the efficacy of stimulants in ADHD, with the most significant effects noted on core ADHD symptoms.11,12 Additional evidence links stimulants to decreased long-term negative outcomes, including reduced school absences and grade retention,13 as well as modestly but significantly improved reading and math scores.14 Other studies have reported that individuals with ADHD who receive medication have decreased criminality,15,16 motor vehicle accidents,17,18 injuries,19 substance abuse,20-22 and risk for subsequent and concurrent depression.23 Therefore, the evidence suggests that consistent medication treatment helps improve outcomes for individuals with ADHD.

Caregiver/family and child/adolescent factors associated with nonadherence to ADHD medication and strategies to improve adherence

Adherence is defined as “the extent to which a person’s behavior (eg, taking medication) corresponds with agreed recommendations from a clinician.”24 Unfortunately, pediatric ADHD medication adherence has been found to be poor (approximately 64%).25-30 Nonadherence to ADHD medication has been linked to multiple factors, including caregiver/family and child/adolescent factors (Table 1), medication-related factors (Table 2), and health care/system factors (Table 3). Understanding and addressing these factors is essential to maximizing long-term outcomes. In this article, we review the factors associated with nonadherence to ADHD medication, and outline strategies to improve adherence.

Medication factors associated with nonadherence to ADHD medication and strategies to improve adherence

Caregiver/family characteristics

Caregiver beliefs about ADHD and their attitudes toward treatment have been associated with the initiation of and adherence to ADHD medication. For example, caregivers who view a child’s difficulties as a medical disorder that requires a biologic intervention are more likely to accept and adhere to medication.31 Similarly, caregivers who perceive ADHD medication as safe, effective, and socially acceptable are more likely to be treatment-adherent.32-35Other caregiver-related factors associated with improved ADHD medication adherence include:

  • increased caregiver knowledge about ADHD33
  • receiving an ADHD diagnosis based on a thorough diagnostic process (ie, comprehensive psychological testing)36
  • satisfaction with information about medicine
  • comfort with the treatment plan.34
 

Socioeconomic status, family functioning, and caregiver mental health diagnoses (eg, ADHD, depression) have also been linked to ADHD medication adherence. Several studies, including the Multimodal Treatment Study of Children with ADHD,11 a landmark study of stimulant medication for children with ADHD, have found an association between low income and decreased likelihood of receiving ADHD medication.2,37-39 Further, Gau et al40 found that negative caregiver-child relationships and family dysfunction were associated with poor medication adherence in children with ADHD.9 Prior studies have also shown that mothers of children with ADHD are more likely to have depression and/or anxiety,41,42 and that caregivers with a history of mental health diagnoses are more accepting of initiating medication treatment for their children.43 However, additional studies have found that caregiver mental health diagnoses decreased the likelihood of ADHD medication adherence.40,44

Health care/system factors associated with nonadherence to ADHD medication and strategies to improve adherence

Child characteristics

Child characteristics associated with decreased ADHD medication adherence include older age (eg, adolescents vs school-aged children),29,30,34,40,45-47 non-White race, Hispanic ethnicity,29,33,48-51 female gender,29,33,52 lower baseline ADHD symptom severity,30,37 and child unwillingness to take medications.34 However, prior studies have not been completely consistent about the relationship between child comorbid conditions (eg, oppositional defiant disorder [ODD], conduct disorder) and ADHD medication adherence. A few studies found that child comorbid conditions, especially ODD, mediate poor ADHD medication adherence, possibly secondary to an increased caregiver-child conflict.30,53,54 However, other studies have reported that the presence of comorbid ODD, depression, and anxiety predicted increased adherence to ADHD medications.37,46

Medication-related factors

Adverse effects of medications are the most commonly cited reason for ADHD medication nonadherence.5,33,54-56 The adverse effects most often linked to nonadherence are reduced weight/appetite, increased aggressive behavior/irritability, and sleep difficulties.54,57 Studies comparing methylphenidates and amphetamines, including 2 recent meta-analyses, suggest that amphetamines may be less well-tolerated on average, particularly with regard to emotional lability and irritability.45,58,59 Therefore, clinicians might consider using methylphenidate-based preparations as first-line psychopharmacologic interventions in children with ADHD, as is consistent with the findings and conclusions drawn by a recent systematic review and meta-analysis of the comparative efficacy and tolerability of ADHD medications.60

On the other hand, increased ADHD medication effectiveness has been associated with improved medication adherence.5,34,54-56 Medication titration and dosing factors have also been shown to affect adherence. Specifically, adherence has been improved when ADHD medications are titrated in a systematic manner soon after starting treatment, and when families have an early first contact with a physician after starting medication (within 3 months).28 In addition, use of a simplified dose regimen has been linked to better adherence: patients who are prescribed long-acting stimulants are more likely to adhere to treatment compared with patients who take short-acting formulations.26,40,49,61-63 It is possible that long-acting stimulants increase adherence because they produce more even and sustained effects on ADHD symptoms throughout the day, compared with short-acting formulations.64 Furthermore, the inconvenience of taking multiple doses throughout the day, as well as the potential social stigma of mid-school day dosing, may negatively impact adherence to short-acting formulations.10

Continue to: Health care/system factors

 

 

Health care/system factors

Several studies have investigated the influence of health services factors on ADHD medication adherence. Specifically, limited transportation services and lack of mental health providers in the community have been linked to decreased ADHD medication adherence.47,65,66 Furthermore, limited insurance coverage and higher costs of ADHD medications, which lead to substantial out-of-pocket payments for families, have been associated with decreased likelihood of ADHD medication adherence.29,67

Clinician-related factors also can affect ADHD medication adherence. For example, a clinician’s lack knowledge of ADHD care can negatively impact ADHD medication adherence.68 Two studies have documented improved ADHD medication adherence when treatment is provided by specialists (eg, child psychiatrists) rather than by community primary care providers, possibly because specialists are more likely to provide close stimulant titration and monitoring (ie, ≥ 3 visits in the first 90 days) and use higher maximum doses.62,69 Furthermore, ADHD medication initiation and adherence are increased when patients have a strong working alliance with their clinician and trust the health care system,31,34,35 as well as when there is a match between the caregiver’s and clinician’s perception of the cause, course, and best treatment practices for a child’s ADHD.65

Strategies to improve medication adherence

A number of strategies to improve ADHD medication adherence can be derived from our knowledge of the factors that influence adherence.

Patient/family education. Unanswered questions about ADHD diagnosis, etiology, and medication adverse effects can negatively impact the ADHD treatment process. Therefore, patient/family education regarding ADHD and its management is necessary to improve medication adherence, because it helps families attain the knowledge, confidence, and motivation to manage their child’s condition.

Clinicians have an important role in educating patients about70:

  • the medications they are taking
  • why they are taking them
  • what the medications look like
  • the time of medication administration
  • the potential adverse effects
  • what to do if adverse effects occur
  • what regular testing/monitoring is necessary.

Clinicians can provide appropriate psychoeducation by sharing written materials and trusted websites with families (see Related Resources).

Behavioral strategies. Behavioral interventions have been among the most effective strategies for improving medication adherence in other chronic conditions.71 Behavioral strategies are likely to be particularly important for families of children with ADHD and comorbid conditions such as ODD because these families experience considerable caregiver-child conflict.72 Moreover, parents of children with ADHD are at higher risk for having ADHD and depression themselves,73 both of which may interfere with a parent’s ability to obtain and administer medications consistently. Thus, for these families, using a combination of psychoeducation and behavioral strategies will be necessary to affect change in attitude and behavior. Behavioral strategies that can be used to improve medication adherence include:

  • Technology-based interventions can reduce the impact of environmental barriers to adherence. For example, pharmacy automatic prescription renewal systems can reduce the likelihood of families failing to obtain ADHD medication refills. Pill reminder boxes, smartphone alerts, and setting various alarms can effectively prompt caregivers/patients to administer medication. In particular, these methods can be crucial in families for which multiple members have ADHD and its attendant difficulties with organization and task completion.
  • Caregiver training may assist families in developing specific behavioral management skills that support adherence. This training can be as straightforward as instructing caregivers on the use of positive reinforcement when teaching their children to swallow pills. It may also encompass structured behavioral interventions aimed at training caregivers to utilize rewards and consequences in order to maximize medication adherence.74

Continue to: Clinician interventions

 

 

Clinician interventions. Clinicians can use decision aids to help inform families about treatment options, promote shared decision making, and decrease uncertainty about the treatment plan75 (see Related Resources). Early titration of ADHD medications and early first contact (within months of starting medication treatment) between caregivers and clinicians, whether via in-person visit, telephone, or email, have also been related to improved adherence.28 Furthermore, clinicians can improve adherence by prescribing a simplified medication regimen (ie, long-acting formulations that provide full-day coverage). To address the negative impact of high out-of-pocket ADHD medication costs on adherence, clinicians can also prescribe generic preparations and/or “preferred” medications options on an individual patient’s formulary.

Because clinician knowledge and expertise in ADHD care has been linked to improved patient medication adherence,68 clinicians are encouraged to use the American Academy of Pediatrics (AAP) guideline for diagnosis and treatment of ADHD, which includes a supplemental process of care algorithm (last published in 2011,10 with an updated guideline anticipated in 2019), as well as the AAP/National Institute for Children’s Health Quality (NICHQ) ADHD Toolkit,76 which includes items helpful for ADHD diagnosis and treatment. The Society for Developmental and Behavioral Pediatrics is also developing a clinical practice guideline for the diagnosis and treatment of complex ADHD (ie, ADHD complicated by coexisting mental health, developmental, and/or psychosocial conditions or issues), with publication anticipated in 2019. Primary care providers can also improve their expertise in ADHD care by pursuing additional mental health–related trainings (such as those conducted by the REACH Institute).77

Because receiving ADHD care from a specialist has been shown to improve medication initiation and adherence,62,69 other strategies to address the short supply of child psychiatrists include offering incentives to medical students to pursue a career in child psychiatry (eg, loan forgiveness). Telepsychiatry and co-location of mental health specialists and primary care providers are additional innovative ways in which ADHD specialty care can be delivered to more patients.64

Finally, providing culturally-sensitive care can strengthen the clinician-caregiver relationship and promote adherence to treatment. For example, clinicians can partner with local groups to increase their understanding of how different racial/ethnic groups perceive ADHD and its treatment.64

Peer support models. Peers are credible role models who have a valued role in facilitating the use of mental health services by empowering families and enhancing service satisfaction.78 In several communities in the United States, peer models using family advocates have been introduced.79 Family advocates are typically caregivers of children who have special needs or have been involved in the mental health system. Their perspective—as peers and first-hand consumers of the health care and/or mental health system—can make them powerful and effective coaches to families of children with ADHD. By helping families to navigate ADHD care systems successfully, family advocates can play an important role in enhancing ADHD medication adherence, although further investigation is needed. In addition, the stigma around ADHD medication use, which adversely impacts adherence, can be mitigated if caregivers participate in organized ADHD-related support groups (eg, Children and Adults with ADHD [CHADD]).

Continue to: Health disparity-reducing interventions

 

 

Health disparity-reducing interventions. Successful health disparity-reducing interventions—such as those developed to enhance care of other chronic disorders including asthma and diabetes—can be applied to improve ADHD care. These interventions, which include medical-legal partnerships (eg, between clinicians, social workers, legal advocates, and community partners) in primary care centers, have been shown to improve health insurance coverage and therefore health care access.80,81 Although some hardships linked to nonadherence (eg, low socioeconomic status) may not be amenable to health care–related interventions, screening for these hardships can identify children who are most at risk for poor adherence. This would alert clinicians to proactively identify barriers to adherence and implement mitigation strategies. This might include developing more streamlined, easier-to-follow management plans for these patients, such as those that can be delivered through pharmacist-physician collaborative programs82 and school-based therapy programs.83-85

Bottom Line

Suboptimal adherence to medications for attention-deficit/hyperactivity disorder (ADHD) can be addressed through patient/family education, behavioral strategies, clinician interventions, peer support models, and health disparity-reducing interventions. By improving ADHD treatment adherence, these interventions have the potential to maximize long-term outcomes.

Related Resources

Drug Brand Name

Methylphenidate • Concerta, Ritalin

References

1. Froehlich TE, Lanphear BP, Epstein JN, et al. Prevalence, recognition, and treatment of attention-deficit/hyperactivity disorder in a national sample of US children. Arch Pediatr Adolesc Med. 2007;161(9):857-864.
2. Visser SN, Lesesne CA, Perou R. National estimates and factors associated with medication treatment for childhood attention-deficit/hyperactivity disorder. Pediatrics. 2007;119 (Suppl 1):S99-S106.
3. Danielson ML, Bitsko RH, Ghandour RM, et al. Prevalence of parent-reported ADHD diagnosis and associated treatment among U.S. children and adolescents, 2016. J Clin Child Adolesc Psychol. 2018;47(2):199-212.
4. Molina BS, Hinshaw SP, Swanson JM, et al. The MTA at 8 years: prospective follow-up of children treated for combined-type ADHD in a multisite study. J Am Acad Child Adolesc Psychiatry. 2009;48(5):484-500.
5. Charach A, Dashti B, Carson P, et al. Attention deficit hyperactivity disorder: effectiveness of treatment in at-risk preschoolers; long-term effectiveness in all ages; and variability in prevalence, diagnosis, and treatment. Rockville, MD: Agency for Healthcare Research and Quality; 2011. http://www.ncbi.nlm.nih.gov/books/NBK82368/.
6. Wehmeier PM, Schacht A, Barkley RA. Social and emotional impairment in children and adolescents with ADHD and the impact on quality of life. J Adolesc Health. 2010;46(3):209-217.
7. Barkley RA, Fischer M, Smallish L, et al. Young adult outcome of hyperactive children: adaptive functioning in major life activities. J Am Acad Child Adolesc Psychiatry. 2006;45(2):192-202.
8. Spencer TJ, Biederman J, Mick E. Attention-deficit/hyperactivity disorder: diagnosis, lifespan, comorbidities, and neurobiology. J Pediatr Psychol. 2007;32(6):631-642.
9. Pliszka S, the AACAP Work Group on Quality Issues. Practice parameter for the assessment and treatment of children and adolescents with attention-deficit/hyperactivity disorder. J Am Acad Child Adolesc Psychiatry. 2007;46(7):894-921.
10. Subcommittee on Attention-Deficit/Hyperactivity Disorder; Steering Committee on Quality Improvement and Management. ADHD: clinical practice guideline for the diagnosis, evaluation, and treatment of attention-deficit/hyperactivity disorder in children and adolescents. Pediatrics. 2011;128(5):1007-1022.
11. A 14-month randomized clinical trial of treatment strategies for attention-deficit/hyperactivity disorder. The MTA Cooperative Group. Multimodal Treatment Study of Children with ADHD. Arch Gen Psychiatry. 1999;56(12):1073-1086.
12. Abikoff H, Hechtman L, Klein RG, et al. Symptomatic improvement in children with ADHD treated with long-term methylphenidate and multimodal psychosocial treatment. J Am Acad Child Adolesc Psychiatry. 2004;43(7):802-811.
13. Barbaresi WJ, Katusic SK, Colligan RC, et al. Long-term school outcomes for children with attention-deficit/hyperactivity disorder: a population-based perspective. J Dev Behav Pediatr. 2007;28(4):265-273.
14. Scheffler RM, Brown TT, Fulton BD, et al. Positive association between attention-deficit/ hyperactivity disorder medication use and academic achievement during elementary school. Pediatrics. 2009;123(5):1273-1279.
15. Dalsgaard S, Nielsen HS, Simonsen M. Five-fold increase in national prevalence rates of attention-deficit/hyperactivity disorder medications for children and adolescents with autism spectrum disorder, attention-deficit/hyperactivity disorder, and other psychiatric disorders: a Danish register-based study. J Child Adolesc Psychopharmacol. 2013;23(7):432-439.
16. Lichtenstein P, Halldner L, Zetterqvist J, et al. Medication for attention deficit-hyperactivity disorder and criminality. N Engl J Med. 2012;367(21):2006-2014.
17. Chang Z, Lichtenstein P, D’Onofrio BM, et al. Serious transport accidents in adults with attention-deficit/hyperactivity disorder and the effect of medication: a population-based study. JAMA Psychiatry. 2014;71(3):319-325.
18. Chang Z, Quinn PD, Hur K, et al. Association between medication use for attention-deficit/hyperactivity disorder and risk of motor vehicle crashes. JAMA Psychiatry. 2017;74(6):597-603.
19. Dalsgaard S, Leckman JF, Mortensen PB, et al. Effect of drugs on the risk of injuries in children with attention deficit hyperactivity disorder: a prospective cohort study. Lancet Psychiatry. 2015;2(8):702-709.
20. Chang Z, Lichtenstein P, Halldner L, et al. Stimulant ADHD medication and risk for substance abuse. J Child Psychol Psychiatry. 2014;55(8):878-885.
21. Fischer M, Barkley RA. Childhood stimulant treatment and risk for later substance abuse. J Clin Psychiatry. 2003;64(Suppl 11):19-23.
22. Biederman J. Pharmacotherapy for attention-deficit/hyperactivity disorder (ADHD) decreases the risk for substance abuse: findings from a longitudinal follow-up of youths with and without ADHD. J Clin Psychiatry. 2003;64(Suppl 11):3-8.
23. Chang Z, D’Onofrio BM, Quinn PD, et al. Medicationfor attention-deficit/hyperactivity disorder and risk for depression: a nationwide longitudinal cohort study. Biol Psychiatry. 2016;80(12):916-922.
24. World Health Organization. Adherence to long-term therapies: evidence for action. https://www.who.int/chp/knowledge/publications/adherence_full_report.pdf?ua=1. Published 2003. Accessed July 22, 2019.
25. Perwien A, Hall J, Swensen A, et al. Stimulant treatment patterns and compliance in children and adults with newly treated attention-deficit/hyperactivity disorder. J Manag Care Pharm. 2004;10(2):122-129.
26. Faraone SV, Biederman J, Zimmerman B. An analysis of patient adherence to treatment during a 1-year, open-label study of OROS methylphenidate in children with ADHD. J Atten Disord. 2007;11(2):157-166.
27. Barner JC, Khoza S, Oladapo A. ADHD medication use, adherence, persistence and cost among Texas Medicaid children. Curr Med Res Opin. 2011;27(Suppl 2):13-22.
28. Brinkman WB, Baum R, Kelleher KJ, et al. Relationship between attention-deficit/hyperactivity disorder care and medication continuity. J Am Acad Child Adolesc Psychiatry. 2016;55(4):289-294.
29. Bokhari FAS, Heiland F, Levine P, et al. Risk factors for discontinuing drug therapy among children with ADHD. Health Services and Outcomes Research Methodology. 2008;8(3):134-158.
30. Thiruchelvam D, Charach A, Schachar RJ. Moderators and mediators of long-term adherence to stimulant treatment in children with ADHD. J Am Acad Child Adolesc Psychiatry. 2001;40(8):922-928.
31. DosReis S, Mychailyszyn MP, Evans-Lacko SE, et al. The meaning of attention-deficit/hyperactivity disorder medication and parents’ initiation and continuity of treatment for their child. J Child Adolesc Psychopharmacol. 2009;19(4):377-383.
32. dosReis S, Myers MA. Parental attitudes and involvement in psychopharmacological treatment for ADHD: a conceptual model. Int Rev Psychiatry. 2008;20(2):135-141.
33. Bussing R, Koro-Ljungberg M, Noguchi K, et al. Willingness to use ADHD treatments: a mixed methods study of perceptions by adolescents, parents, health professionals and teachers. Soc Sci Med. 2012;74(1):92-100.
34. Brinkman WB, Sucharew H, Majcher JH, et al. Predictors of medication continuity in children with ADHD. Pediatrics. 2018;141(6). doi: 10.1542/peds.2017-2580.
35. Coletti DJ, Pappadopulos E, Katsiotas NJ, et al. Parent perspectives on the decision to initiate medication treatment of attention-deficit/hyperactivity disorder. J Child Adolesc Psychopharmacol. 2012;22(3):226-237.
36. Bussing R, Gary FA. Practice guidelines and parental ADHD treatment evaluations: friends or foes? Harv Rev Psychiatry. 2001;9(5):223-233.
37. Charach A, Gajaria A. Improving psychostimulant adherence in children with ADHD. Expert Rev Neurother. 2008;8(10):1563-1571.
38. Rieppi R, Greenhill LL, Ford RE, et al. Socioeconomic status as a moderator of ADHD treatment outcomes. J Am Acad Child Adolesc Psychiatry. 2002;41(3):269-277.
39. Swanson JM, Hinshaw SP, Arnold LE, et al. Secondary evaluations of MTA 36-month outcomes: propensity score and growth mixture model analyses. J Am Acad Child Adolesc Psychiatry. 2007;46(8):1003-1014.
40. Gau SS, Shen HY, Chou MC, et al. Determinants of adherence to methylphenidate and the impact of poor adherence on maternal and family measures. J Child Adolesc Psychopharmacol. 2006;16(3):286-297.
41. Barkley RA, Fischer M, Edelbrock C, et al. The adolescent outcome of hyperactive children diagnosed by research criteria--III. Mother-child interactions, family conflicts and maternal psychopathology. J Child Psychol Psychiatry. 1991;32(2):233-255.
42. Kashdan TB, Jacob RG, Pelham WE, et al. Depression and anxiety in parents of children with ADHD and varying levels of oppositional defiant behaviors: modeling relationships with family functioning. J Clin Child Adolesc Psychol. 2004;33(1):169-181.
43. Chavira DA, Stein MB, Bailey K, et al. Parental opinions regarding treatment for social anxiety disorder in youth. J Dev Behav Pediatr. 2003;24(5):315-322.
44. Leslie LK, Aarons GA, Haine RA, et al. Caregiver depression and medication use by youths with ADHD who receive services in the public sector. Psychiatr Serv. 2007;58(1):131-134.
45. Barbaresi WJ, Katusic SK, Colligan RC, et al. Long-term stimulant medication treatment of attention-deficit/hyperactivity disorder: results from a population-based study. J Dev Behav Pediatr. 2006;27(1):1-10.
46. Atzori P, Usala T, Carucci S, et al. Predictive factors for persistent use and compliance of immediate-release methylphenidate: a 36-month naturalistic study. J Child Adolesc Psychopharmacol. 2009;19(6):673-681.
47. Chen CY, Yeh HH, Chen KH, et al. Differential effects of predictors on methylphenidate initiation and discontinuation among young people with newly diagnosed attention-deficit/hyperactivity disorder. J Child Adolesc Psychopharmacol. 2011;21(3):265-273.
48. Winterstein AG, Gerhard T, Shuster J, et al. Utilization of pharmacologic treatment in youths with attention deficit/hyperactivity disorder in Medicaid database. Ann Pharmacother. 2008;42(1):24-31.
49. Marcus SC, Wan GJ, Kemner JE, et al. Continuity of methylphenidate treatment for attention-deficit/hyperactivity disorder. Arch Pediatr Adolesc Med. 2005;159(6):572-578.
50. Cummings JR JX, Allen L, Lally C, et al. Racial and ethnic differences in ADHD treatment quality among Medicaid-enrolled youth. Pediatrics. 2017;139(6):e2016-e2044.
51. Hudson JL, Miller GE, Kirby JB. Explaining racial and ethnic differences in children’s use of stimulant medications. Med Care. 2007;45(11):1068-1075.
52. van den Ban E, Souverein PC, Swaab H, et al. Less discontinuation of ADHD drug use since the availability of long-acting ADHD medication in children, adolescents and adults under the age of 45 years in the Netherlands. Atten Defic Hyperact Disord. 2010;2(4):213-220.
53. Charach A, Ickowicz A, Schachar R. Stimulant treatment over five years: adherence, effectiveness, and adverse effects. J Am Acad Child Adolesc Psychiatry. 2004;43(5):559-567.
54. Toomey SL, Sox CM, Rusinak D, et al. Why do children with ADHD discontinue their medication? Clin Pediatr (Phila). 2012;51(8):763-769.
55. Brinkman WB, Simon JO, Epstein JN. Reasons why children and adolescents with attention-deficit/hyperactivity disorder stop and restart taking medicine. Acad Pediatr. 2018;18(3):273-280.
56. Wehmeier PM, Dittmann RW, Banaschewski T. Treatment compliance or medication adherence in children and adolescents on ADHD medication in clinical practice: results from the COMPLY observational study. Atten Defic Hyperact Disord. 2015;7(2):165-174.
57. Frank E, Ozon C, Nair V, et al. Examining why patients with attention-deficit/hyperactivity disorder lack adherence to medication over the long term: a review and analysis. J Clin Psychiatry. 2015;76(11):e1459-e1468.
58. Pozzi M, Carnovale C, Peeters G, et al. Adverse drug events related to mood and emotion in paediatric patients treated for ADHD: a meta-analysis. J Affect Disord. 2018;238:161-178.
59. Stuckelman ZD, Mulqueen JM, Ferracioli-Oda E, et al. Risk of irritability with psychostimulant treatment in children with ADHD: a meta-analysis. J Clin Psychiatry. 2017;78(6):e648-e655.
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61. Lawson KA, Johnsrud M, Hodgkins P, et al. Utilization patterns of stimulants in ADHD in the Medicaid population: a retrospective analysis of data from the Texas Medicaid program. Clin Ther. 2012;34(4):944-956 e944.
62. Olfson M, Marcus S, Wan G. Stimulant dosing for children with ADHD: a medical claims analysis. J Am Acad Child Adolesc Psychiatry. 2009;48(1):51-59.
63. Jensen PS, Arnold LE, Swanson JM, et al. 3-year follow-up of the NIMH MTA study. J Am Acad Child Adolesc Psychiatry. 2007;46(8):989-1002.
64. Van Cleave J, Leslie LK. Approaching ADHD as a chronic condition: implications for long-term adherence. Pediatr Ann. 2008;37(1):19-26.
65. Leslie LK, Plemmons D, Monn AR, et al. Investigating ADHD treatment trajectories: listening to families’ stories about medication use. J Dev Behav Pediatr. 2007;28(3):179-188.
66. Fiks AG, Mayne S, Localio AR, et al. Shared decision making and behavioral impairment: a national study among children with special health care needs. BMC Pediatr. 2012;12:153.
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74. Chacko A, Newcorn JH, Feirsen N, et al. Improving medication adherence in chronic pediatric health conditions: a focus on ADHD in youth. Curr Pharm Des. 2010;16(22):2416-2423.
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References

1. Froehlich TE, Lanphear BP, Epstein JN, et al. Prevalence, recognition, and treatment of attention-deficit/hyperactivity disorder in a national sample of US children. Arch Pediatr Adolesc Med. 2007;161(9):857-864.
2. Visser SN, Lesesne CA, Perou R. National estimates and factors associated with medication treatment for childhood attention-deficit/hyperactivity disorder. Pediatrics. 2007;119 (Suppl 1):S99-S106.
3. Danielson ML, Bitsko RH, Ghandour RM, et al. Prevalence of parent-reported ADHD diagnosis and associated treatment among U.S. children and adolescents, 2016. J Clin Child Adolesc Psychol. 2018;47(2):199-212.
4. Molina BS, Hinshaw SP, Swanson JM, et al. The MTA at 8 years: prospective follow-up of children treated for combined-type ADHD in a multisite study. J Am Acad Child Adolesc Psychiatry. 2009;48(5):484-500.
5. Charach A, Dashti B, Carson P, et al. Attention deficit hyperactivity disorder: effectiveness of treatment in at-risk preschoolers; long-term effectiveness in all ages; and variability in prevalence, diagnosis, and treatment. Rockville, MD: Agency for Healthcare Research and Quality; 2011. http://www.ncbi.nlm.nih.gov/books/NBK82368/.
6. Wehmeier PM, Schacht A, Barkley RA. Social and emotional impairment in children and adolescents with ADHD and the impact on quality of life. J Adolesc Health. 2010;46(3):209-217.
7. Barkley RA, Fischer M, Smallish L, et al. Young adult outcome of hyperactive children: adaptive functioning in major life activities. J Am Acad Child Adolesc Psychiatry. 2006;45(2):192-202.
8. Spencer TJ, Biederman J, Mick E. Attention-deficit/hyperactivity disorder: diagnosis, lifespan, comorbidities, and neurobiology. J Pediatr Psychol. 2007;32(6):631-642.
9. Pliszka S, the AACAP Work Group on Quality Issues. Practice parameter for the assessment and treatment of children and adolescents with attention-deficit/hyperactivity disorder. J Am Acad Child Adolesc Psychiatry. 2007;46(7):894-921.
10. Subcommittee on Attention-Deficit/Hyperactivity Disorder; Steering Committee on Quality Improvement and Management. ADHD: clinical practice guideline for the diagnosis, evaluation, and treatment of attention-deficit/hyperactivity disorder in children and adolescents. Pediatrics. 2011;128(5):1007-1022.
11. A 14-month randomized clinical trial of treatment strategies for attention-deficit/hyperactivity disorder. The MTA Cooperative Group. Multimodal Treatment Study of Children with ADHD. Arch Gen Psychiatry. 1999;56(12):1073-1086.
12. Abikoff H, Hechtman L, Klein RG, et al. Symptomatic improvement in children with ADHD treated with long-term methylphenidate and multimodal psychosocial treatment. J Am Acad Child Adolesc Psychiatry. 2004;43(7):802-811.
13. Barbaresi WJ, Katusic SK, Colligan RC, et al. Long-term school outcomes for children with attention-deficit/hyperactivity disorder: a population-based perspective. J Dev Behav Pediatr. 2007;28(4):265-273.
14. Scheffler RM, Brown TT, Fulton BD, et al. Positive association between attention-deficit/ hyperactivity disorder medication use and academic achievement during elementary school. Pediatrics. 2009;123(5):1273-1279.
15. Dalsgaard S, Nielsen HS, Simonsen M. Five-fold increase in national prevalence rates of attention-deficit/hyperactivity disorder medications for children and adolescents with autism spectrum disorder, attention-deficit/hyperactivity disorder, and other psychiatric disorders: a Danish register-based study. J Child Adolesc Psychopharmacol. 2013;23(7):432-439.
16. Lichtenstein P, Halldner L, Zetterqvist J, et al. Medication for attention deficit-hyperactivity disorder and criminality. N Engl J Med. 2012;367(21):2006-2014.
17. Chang Z, Lichtenstein P, D’Onofrio BM, et al. Serious transport accidents in adults with attention-deficit/hyperactivity disorder and the effect of medication: a population-based study. JAMA Psychiatry. 2014;71(3):319-325.
18. Chang Z, Quinn PD, Hur K, et al. Association between medication use for attention-deficit/hyperactivity disorder and risk of motor vehicle crashes. JAMA Psychiatry. 2017;74(6):597-603.
19. Dalsgaard S, Leckman JF, Mortensen PB, et al. Effect of drugs on the risk of injuries in children with attention deficit hyperactivity disorder: a prospective cohort study. Lancet Psychiatry. 2015;2(8):702-709.
20. Chang Z, Lichtenstein P, Halldner L, et al. Stimulant ADHD medication and risk for substance abuse. J Child Psychol Psychiatry. 2014;55(8):878-885.
21. Fischer M, Barkley RA. Childhood stimulant treatment and risk for later substance abuse. J Clin Psychiatry. 2003;64(Suppl 11):19-23.
22. Biederman J. Pharmacotherapy for attention-deficit/hyperactivity disorder (ADHD) decreases the risk for substance abuse: findings from a longitudinal follow-up of youths with and without ADHD. J Clin Psychiatry. 2003;64(Suppl 11):3-8.
23. Chang Z, D’Onofrio BM, Quinn PD, et al. Medicationfor attention-deficit/hyperactivity disorder and risk for depression: a nationwide longitudinal cohort study. Biol Psychiatry. 2016;80(12):916-922.
24. World Health Organization. Adherence to long-term therapies: evidence for action. https://www.who.int/chp/knowledge/publications/adherence_full_report.pdf?ua=1. Published 2003. Accessed July 22, 2019.
25. Perwien A, Hall J, Swensen A, et al. Stimulant treatment patterns and compliance in children and adults with newly treated attention-deficit/hyperactivity disorder. J Manag Care Pharm. 2004;10(2):122-129.
26. Faraone SV, Biederman J, Zimmerman B. An analysis of patient adherence to treatment during a 1-year, open-label study of OROS methylphenidate in children with ADHD. J Atten Disord. 2007;11(2):157-166.
27. Barner JC, Khoza S, Oladapo A. ADHD medication use, adherence, persistence and cost among Texas Medicaid children. Curr Med Res Opin. 2011;27(Suppl 2):13-22.
28. Brinkman WB, Baum R, Kelleher KJ, et al. Relationship between attention-deficit/hyperactivity disorder care and medication continuity. J Am Acad Child Adolesc Psychiatry. 2016;55(4):289-294.
29. Bokhari FAS, Heiland F, Levine P, et al. Risk factors for discontinuing drug therapy among children with ADHD. Health Services and Outcomes Research Methodology. 2008;8(3):134-158.
30. Thiruchelvam D, Charach A, Schachar RJ. Moderators and mediators of long-term adherence to stimulant treatment in children with ADHD. J Am Acad Child Adolesc Psychiatry. 2001;40(8):922-928.
31. DosReis S, Mychailyszyn MP, Evans-Lacko SE, et al. The meaning of attention-deficit/hyperactivity disorder medication and parents’ initiation and continuity of treatment for their child. J Child Adolesc Psychopharmacol. 2009;19(4):377-383.
32. dosReis S, Myers MA. Parental attitudes and involvement in psychopharmacological treatment for ADHD: a conceptual model. Int Rev Psychiatry. 2008;20(2):135-141.
33. Bussing R, Koro-Ljungberg M, Noguchi K, et al. Willingness to use ADHD treatments: a mixed methods study of perceptions by adolescents, parents, health professionals and teachers. Soc Sci Med. 2012;74(1):92-100.
34. Brinkman WB, Sucharew H, Majcher JH, et al. Predictors of medication continuity in children with ADHD. Pediatrics. 2018;141(6). doi: 10.1542/peds.2017-2580.
35. Coletti DJ, Pappadopulos E, Katsiotas NJ, et al. Parent perspectives on the decision to initiate medication treatment of attention-deficit/hyperactivity disorder. J Child Adolesc Psychopharmacol. 2012;22(3):226-237.
36. Bussing R, Gary FA. Practice guidelines and parental ADHD treatment evaluations: friends or foes? Harv Rev Psychiatry. 2001;9(5):223-233.
37. Charach A, Gajaria A. Improving psychostimulant adherence in children with ADHD. Expert Rev Neurother. 2008;8(10):1563-1571.
38. Rieppi R, Greenhill LL, Ford RE, et al. Socioeconomic status as a moderator of ADHD treatment outcomes. J Am Acad Child Adolesc Psychiatry. 2002;41(3):269-277.
39. Swanson JM, Hinshaw SP, Arnold LE, et al. Secondary evaluations of MTA 36-month outcomes: propensity score and growth mixture model analyses. J Am Acad Child Adolesc Psychiatry. 2007;46(8):1003-1014.
40. Gau SS, Shen HY, Chou MC, et al. Determinants of adherence to methylphenidate and the impact of poor adherence on maternal and family measures. J Child Adolesc Psychopharmacol. 2006;16(3):286-297.
41. Barkley RA, Fischer M, Edelbrock C, et al. The adolescent outcome of hyperactive children diagnosed by research criteria--III. Mother-child interactions, family conflicts and maternal psychopathology. J Child Psychol Psychiatry. 1991;32(2):233-255.
42. Kashdan TB, Jacob RG, Pelham WE, et al. Depression and anxiety in parents of children with ADHD and varying levels of oppositional defiant behaviors: modeling relationships with family functioning. J Clin Child Adolesc Psychol. 2004;33(1):169-181.
43. Chavira DA, Stein MB, Bailey K, et al. Parental opinions regarding treatment for social anxiety disorder in youth. J Dev Behav Pediatr. 2003;24(5):315-322.
44. Leslie LK, Aarons GA, Haine RA, et al. Caregiver depression and medication use by youths with ADHD who receive services in the public sector. Psychiatr Serv. 2007;58(1):131-134.
45. Barbaresi WJ, Katusic SK, Colligan RC, et al. Long-term stimulant medication treatment of attention-deficit/hyperactivity disorder: results from a population-based study. J Dev Behav Pediatr. 2006;27(1):1-10.
46. Atzori P, Usala T, Carucci S, et al. Predictive factors for persistent use and compliance of immediate-release methylphenidate: a 36-month naturalistic study. J Child Adolesc Psychopharmacol. 2009;19(6):673-681.
47. Chen CY, Yeh HH, Chen KH, et al. Differential effects of predictors on methylphenidate initiation and discontinuation among young people with newly diagnosed attention-deficit/hyperactivity disorder. J Child Adolesc Psychopharmacol. 2011;21(3):265-273.
48. Winterstein AG, Gerhard T, Shuster J, et al. Utilization of pharmacologic treatment in youths with attention deficit/hyperactivity disorder in Medicaid database. Ann Pharmacother. 2008;42(1):24-31.
49. Marcus SC, Wan GJ, Kemner JE, et al. Continuity of methylphenidate treatment for attention-deficit/hyperactivity disorder. Arch Pediatr Adolesc Med. 2005;159(6):572-578.
50. Cummings JR JX, Allen L, Lally C, et al. Racial and ethnic differences in ADHD treatment quality among Medicaid-enrolled youth. Pediatrics. 2017;139(6):e2016-e2044.
51. Hudson JL, Miller GE, Kirby JB. Explaining racial and ethnic differences in children’s use of stimulant medications. Med Care. 2007;45(11):1068-1075.
52. van den Ban E, Souverein PC, Swaab H, et al. Less discontinuation of ADHD drug use since the availability of long-acting ADHD medication in children, adolescents and adults under the age of 45 years in the Netherlands. Atten Defic Hyperact Disord. 2010;2(4):213-220.
53. Charach A, Ickowicz A, Schachar R. Stimulant treatment over five years: adherence, effectiveness, and adverse effects. J Am Acad Child Adolesc Psychiatry. 2004;43(5):559-567.
54. Toomey SL, Sox CM, Rusinak D, et al. Why do children with ADHD discontinue their medication? Clin Pediatr (Phila). 2012;51(8):763-769.
55. Brinkman WB, Simon JO, Epstein JN. Reasons why children and adolescents with attention-deficit/hyperactivity disorder stop and restart taking medicine. Acad Pediatr. 2018;18(3):273-280.
56. Wehmeier PM, Dittmann RW, Banaschewski T. Treatment compliance or medication adherence in children and adolescents on ADHD medication in clinical practice: results from the COMPLY observational study. Atten Defic Hyperact Disord. 2015;7(2):165-174.
57. Frank E, Ozon C, Nair V, et al. Examining why patients with attention-deficit/hyperactivity disorder lack adherence to medication over the long term: a review and analysis. J Clin Psychiatry. 2015;76(11):e1459-e1468.
58. Pozzi M, Carnovale C, Peeters G, et al. Adverse drug events related to mood and emotion in paediatric patients treated for ADHD: a meta-analysis. J Affect Disord. 2018;238:161-178.
59. Stuckelman ZD, Mulqueen JM, Ferracioli-Oda E, et al. Risk of irritability with psychostimulant treatment in children with ADHD: a meta-analysis. J Clin Psychiatry. 2017;78(6):e648-e655.
60. Cortese S, Adamo N, Del Giovane C, et al. Comparative efficacy and tolerability of medications for attention-deficit hyperactivity disorder in children, adolescents, and adults: a systematic review and network meta-analysis. Lancet Psychiatry. 2018;5(9):727-738.
61. Lawson KA, Johnsrud M, Hodgkins P, et al. Utilization patterns of stimulants in ADHD in the Medicaid population: a retrospective analysis of data from the Texas Medicaid program. Clin Ther. 2012;34(4):944-956 e944.
62. Olfson M, Marcus S, Wan G. Stimulant dosing for children with ADHD: a medical claims analysis. J Am Acad Child Adolesc Psychiatry. 2009;48(1):51-59.
63. Jensen PS, Arnold LE, Swanson JM, et al. 3-year follow-up of the NIMH MTA study. J Am Acad Child Adolesc Psychiatry. 2007;46(8):989-1002.
64. Van Cleave J, Leslie LK. Approaching ADHD as a chronic condition: implications for long-term adherence. Pediatr Ann. 2008;37(1):19-26.
65. Leslie LK, Plemmons D, Monn AR, et al. Investigating ADHD treatment trajectories: listening to families’ stories about medication use. J Dev Behav Pediatr. 2007;28(3):179-188.
66. Fiks AG, Mayne S, Localio AR, et al. Shared decision making and behavioral impairment: a national study among children with special health care needs. BMC Pediatr. 2012;12:153.
67. Stevens J, Harman JS, Kelleher KJ. Race/ethnicity and insurance status as factors associated with ADHD treatment patterns. J Child Adolesc Psychopharmacol. 2005;15(1):88-96.
68. Charach A, Skyba A, Cook L, et al. Using stimulant medication for children with ADHD: what do parents say? A brief report. J Can Acad Child Adolesc Psychiatry. 2006;15(2):75-83.
69. Chen CY, Gerhard T, Winterstein AG. Determinants of initial pharmacological treatment for youths with attention-deficit/hyperactivity disorder. J Child Adolescent Psychopharmacol. 2009;19(2):187-195.
70. National Council on Patient Information and Education. Enhancing prescription medication adherence: a national action plan. http://www.bemedwise.org/docs/enhancingprescriptionmedicineadherence.pdf. Published August 2007. Accessed July 22, 2019.
71. Kahana S, Drotar D, Frazier T. Meta-analysis of psychological interventions to promote adherence to treatment in pediatric chronic health conditions. J Pediatr Psychol. 2008;33(6):590-611.
72. Johnston C, Mash EJ. Families of children with attention-deficit/hyperactivity disorder: review and recommendations for future research. Clin Child Fam Psychol Rev. 2001;4(3):183-207.
73. Chronis AM, Lahey BB, Pelham WE Jr., et al. Psychopathology and substance abuse in parents of young children with attention-deficit/hyperactivity disorder. J Am Acad Child Adolesc Psychiatry. 2003;42(12):1424-1432.
74. Chacko A, Newcorn JH, Feirsen N, et al. Improving medication adherence in chronic pediatric health conditions: a focus on ADHD in youth. Curr Pharm Des. 2010;16(22):2416-2423.
75. Brinkman WB, Hartl Majcher J, Polling LM, et al. Shared decision-making to improve attention-deficit hyperactivity disorder care. Patient Educ Couns. 2013;93(1):95-101.
76. American Academy of Pediatrics. Caring for children with ADHD: a resource toolkit for clinicians. 2nd ed. https://www.aap.org/en-us/pubserv/adhd2/Pages/default.aspx. Published 2011. Accessed July 22, 2019.
77. The REACH Institute. Course dates and registration. http://www.thereachinstitute.org/services/for-primary-care-practitioners/training-dates-and-registration. Accessed July 22, 2019.
78. Sells D, Davidson L, Jewell C, et al. The treatment relationship in peer-based and regular case management for clients with severe mental illness. Psychiatr Serv. 2006;57(8):1179-1184.
79. Hoagwood KE, Green E, Kelleher K, et al. Family advocacy, support and education in children’s mental health: results of a national survey. Adm Policy Ment Health. 2008;35(1-2):73-83.
80. Klein MD, Beck AF, Henize AW, et al. Doctors and lawyers collaborating to HeLP children—outcomes from a successful partnership between professions. J Health Care Poor Underserved. 2013;24(3):1063-1073.
81. Weintraub D, Rodgers MA, Botcheva L, et al. Pilot study of medical-legal partnership to address social and legal needs of patients. J Health Care Poor Underserved. 2010;21(Suppl 2):157-168.
82. Bradley CL, Luder HR, Beck AF, et al. Pediatric asthma medication therapy management through community pharmacy and primary care collaboration. J Am Pharm Assoc (2003). 2016;56(4):455-460.
83. Noyes K, Bajorska A, Fisher S, et al. Cost-effectiveness of the school-based asthma therapy (SBAT) program. Pediatrics. 2013;131(3):e709-e717.
84. Halterman JS, Fagnano M, Montes G, et al. The school-based preventive asthma care trial: results of a pilot study. J Pediatr. 2012;161(6):1109-1115.
85. Halterman JS, Szilagyi PG, Fisher SG, et al. Randomized controlled trial to improve care for urban children with asthma: results of the school-based asthma therapy trial. Arch Pediatr Adolesc Med. 2011;165(3):262-268.

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Artificial intelligence in psychiatry

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Artificial intelligence in psychiatry

For many people, artificial intelligence (AI) brings to mind some form of humanoid robot that speaks and acts like a human. However, AI is much more than merely robotics and machines. Professor John McCarthy of Stanford University, who first coined the term “artificial intelligence” in the early 1950s, defined it as “the science and engineering of making intelligent machines, especially intelligent computer programs”; he defined intelligence as “the computational part of the ability to achieve goals.”1 Artificial intelligence also is commonly defined as the development of computer systems able to perform tasks that normally require human intelligence.2 English Mathematician Alan Turing is considered one of the forefathers of AI research, and devised the first test to determine if a computer program was intelligent (Box 13). Today, AI has established itself as an integral part of medicine and psychiatry.

Box 1

The Turing Test: How to tell if a computer program is intelligent

During World War II, the English Mathematician Alan Turing helped the British government crack the Enigma machine, a coding device used by the Nazi army. He went on to pioneer many research projects in the field of artificial intelligence, including developing the Turing Test, which can determine if a computer program is intelligent.3 In this test, a human questioner uses a computer interface to pose questions to 2 respondents in different rooms; one of the respondents is a human and the other a computer program. If the questioner cannot tell the difference between the 2 respondents’ answers, then the computer program is deemed to be “artificially intelligent” because it can pass

The semantics of AI

Two subsets of AI are machine learning and deep learning.4,5 Machine learning is defined as a set of methods that can automatically detect patterns in data and then use the uncovered pattern to predict future data.4 Deep learning is a form of machine learning that enables computers to learn from experience and understand the world in terms of a hierarchy of concepts.5

Machine learning can be supervised, semi-supervised, or unsupervised. The majority of practical machine learning uses supervised learning, where all data are labeled and an algorithm is used to learn the mapping function from the input to the output. In unsupervised learning, all data are unlabeled and the algorithm models the underlying structure of the data by itself. Semi-supervised learning is a mixture of both.6

Many researchers also categorize AI into 2 types: general or “strong” AI, and narrow or “weak” AI. Strong AI is defined as computers that can think on a level at least equal to humans and are able to experience emotions and even consciousness.7 Weak AI includes adding “thinking-like” features to computers to make them more useful tools. Almost all AI technologies available today are considered to be weak AI.

AI in medicine

AI is being developed for a broad range of applications in medicine. This includes informatics approaches, including learning in health management systems such as electronic health records, and actively guiding physicians in their treatment decisions.8

AI has been applied to assist administrative workflows that reach beyond automated non-patient care activities such as chart documentation and placing orders. One example is the Judy Reitz Capacity Command Center, which was designed and built with GE Healthcare Partners.9 It combines AI technology in the form of systems engineering and predictive analytics to better manage multiple workflows in different administrative settings, including patient safety, volume, flow, and access to care.9

In April 2018, Intel Corporation surveyed 200 health-care decision makers in the United States regarding their use of AI in practice and their attitudes toward it.10 Overall, 37% of respondents reported using AI and 54% expected to increase their use of AI in the next 5 years. Clinical use of AI (77%) was more common than administrative use (41%) or financial use (26 %).10

Continue to: Box 2

 

 

Box 211-19 describes studies that evaluated the clinical use of AI in specialties other than psychiatry.

Box 2

Beyond psychiatry: Using artificial intelligence in other specialties

Ophthalmology. Multiple studies have evaluated using artificial intelligence (AI) to screen for diabetic retinopathy, which is one of the fastest growing causes of blindness worldwide.11 In a recent study, researchers used a deep learning algorithm to automatically detect diabetic retinopathy and diabetic macular edema by analyzing retinal images. It was trained over a dataset of 128,000 images that were evaluated by 3 to 7 ophthalmologists. The algorithm showed high sensitivity and specificity for detecting referable diabetic retinopathy.11

Cardiology. One study looked at training a deep learning algorithm to predict cardiovascular risk based on analysis of retinal fundus images from 284,335 patients. In this study, the algorithm was able to predict a cardiovascular event in the next 5 years with 70% accuracy.12 The results were based on risk factors not previously thought to be quantifiable in retinal images, such as age, gender, smoking status, systolic blood pressure, and major adverse cardiac events.12 Similarly, researchers in the United Kingdom wanted to assess AI’s ability to predict a first cardiovascular event over 10 years by comparing a machine-learning algorithm to current guidelines from the American College of Cardiology, which include age, smoking history, cholesterol levels, and diabetes history.13 The algorithm was applied to data from approximately 82,000 patients known to have a future cardiac event. It was able to significantly improve the accuracy of cardiovascular risk prediction.13

Radiology. Researchers in the Department of Radiology at Thomas Jefferson University Hospital trained 2 convolutional neural networks (CNNs), AlexNet and GoogleNet, on 150 chest X-ray images to diagnose the presence or absence of tuberculosis (TB).14 They found that the CNNs could accurately classify TB on chest X-ray, with an area under the curve of 0.99.14 The best-performing AI model was a combination of the 2 networks, which had an accuracy of 96%.14

Stroke. The ALADIN trial compared an AI algorithm vs 2 trained neuroradiologists for detecting large artery occlusions on 300 CT scans.15 The algorithm had a sensitivity of 97%, a specificity of 52%, and an accuracy of 78%.15

Surgery. AI in the form of surgical robots has been around for many decades. Probably the best-known surgical robot is the da Vinci Surgical System, which was FDA-approved in 2000 for laparoscopic procedures.16 The da Vinci Surgical System functions as an extension of the human surgeon, who controls the device from a nearby console. Researchers at McGill University developed an anesthesia robot called “McSleepy” that can analyze biological information and recognize malfunctions while constantly adapting its own behavior.17

Dermatology. One study compared the use of deep CNNs vs 21 board-certified dermatologists to identify skin cancer on 2,000 biopsy-proven clinical images.18 The CNNs were capable of classifying skin cancer with a level of competence comparable to that of the dermatologists.18

Pathology. One study compared the efficacy of a CNN to that of human pathologists in detecting breast cancer metastasis to lymph nodes on microscopy images.19 The CNN detected 92.4% of the tumors, whereas the pathologists had a sensitivity of 73.2%.19

How can AI be used in psychiatry?

Artificially intelligent technologies have been used in psychiatry for several decades. One of the earliest examples is ELIZA, a computer program published by Professor Joseph Weizenbaum of the Massachusetts Institute of Technology in 1966.20 ELIZA consisted of a language analyzer and a script or a set of rules to improvise around a certain theme; the script DOCTOR was used to simulate a Rogerian psychotherapist.20

The application of AI in psychiatry has come a long way since the pioneering work of Weizenbaum. A recent study examined AI’s ability to distinguish between an individual who had suicidal ideation vs a control group. Machine-learning algorithms were used to evaluate functional MRI scans of 34 participants (17 who had suicidal ideation and 17 controls) to identify certain neural signatures of concepts related to life and death.21 The machine-learning algorithms were able to distinguish between these 2 groups with 91% accuracy. They also were able to distinguish between individuals who attempted suicide and those who did not with 94% accuracy.21

A study from the University of Cincinnati looked at using machine learning and natural language processing to distinguish genuine suicide notes from “fake” suicide notes that had been written by a healthy control group.22 Sixty-six notes were evaluated and categorized by 11 mental health professionals (psychiatrists, social workers, and emergency medicine physicians) and 31 PGY-3 residents. The accuracy of their results was compared with that of 9 machine-learning algorithms.22 The best machine-learning algorithm accurately classified the notes 78% of the time, compared with 63% of the time for the mental health professionals and 49% of the time for the residents.22

Researchers at Vanderbilt University examined using machine learning to predict suicide risk.23 They developed algorithms to scan electronic health records of 5,167 adults, 3,250 of whom had attempted suicide. In a review of the patients’ data from 1 week to 2 years before the attempt, the algorithms looked for certain predictors of suicide attempts, including recurrent depression, psychotic disorder, and substance use. The algorithm was 80% accurate at predicting whether a patient would attempt suicide within the next 2 years, and 84% accurate at predicting an attempt within the next week.23

Continue to: In a prospective study...

 

 

In a prospective study, researchers at Cincinnati Children’s Hospital used a machine-learning algorithm to evaluate 379 patients who were categorized into 3 groups: suicidal, mentally ill but not suicidal, or controls.24 All participants completed a standardized behavioral rating scale and participated in a semi-structured interview. Based on the participants’ linguistic and acoustic characteristics, the algorithm was able to classify them into the 3 groups with 85% accuracy.24

Many studies have looked at using language analysis to predicting the risk of psychosis in at-risk individuals. In one study, researchers evaluated individuals known to be at high risk for developing psychosis, some of whom eventually did develop psychosis.25 Participants were asked to retell a story and to answer questions about that story. Researchers fed the transcripts of these interviews into a language analysis program that looked at semantic coherence, syntactic complexity, and other factors. The algorithm was able to predict the future occurrence of psychosis with 82% accuracy. Participants who converted to psychosis had decreased semantic coherence and reduced syntactic complexity.25

A similar study looked at 34 at-risk youth in an attempt to predict who would develop psychosis based on speech pattern analysis.26 The participants underwent baseline interviews and were assessed quarterly for 2.5 years. The algorithm was able to predict who would develop psychosis with 100% accuracy.26

 

Challenges and limitations

The amount of research about applying machine learning to various fields of psychiatry continues to grow. With this increased interest, there have been reports of bias and human influence in the various stages of machine learning. Therefore, being aware of these challenges and engaging in practices to minimize their effects are necessary. Such practices include providing more details on data collection and processing, and constantly evaluating machine learning models for their relevance and utility to the research question proposed.27

As is the case with most innovative, fast-growing technologies, AI has its fair share of criticisms and concerns. Critics have focused on the potential threat of privacy issues, medical errors, and ethical concerns. Researchers at the Stanford Center for Biomedical Ethics emphasize the importance of being aware of the different types of bias that humans and algorithm designs can introduce into health data.28

Continue to: The Nuffield Council on Bioethics...

 

 

The Nuffield Council on Bioethics also emphasizes the importance of identifying the ethical issues raised by using AI in health care. Concerns include erroneous decisions made by AI and determining who is responsible for such errors, difficulty in validating the outputs of AI systems, and the potential for AI to be used for malicious purposes.29

For clinicians who are considering implementing AI into their practice, it is vital to recognize where this technology belongs in a workflow and in the decision-making process. Jeffery Axt, a researcher on the clinical applications of AI, encourages clinicians to view using AI as a consulting tool to eliminate the element of fear associated with not having control over diagnostics and management.30

What’s on the horizon

Research into using AI in psychiatry has drawn the attention of large companies. IBM is building an automated speech analysis application that uses machine learning to provide a real-time overview of a patient’s mental health.31 Social media platforms are also starting to incorporate AI technologies to scan posts for language and image patterns suggestive of suicidal thoughts or behavior.32

“Chat bots”—AI that can conduct a conversation in natural language—are becoming popular as well. Woebot is a cognitive-behavioral therapy–based chat bot designed by a Stanford psychologist that can be accessed through Facebook Messenger. In a 2-week study, 70 young adults (age 18 to 28) with depression were randomly assigned to use Woebot or to read mental health e-books.33 Participants who used Woebot experienced a significant reduction in depressive symptoms as measured by change in score on the Patient Health Questionnaire-9, while those assigned to the reading group did not.33

Other researchers have focused on identifying patterns of inattention, hyperactivity, and impulsivity in children using AI technologies such as computer vision, machine learning, and data mining. For example, researchers at the University of Texas at Arlington and Yale University are analyzing data from watching children perform certain tasks involving attention, decision making, and emotion management.34 There have been several advances in using AI to note abnormalities in a child’s gaze pattern that might suggest autism.35

Continue to: A project at...

 

 

A project at the University of Southern California called SimSensei/Multisense uses software to track real-time behavior descriptors such as facial expressions, body postures, and acoustic features that can help identify psychological distress.36 This software is combined with a virtual human platform that communicates with the patient as a therapist would.36

The future of AI in health care appears to have great possibilities. Putting aside irrational fears of being replaced by computers one day, AI may someday be highly transformative, leading to vast improvements in patient care.

Bottom Line

Artificial intelligence (AI) —the development of computer systems able to perform tasks that normally require human intelligence—is being developed for use in a wide range of medical specialties. Potential uses in psychiatry include predicting a patient’s risk for suicide or psychosis. Privacy concerns, ethical issues, and the potential for medical errors are among the challenges of AI use in psychiatry.

Related Resources

  • Durstewitz D, Koppe G, Meyer-Lindenberg A. Deep neural networks in psychiatry. Mol Psychiatry. 2019. doi:10.1038/s41380-019-0365-9.
  • Kretzschmar K, Tyroll H, Pavarini G, et al; NeurOx Young People’s Advisory Group. Can your phone be your therapist? Young people’s ethical perspectives on the use of fully automated conversational agents (chatbots) in mental health support. Biomed Inform Insights. 2019;11:1178222619829083. doi: 10.1177/1178222619829083.
References

1. McCarthy J. What is AI? Basic questions. http://jmc.stanford.edu/artificial-intelligence/what-is-ai/index.html. Accessed July 19, 2019.
2. Oxford Reference. Artificial intelligence. http://www.oxfordreference.com/view/10.1093/oi/authority.20110803095426960. Accessed July 19, 2019.
3. Turing AM. Computing machinery and intelligence. Mind. 1950;49:433-460.
4. Robert C. Book review: machine learning, a probabilistic perspective. CHANCE. 2014;27:2:62-63.
5. Goodfellow I, Bengio Y, Courville A. Deep learning. Cambridge, MA: The MIT Press; 2016.
6. Brownlee J. Supervised and unsupervised machine learning algorithms. https://machinelearningmastery.com/supervised-and-unsupervised-machine-learning-algorithms/. Published March 16, 2016. Accessed July 19, 2019.
7. Russell S, Norvig P. Artificial intelligence: a modern approach. Upper Saddle River, NJ: Pearson; 1995.
8. Hamet P, Tremblay J. Artificial intelligence in medicine. Metabolism. 2017;69S:S36-S40.
9. The Johns Hopkins hospital launches capacity command center to enhance hospital operations. Johns Hopkins Medicine. https://www.hopkinsmedicine.org/news/media/releases/the_johns_hopkins_hospital_launches_capacity_command_center_to_enhance_hospital_operations. Published October 26, 2016. Accessed July, 19 2019.
10. U.S. healthcare leaders expect widespread adoption of artificial intelligence by 2023. Intel. https://newsroom.intel.com/news-releases/u-s-healthcare-leaders-expect-widespread-adoption-artificial-intelligence-2023/#gs.7j7yjk. Published July 2, 2018. Accessed July, 19 2019.
11. Gulshan V, Peng L, Coram M, et al. Development and validation of a deep learning algorithm for detection of diabetic retinopathy in retinal fundus photographs. JAMA. 2016;316(22):2402-2410.
12. Poplin R, Varadarajan AV, Blumer K, et al. Prediction of cardiovascular risk factors from retinal fundus photographs via deep learning. Nature Biomedical Engineering. 2018;2:158-164.
13. Weng SF, Reps J, Kai J, et al. Can machine-learning improve cardiovascular risk prediction using routine clinical data? PLoS One. 2017;12(4):e0174944. doi: 10.1371/journal.pone. 0174944.
14. Lakhani P, Sundaram B. Deep learning at chest radiography: Automated classification of pulmonary tuberculosis by using convolutional neural networks. Radiology. 2017;284(2):574-582.
15. Bluemke DA. Radiology in 2018: Are you working with ai or being replaced by AI? Radiology. 2018;287(2):365-366.
16. Kakar PN, Das J, Roy PM, et al. Robotic invasion of operation theatre and associated anaesthetic issues: A review. Indian J Anaesth. 2011;55(1):18-25.
17. World first: researchers develop completely automated anesthesia system. McGill University. https://www.mcgill.ca/newsroom/channels/news/world-first-researchers-develop-completely-automated-anesthesia-system-100263. Published May 1, 2008. Accessed July 19, 2019.
18. Esteva A, Kuprel B, Novoa RA, et al. Dermatologist-level classification of skin cancer with deep neural networks. Nature. 2017;542(7639):115-118.
19. Liu Y, Gadepalli K, Norouzi M, et al. Detecting cancer metastases on gigapixel pathology images. https://arxiv.org/abs/1703.02442. Published March 8, 2017. Accessed July 19, 2019.
20. Bassett C. The computational therapeutic: exploring Weizenbaum’s ELIZA as a history of the present. AI & Soc. 2018. https://doi.org/10.1007/s00146-018-0825-9.
21. Just MA, Pan L, Cherkassky VL, et al. Machine learning of neural representations of suicide and emotion concepts identifies suicidal youth. Nat Hum Behav. 2017;1:911-919.
22. Pestian J, Nasrallah H, Matykiewicz P, et al. Suicide note classification using natural language processing: a content analysis. Biomed Inform Insights. 2010;2010(3):19-28.
23. Walsh CG, Ribeiro JD, Franklin JC. Predicting risk of suicide attempts over time through machine learning. Clinical Psychological Science. 2017;5(3):457-469.
24. Pestian JP, Sorter M, Connolly B, et al; STM Research Group. A machine learning approach to identifying the thought markers of suicidal subjects: a prospective multicenter trial. Suicide Life Threat Behav. 2017;47(1):112-121.
25. Corcoran CM, Carrillo F, Fernández-Slezak D, et al. Prediction of psychosis across protocols and risk cohorts using automated language analysis. World Psychiatry. 2018;17(1):67-75.
26. Bedi G, Carrillo F, Cecchi GA, et al. Automated analysis of free speech predicts psychosis onset in high-risk youths. NPJ Schizophr. 2015;1:15030. doi:10.1038/npjschz.2015.30.
27. Tandon N, Tandon R. Will machine learning enable us to finally cut the Gordian Knot of schizophrenia. Schizophr Bull. 2018;44(5):939-941.
28. Char DS, Shah NH, Magnus D. Implementing machine learning in health care - addressing ethical challenges. N Engl J Med. 2018;378(11):981-983.
29. Nuffield Council on Bioethics. The big ethical questions for artificial intelligence (AI) in healthcare. http://nuffieldbioethics.org/news/2018/big-ethical-questions-artificial-intelligence-ai-healthcare. Published May 15, 2018. Accessed July 19, 2019.
30. Axt J. Artificial neural networks: a systematic review of their efficacy as an innovative resource for health care practice managers. https://www.researchgate.net/publication/322101587_Running_head_ANN_EFFICACY_IN_HEALTHCARE-A_SYSTEMATIC_REVIEW_1_Artificial_Neural_Networks_A_systematic_review_of_their_efficacy_as_an_innovative_resource_for_healthcare_practice_managers. Published October 2017. Accessed July 19, 2019.
31. Cecchi G. IBM 5 in 5: with AI, our words will be a window into our mental health. IBM Research Blog. https://www.ibm.com/blogs/research/2017/1/ibm-5-in-5-our-words-will-be-the-windows-to-our-mental-health/. Published January 5, 2017. Accessed July 19, 2019.
32. Constine J. Facebook rolls out AI to detect suicidal posts before they’re reported. TechCrunch. http://tcrn.ch/2hUBi3B. Published November 27, 2017. Accessed July 19, 2019.
33. Fitzpatrick KK, Darcy A, Vierhile M. Delivering cognitive behavior therapy to young adults with symptoms of depression and anxiety using a fully automated conversational agent (Woebot): a randomized controlled trial. JMIR Ment Health. 2017;4(2):e19. doi:10.2196/mental.7785.
34. UTA researchers use artificial intelligence to assess, enhance cognitive abilities in school-aged children. University of Texas at Arlington. https://www.uta.edu/news/releases/2016/10/makedon-children-learning-difficulties.php. Published October 13, 2016. Accessed July 19, 2019.
35. Nealon C. App for early autism detection launched on World Autism Awareness Day, April 2. University at Buffalo. http://www.buffalo.edu/news/releases/2018/04/001.html. Published April 2, 2018. Accessed July 19, 2019.
36. SimSensei. University of Southern California Institute for Creative Technologies. http://ict.usc.edu/prototypes/simsensei/. Accessed July 19, 2019.

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Hripsime Kalanderian, MD
Psychiatrist
The Vancouver Clinic
Vancouver, Washington

Henry A. Nasrallah, MD
Professor of Psychiatry, Neurology, and Neuroscience
Medical Director: Neuropsychiatry
Director, Schizophrenia and Neuropsychiatry Programs
University of Cincinnati College of Medicine
Cincinnati, Ohio
Professor Emeritus, Saint Louis University
St. Louis. Missouri

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Psychiatrist
The Vancouver Clinic
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Henry A. Nasrallah, MD
Professor of Psychiatry, Neurology, and Neuroscience
Medical Director: Neuropsychiatry
Director, Schizophrenia and Neuropsychiatry Programs
University of Cincinnati College of Medicine
Cincinnati, Ohio
Professor Emeritus, Saint Louis University
St. Louis. Missouri

Disclosures
The authors report no financial relationships with any companies whose products are mentioned in this article, or with manufacturers of competing products

Author and Disclosure Information

Hripsime Kalanderian, MD
Psychiatrist
The Vancouver Clinic
Vancouver, Washington

Henry A. Nasrallah, MD
Professor of Psychiatry, Neurology, and Neuroscience
Medical Director: Neuropsychiatry
Director, Schizophrenia and Neuropsychiatry Programs
University of Cincinnati College of Medicine
Cincinnati, Ohio
Professor Emeritus, Saint Louis University
St. Louis. Missouri

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For many people, artificial intelligence (AI) brings to mind some form of humanoid robot that speaks and acts like a human. However, AI is much more than merely robotics and machines. Professor John McCarthy of Stanford University, who first coined the term “artificial intelligence” in the early 1950s, defined it as “the science and engineering of making intelligent machines, especially intelligent computer programs”; he defined intelligence as “the computational part of the ability to achieve goals.”1 Artificial intelligence also is commonly defined as the development of computer systems able to perform tasks that normally require human intelligence.2 English Mathematician Alan Turing is considered one of the forefathers of AI research, and devised the first test to determine if a computer program was intelligent (Box 13). Today, AI has established itself as an integral part of medicine and psychiatry.

Box 1

The Turing Test: How to tell if a computer program is intelligent

During World War II, the English Mathematician Alan Turing helped the British government crack the Enigma machine, a coding device used by the Nazi army. He went on to pioneer many research projects in the field of artificial intelligence, including developing the Turing Test, which can determine if a computer program is intelligent.3 In this test, a human questioner uses a computer interface to pose questions to 2 respondents in different rooms; one of the respondents is a human and the other a computer program. If the questioner cannot tell the difference between the 2 respondents’ answers, then the computer program is deemed to be “artificially intelligent” because it can pass

The semantics of AI

Two subsets of AI are machine learning and deep learning.4,5 Machine learning is defined as a set of methods that can automatically detect patterns in data and then use the uncovered pattern to predict future data.4 Deep learning is a form of machine learning that enables computers to learn from experience and understand the world in terms of a hierarchy of concepts.5

Machine learning can be supervised, semi-supervised, or unsupervised. The majority of practical machine learning uses supervised learning, where all data are labeled and an algorithm is used to learn the mapping function from the input to the output. In unsupervised learning, all data are unlabeled and the algorithm models the underlying structure of the data by itself. Semi-supervised learning is a mixture of both.6

Many researchers also categorize AI into 2 types: general or “strong” AI, and narrow or “weak” AI. Strong AI is defined as computers that can think on a level at least equal to humans and are able to experience emotions and even consciousness.7 Weak AI includes adding “thinking-like” features to computers to make them more useful tools. Almost all AI technologies available today are considered to be weak AI.

AI in medicine

AI is being developed for a broad range of applications in medicine. This includes informatics approaches, including learning in health management systems such as electronic health records, and actively guiding physicians in their treatment decisions.8

AI has been applied to assist administrative workflows that reach beyond automated non-patient care activities such as chart documentation and placing orders. One example is the Judy Reitz Capacity Command Center, which was designed and built with GE Healthcare Partners.9 It combines AI technology in the form of systems engineering and predictive analytics to better manage multiple workflows in different administrative settings, including patient safety, volume, flow, and access to care.9

In April 2018, Intel Corporation surveyed 200 health-care decision makers in the United States regarding their use of AI in practice and their attitudes toward it.10 Overall, 37% of respondents reported using AI and 54% expected to increase their use of AI in the next 5 years. Clinical use of AI (77%) was more common than administrative use (41%) or financial use (26 %).10

Continue to: Box 2

 

 

Box 211-19 describes studies that evaluated the clinical use of AI in specialties other than psychiatry.

Box 2

Beyond psychiatry: Using artificial intelligence in other specialties

Ophthalmology. Multiple studies have evaluated using artificial intelligence (AI) to screen for diabetic retinopathy, which is one of the fastest growing causes of blindness worldwide.11 In a recent study, researchers used a deep learning algorithm to automatically detect diabetic retinopathy and diabetic macular edema by analyzing retinal images. It was trained over a dataset of 128,000 images that were evaluated by 3 to 7 ophthalmologists. The algorithm showed high sensitivity and specificity for detecting referable diabetic retinopathy.11

Cardiology. One study looked at training a deep learning algorithm to predict cardiovascular risk based on analysis of retinal fundus images from 284,335 patients. In this study, the algorithm was able to predict a cardiovascular event in the next 5 years with 70% accuracy.12 The results were based on risk factors not previously thought to be quantifiable in retinal images, such as age, gender, smoking status, systolic blood pressure, and major adverse cardiac events.12 Similarly, researchers in the United Kingdom wanted to assess AI’s ability to predict a first cardiovascular event over 10 years by comparing a machine-learning algorithm to current guidelines from the American College of Cardiology, which include age, smoking history, cholesterol levels, and diabetes history.13 The algorithm was applied to data from approximately 82,000 patients known to have a future cardiac event. It was able to significantly improve the accuracy of cardiovascular risk prediction.13

Radiology. Researchers in the Department of Radiology at Thomas Jefferson University Hospital trained 2 convolutional neural networks (CNNs), AlexNet and GoogleNet, on 150 chest X-ray images to diagnose the presence or absence of tuberculosis (TB).14 They found that the CNNs could accurately classify TB on chest X-ray, with an area under the curve of 0.99.14 The best-performing AI model was a combination of the 2 networks, which had an accuracy of 96%.14

Stroke. The ALADIN trial compared an AI algorithm vs 2 trained neuroradiologists for detecting large artery occlusions on 300 CT scans.15 The algorithm had a sensitivity of 97%, a specificity of 52%, and an accuracy of 78%.15

Surgery. AI in the form of surgical robots has been around for many decades. Probably the best-known surgical robot is the da Vinci Surgical System, which was FDA-approved in 2000 for laparoscopic procedures.16 The da Vinci Surgical System functions as an extension of the human surgeon, who controls the device from a nearby console. Researchers at McGill University developed an anesthesia robot called “McSleepy” that can analyze biological information and recognize malfunctions while constantly adapting its own behavior.17

Dermatology. One study compared the use of deep CNNs vs 21 board-certified dermatologists to identify skin cancer on 2,000 biopsy-proven clinical images.18 The CNNs were capable of classifying skin cancer with a level of competence comparable to that of the dermatologists.18

Pathology. One study compared the efficacy of a CNN to that of human pathologists in detecting breast cancer metastasis to lymph nodes on microscopy images.19 The CNN detected 92.4% of the tumors, whereas the pathologists had a sensitivity of 73.2%.19

How can AI be used in psychiatry?

Artificially intelligent technologies have been used in psychiatry for several decades. One of the earliest examples is ELIZA, a computer program published by Professor Joseph Weizenbaum of the Massachusetts Institute of Technology in 1966.20 ELIZA consisted of a language analyzer and a script or a set of rules to improvise around a certain theme; the script DOCTOR was used to simulate a Rogerian psychotherapist.20

The application of AI in psychiatry has come a long way since the pioneering work of Weizenbaum. A recent study examined AI’s ability to distinguish between an individual who had suicidal ideation vs a control group. Machine-learning algorithms were used to evaluate functional MRI scans of 34 participants (17 who had suicidal ideation and 17 controls) to identify certain neural signatures of concepts related to life and death.21 The machine-learning algorithms were able to distinguish between these 2 groups with 91% accuracy. They also were able to distinguish between individuals who attempted suicide and those who did not with 94% accuracy.21

A study from the University of Cincinnati looked at using machine learning and natural language processing to distinguish genuine suicide notes from “fake” suicide notes that had been written by a healthy control group.22 Sixty-six notes were evaluated and categorized by 11 mental health professionals (psychiatrists, social workers, and emergency medicine physicians) and 31 PGY-3 residents. The accuracy of their results was compared with that of 9 machine-learning algorithms.22 The best machine-learning algorithm accurately classified the notes 78% of the time, compared with 63% of the time for the mental health professionals and 49% of the time for the residents.22

Researchers at Vanderbilt University examined using machine learning to predict suicide risk.23 They developed algorithms to scan electronic health records of 5,167 adults, 3,250 of whom had attempted suicide. In a review of the patients’ data from 1 week to 2 years before the attempt, the algorithms looked for certain predictors of suicide attempts, including recurrent depression, psychotic disorder, and substance use. The algorithm was 80% accurate at predicting whether a patient would attempt suicide within the next 2 years, and 84% accurate at predicting an attempt within the next week.23

Continue to: In a prospective study...

 

 

In a prospective study, researchers at Cincinnati Children’s Hospital used a machine-learning algorithm to evaluate 379 patients who were categorized into 3 groups: suicidal, mentally ill but not suicidal, or controls.24 All participants completed a standardized behavioral rating scale and participated in a semi-structured interview. Based on the participants’ linguistic and acoustic characteristics, the algorithm was able to classify them into the 3 groups with 85% accuracy.24

Many studies have looked at using language analysis to predicting the risk of psychosis in at-risk individuals. In one study, researchers evaluated individuals known to be at high risk for developing psychosis, some of whom eventually did develop psychosis.25 Participants were asked to retell a story and to answer questions about that story. Researchers fed the transcripts of these interviews into a language analysis program that looked at semantic coherence, syntactic complexity, and other factors. The algorithm was able to predict the future occurrence of psychosis with 82% accuracy. Participants who converted to psychosis had decreased semantic coherence and reduced syntactic complexity.25

A similar study looked at 34 at-risk youth in an attempt to predict who would develop psychosis based on speech pattern analysis.26 The participants underwent baseline interviews and were assessed quarterly for 2.5 years. The algorithm was able to predict who would develop psychosis with 100% accuracy.26

 

Challenges and limitations

The amount of research about applying machine learning to various fields of psychiatry continues to grow. With this increased interest, there have been reports of bias and human influence in the various stages of machine learning. Therefore, being aware of these challenges and engaging in practices to minimize their effects are necessary. Such practices include providing more details on data collection and processing, and constantly evaluating machine learning models for their relevance and utility to the research question proposed.27

As is the case with most innovative, fast-growing technologies, AI has its fair share of criticisms and concerns. Critics have focused on the potential threat of privacy issues, medical errors, and ethical concerns. Researchers at the Stanford Center for Biomedical Ethics emphasize the importance of being aware of the different types of bias that humans and algorithm designs can introduce into health data.28

Continue to: The Nuffield Council on Bioethics...

 

 

The Nuffield Council on Bioethics also emphasizes the importance of identifying the ethical issues raised by using AI in health care. Concerns include erroneous decisions made by AI and determining who is responsible for such errors, difficulty in validating the outputs of AI systems, and the potential for AI to be used for malicious purposes.29

For clinicians who are considering implementing AI into their practice, it is vital to recognize where this technology belongs in a workflow and in the decision-making process. Jeffery Axt, a researcher on the clinical applications of AI, encourages clinicians to view using AI as a consulting tool to eliminate the element of fear associated with not having control over diagnostics and management.30

What’s on the horizon

Research into using AI in psychiatry has drawn the attention of large companies. IBM is building an automated speech analysis application that uses machine learning to provide a real-time overview of a patient’s mental health.31 Social media platforms are also starting to incorporate AI technologies to scan posts for language and image patterns suggestive of suicidal thoughts or behavior.32

“Chat bots”—AI that can conduct a conversation in natural language—are becoming popular as well. Woebot is a cognitive-behavioral therapy–based chat bot designed by a Stanford psychologist that can be accessed through Facebook Messenger. In a 2-week study, 70 young adults (age 18 to 28) with depression were randomly assigned to use Woebot or to read mental health e-books.33 Participants who used Woebot experienced a significant reduction in depressive symptoms as measured by change in score on the Patient Health Questionnaire-9, while those assigned to the reading group did not.33

Other researchers have focused on identifying patterns of inattention, hyperactivity, and impulsivity in children using AI technologies such as computer vision, machine learning, and data mining. For example, researchers at the University of Texas at Arlington and Yale University are analyzing data from watching children perform certain tasks involving attention, decision making, and emotion management.34 There have been several advances in using AI to note abnormalities in a child’s gaze pattern that might suggest autism.35

Continue to: A project at...

 

 

A project at the University of Southern California called SimSensei/Multisense uses software to track real-time behavior descriptors such as facial expressions, body postures, and acoustic features that can help identify psychological distress.36 This software is combined with a virtual human platform that communicates with the patient as a therapist would.36

The future of AI in health care appears to have great possibilities. Putting aside irrational fears of being replaced by computers one day, AI may someday be highly transformative, leading to vast improvements in patient care.

Bottom Line

Artificial intelligence (AI) —the development of computer systems able to perform tasks that normally require human intelligence—is being developed for use in a wide range of medical specialties. Potential uses in psychiatry include predicting a patient’s risk for suicide or psychosis. Privacy concerns, ethical issues, and the potential for medical errors are among the challenges of AI use in psychiatry.

Related Resources

  • Durstewitz D, Koppe G, Meyer-Lindenberg A. Deep neural networks in psychiatry. Mol Psychiatry. 2019. doi:10.1038/s41380-019-0365-9.
  • Kretzschmar K, Tyroll H, Pavarini G, et al; NeurOx Young People’s Advisory Group. Can your phone be your therapist? Young people’s ethical perspectives on the use of fully automated conversational agents (chatbots) in mental health support. Biomed Inform Insights. 2019;11:1178222619829083. doi: 10.1177/1178222619829083.

For many people, artificial intelligence (AI) brings to mind some form of humanoid robot that speaks and acts like a human. However, AI is much more than merely robotics and machines. Professor John McCarthy of Stanford University, who first coined the term “artificial intelligence” in the early 1950s, defined it as “the science and engineering of making intelligent machines, especially intelligent computer programs”; he defined intelligence as “the computational part of the ability to achieve goals.”1 Artificial intelligence also is commonly defined as the development of computer systems able to perform tasks that normally require human intelligence.2 English Mathematician Alan Turing is considered one of the forefathers of AI research, and devised the first test to determine if a computer program was intelligent (Box 13). Today, AI has established itself as an integral part of medicine and psychiatry.

Box 1

The Turing Test: How to tell if a computer program is intelligent

During World War II, the English Mathematician Alan Turing helped the British government crack the Enigma machine, a coding device used by the Nazi army. He went on to pioneer many research projects in the field of artificial intelligence, including developing the Turing Test, which can determine if a computer program is intelligent.3 In this test, a human questioner uses a computer interface to pose questions to 2 respondents in different rooms; one of the respondents is a human and the other a computer program. If the questioner cannot tell the difference between the 2 respondents’ answers, then the computer program is deemed to be “artificially intelligent” because it can pass

The semantics of AI

Two subsets of AI are machine learning and deep learning.4,5 Machine learning is defined as a set of methods that can automatically detect patterns in data and then use the uncovered pattern to predict future data.4 Deep learning is a form of machine learning that enables computers to learn from experience and understand the world in terms of a hierarchy of concepts.5

Machine learning can be supervised, semi-supervised, or unsupervised. The majority of practical machine learning uses supervised learning, where all data are labeled and an algorithm is used to learn the mapping function from the input to the output. In unsupervised learning, all data are unlabeled and the algorithm models the underlying structure of the data by itself. Semi-supervised learning is a mixture of both.6

Many researchers also categorize AI into 2 types: general or “strong” AI, and narrow or “weak” AI. Strong AI is defined as computers that can think on a level at least equal to humans and are able to experience emotions and even consciousness.7 Weak AI includes adding “thinking-like” features to computers to make them more useful tools. Almost all AI technologies available today are considered to be weak AI.

AI in medicine

AI is being developed for a broad range of applications in medicine. This includes informatics approaches, including learning in health management systems such as electronic health records, and actively guiding physicians in their treatment decisions.8

AI has been applied to assist administrative workflows that reach beyond automated non-patient care activities such as chart documentation and placing orders. One example is the Judy Reitz Capacity Command Center, which was designed and built with GE Healthcare Partners.9 It combines AI technology in the form of systems engineering and predictive analytics to better manage multiple workflows in different administrative settings, including patient safety, volume, flow, and access to care.9

In April 2018, Intel Corporation surveyed 200 health-care decision makers in the United States regarding their use of AI in practice and their attitudes toward it.10 Overall, 37% of respondents reported using AI and 54% expected to increase their use of AI in the next 5 years. Clinical use of AI (77%) was more common than administrative use (41%) or financial use (26 %).10

Continue to: Box 2

 

 

Box 211-19 describes studies that evaluated the clinical use of AI in specialties other than psychiatry.

Box 2

Beyond psychiatry: Using artificial intelligence in other specialties

Ophthalmology. Multiple studies have evaluated using artificial intelligence (AI) to screen for diabetic retinopathy, which is one of the fastest growing causes of blindness worldwide.11 In a recent study, researchers used a deep learning algorithm to automatically detect diabetic retinopathy and diabetic macular edema by analyzing retinal images. It was trained over a dataset of 128,000 images that were evaluated by 3 to 7 ophthalmologists. The algorithm showed high sensitivity and specificity for detecting referable diabetic retinopathy.11

Cardiology. One study looked at training a deep learning algorithm to predict cardiovascular risk based on analysis of retinal fundus images from 284,335 patients. In this study, the algorithm was able to predict a cardiovascular event in the next 5 years with 70% accuracy.12 The results were based on risk factors not previously thought to be quantifiable in retinal images, such as age, gender, smoking status, systolic blood pressure, and major adverse cardiac events.12 Similarly, researchers in the United Kingdom wanted to assess AI’s ability to predict a first cardiovascular event over 10 years by comparing a machine-learning algorithm to current guidelines from the American College of Cardiology, which include age, smoking history, cholesterol levels, and diabetes history.13 The algorithm was applied to data from approximately 82,000 patients known to have a future cardiac event. It was able to significantly improve the accuracy of cardiovascular risk prediction.13

Radiology. Researchers in the Department of Radiology at Thomas Jefferson University Hospital trained 2 convolutional neural networks (CNNs), AlexNet and GoogleNet, on 150 chest X-ray images to diagnose the presence or absence of tuberculosis (TB).14 They found that the CNNs could accurately classify TB on chest X-ray, with an area under the curve of 0.99.14 The best-performing AI model was a combination of the 2 networks, which had an accuracy of 96%.14

Stroke. The ALADIN trial compared an AI algorithm vs 2 trained neuroradiologists for detecting large artery occlusions on 300 CT scans.15 The algorithm had a sensitivity of 97%, a specificity of 52%, and an accuracy of 78%.15

Surgery. AI in the form of surgical robots has been around for many decades. Probably the best-known surgical robot is the da Vinci Surgical System, which was FDA-approved in 2000 for laparoscopic procedures.16 The da Vinci Surgical System functions as an extension of the human surgeon, who controls the device from a nearby console. Researchers at McGill University developed an anesthesia robot called “McSleepy” that can analyze biological information and recognize malfunctions while constantly adapting its own behavior.17

Dermatology. One study compared the use of deep CNNs vs 21 board-certified dermatologists to identify skin cancer on 2,000 biopsy-proven clinical images.18 The CNNs were capable of classifying skin cancer with a level of competence comparable to that of the dermatologists.18

Pathology. One study compared the efficacy of a CNN to that of human pathologists in detecting breast cancer metastasis to lymph nodes on microscopy images.19 The CNN detected 92.4% of the tumors, whereas the pathologists had a sensitivity of 73.2%.19

How can AI be used in psychiatry?

Artificially intelligent technologies have been used in psychiatry for several decades. One of the earliest examples is ELIZA, a computer program published by Professor Joseph Weizenbaum of the Massachusetts Institute of Technology in 1966.20 ELIZA consisted of a language analyzer and a script or a set of rules to improvise around a certain theme; the script DOCTOR was used to simulate a Rogerian psychotherapist.20

The application of AI in psychiatry has come a long way since the pioneering work of Weizenbaum. A recent study examined AI’s ability to distinguish between an individual who had suicidal ideation vs a control group. Machine-learning algorithms were used to evaluate functional MRI scans of 34 participants (17 who had suicidal ideation and 17 controls) to identify certain neural signatures of concepts related to life and death.21 The machine-learning algorithms were able to distinguish between these 2 groups with 91% accuracy. They also were able to distinguish between individuals who attempted suicide and those who did not with 94% accuracy.21

A study from the University of Cincinnati looked at using machine learning and natural language processing to distinguish genuine suicide notes from “fake” suicide notes that had been written by a healthy control group.22 Sixty-six notes were evaluated and categorized by 11 mental health professionals (psychiatrists, social workers, and emergency medicine physicians) and 31 PGY-3 residents. The accuracy of their results was compared with that of 9 machine-learning algorithms.22 The best machine-learning algorithm accurately classified the notes 78% of the time, compared with 63% of the time for the mental health professionals and 49% of the time for the residents.22

Researchers at Vanderbilt University examined using machine learning to predict suicide risk.23 They developed algorithms to scan electronic health records of 5,167 adults, 3,250 of whom had attempted suicide. In a review of the patients’ data from 1 week to 2 years before the attempt, the algorithms looked for certain predictors of suicide attempts, including recurrent depression, psychotic disorder, and substance use. The algorithm was 80% accurate at predicting whether a patient would attempt suicide within the next 2 years, and 84% accurate at predicting an attempt within the next week.23

Continue to: In a prospective study...

 

 

In a prospective study, researchers at Cincinnati Children’s Hospital used a machine-learning algorithm to evaluate 379 patients who were categorized into 3 groups: suicidal, mentally ill but not suicidal, or controls.24 All participants completed a standardized behavioral rating scale and participated in a semi-structured interview. Based on the participants’ linguistic and acoustic characteristics, the algorithm was able to classify them into the 3 groups with 85% accuracy.24

Many studies have looked at using language analysis to predicting the risk of psychosis in at-risk individuals. In one study, researchers evaluated individuals known to be at high risk for developing psychosis, some of whom eventually did develop psychosis.25 Participants were asked to retell a story and to answer questions about that story. Researchers fed the transcripts of these interviews into a language analysis program that looked at semantic coherence, syntactic complexity, and other factors. The algorithm was able to predict the future occurrence of psychosis with 82% accuracy. Participants who converted to psychosis had decreased semantic coherence and reduced syntactic complexity.25

A similar study looked at 34 at-risk youth in an attempt to predict who would develop psychosis based on speech pattern analysis.26 The participants underwent baseline interviews and were assessed quarterly for 2.5 years. The algorithm was able to predict who would develop psychosis with 100% accuracy.26

 

Challenges and limitations

The amount of research about applying machine learning to various fields of psychiatry continues to grow. With this increased interest, there have been reports of bias and human influence in the various stages of machine learning. Therefore, being aware of these challenges and engaging in practices to minimize their effects are necessary. Such practices include providing more details on data collection and processing, and constantly evaluating machine learning models for their relevance and utility to the research question proposed.27

As is the case with most innovative, fast-growing technologies, AI has its fair share of criticisms and concerns. Critics have focused on the potential threat of privacy issues, medical errors, and ethical concerns. Researchers at the Stanford Center for Biomedical Ethics emphasize the importance of being aware of the different types of bias that humans and algorithm designs can introduce into health data.28

Continue to: The Nuffield Council on Bioethics...

 

 

The Nuffield Council on Bioethics also emphasizes the importance of identifying the ethical issues raised by using AI in health care. Concerns include erroneous decisions made by AI and determining who is responsible for such errors, difficulty in validating the outputs of AI systems, and the potential for AI to be used for malicious purposes.29

For clinicians who are considering implementing AI into their practice, it is vital to recognize where this technology belongs in a workflow and in the decision-making process. Jeffery Axt, a researcher on the clinical applications of AI, encourages clinicians to view using AI as a consulting tool to eliminate the element of fear associated with not having control over diagnostics and management.30

What’s on the horizon

Research into using AI in psychiatry has drawn the attention of large companies. IBM is building an automated speech analysis application that uses machine learning to provide a real-time overview of a patient’s mental health.31 Social media platforms are also starting to incorporate AI technologies to scan posts for language and image patterns suggestive of suicidal thoughts or behavior.32

“Chat bots”—AI that can conduct a conversation in natural language—are becoming popular as well. Woebot is a cognitive-behavioral therapy–based chat bot designed by a Stanford psychologist that can be accessed through Facebook Messenger. In a 2-week study, 70 young adults (age 18 to 28) with depression were randomly assigned to use Woebot or to read mental health e-books.33 Participants who used Woebot experienced a significant reduction in depressive symptoms as measured by change in score on the Patient Health Questionnaire-9, while those assigned to the reading group did not.33

Other researchers have focused on identifying patterns of inattention, hyperactivity, and impulsivity in children using AI technologies such as computer vision, machine learning, and data mining. For example, researchers at the University of Texas at Arlington and Yale University are analyzing data from watching children perform certain tasks involving attention, decision making, and emotion management.34 There have been several advances in using AI to note abnormalities in a child’s gaze pattern that might suggest autism.35

Continue to: A project at...

 

 

A project at the University of Southern California called SimSensei/Multisense uses software to track real-time behavior descriptors such as facial expressions, body postures, and acoustic features that can help identify psychological distress.36 This software is combined with a virtual human platform that communicates with the patient as a therapist would.36

The future of AI in health care appears to have great possibilities. Putting aside irrational fears of being replaced by computers one day, AI may someday be highly transformative, leading to vast improvements in patient care.

Bottom Line

Artificial intelligence (AI) —the development of computer systems able to perform tasks that normally require human intelligence—is being developed for use in a wide range of medical specialties. Potential uses in psychiatry include predicting a patient’s risk for suicide or psychosis. Privacy concerns, ethical issues, and the potential for medical errors are among the challenges of AI use in psychiatry.

Related Resources

  • Durstewitz D, Koppe G, Meyer-Lindenberg A. Deep neural networks in psychiatry. Mol Psychiatry. 2019. doi:10.1038/s41380-019-0365-9.
  • Kretzschmar K, Tyroll H, Pavarini G, et al; NeurOx Young People’s Advisory Group. Can your phone be your therapist? Young people’s ethical perspectives on the use of fully automated conversational agents (chatbots) in mental health support. Biomed Inform Insights. 2019;11:1178222619829083. doi: 10.1177/1178222619829083.
References

1. McCarthy J. What is AI? Basic questions. http://jmc.stanford.edu/artificial-intelligence/what-is-ai/index.html. Accessed July 19, 2019.
2. Oxford Reference. Artificial intelligence. http://www.oxfordreference.com/view/10.1093/oi/authority.20110803095426960. Accessed July 19, 2019.
3. Turing AM. Computing machinery and intelligence. Mind. 1950;49:433-460.
4. Robert C. Book review: machine learning, a probabilistic perspective. CHANCE. 2014;27:2:62-63.
5. Goodfellow I, Bengio Y, Courville A. Deep learning. Cambridge, MA: The MIT Press; 2016.
6. Brownlee J. Supervised and unsupervised machine learning algorithms. https://machinelearningmastery.com/supervised-and-unsupervised-machine-learning-algorithms/. Published March 16, 2016. Accessed July 19, 2019.
7. Russell S, Norvig P. Artificial intelligence: a modern approach. Upper Saddle River, NJ: Pearson; 1995.
8. Hamet P, Tremblay J. Artificial intelligence in medicine. Metabolism. 2017;69S:S36-S40.
9. The Johns Hopkins hospital launches capacity command center to enhance hospital operations. Johns Hopkins Medicine. https://www.hopkinsmedicine.org/news/media/releases/the_johns_hopkins_hospital_launches_capacity_command_center_to_enhance_hospital_operations. Published October 26, 2016. Accessed July, 19 2019.
10. U.S. healthcare leaders expect widespread adoption of artificial intelligence by 2023. Intel. https://newsroom.intel.com/news-releases/u-s-healthcare-leaders-expect-widespread-adoption-artificial-intelligence-2023/#gs.7j7yjk. Published July 2, 2018. Accessed July, 19 2019.
11. Gulshan V, Peng L, Coram M, et al. Development and validation of a deep learning algorithm for detection of diabetic retinopathy in retinal fundus photographs. JAMA. 2016;316(22):2402-2410.
12. Poplin R, Varadarajan AV, Blumer K, et al. Prediction of cardiovascular risk factors from retinal fundus photographs via deep learning. Nature Biomedical Engineering. 2018;2:158-164.
13. Weng SF, Reps J, Kai J, et al. Can machine-learning improve cardiovascular risk prediction using routine clinical data? PLoS One. 2017;12(4):e0174944. doi: 10.1371/journal.pone. 0174944.
14. Lakhani P, Sundaram B. Deep learning at chest radiography: Automated classification of pulmonary tuberculosis by using convolutional neural networks. Radiology. 2017;284(2):574-582.
15. Bluemke DA. Radiology in 2018: Are you working with ai or being replaced by AI? Radiology. 2018;287(2):365-366.
16. Kakar PN, Das J, Roy PM, et al. Robotic invasion of operation theatre and associated anaesthetic issues: A review. Indian J Anaesth. 2011;55(1):18-25.
17. World first: researchers develop completely automated anesthesia system. McGill University. https://www.mcgill.ca/newsroom/channels/news/world-first-researchers-develop-completely-automated-anesthesia-system-100263. Published May 1, 2008. Accessed July 19, 2019.
18. Esteva A, Kuprel B, Novoa RA, et al. Dermatologist-level classification of skin cancer with deep neural networks. Nature. 2017;542(7639):115-118.
19. Liu Y, Gadepalli K, Norouzi M, et al. Detecting cancer metastases on gigapixel pathology images. https://arxiv.org/abs/1703.02442. Published March 8, 2017. Accessed July 19, 2019.
20. Bassett C. The computational therapeutic: exploring Weizenbaum’s ELIZA as a history of the present. AI & Soc. 2018. https://doi.org/10.1007/s00146-018-0825-9.
21. Just MA, Pan L, Cherkassky VL, et al. Machine learning of neural representations of suicide and emotion concepts identifies suicidal youth. Nat Hum Behav. 2017;1:911-919.
22. Pestian J, Nasrallah H, Matykiewicz P, et al. Suicide note classification using natural language processing: a content analysis. Biomed Inform Insights. 2010;2010(3):19-28.
23. Walsh CG, Ribeiro JD, Franklin JC. Predicting risk of suicide attempts over time through machine learning. Clinical Psychological Science. 2017;5(3):457-469.
24. Pestian JP, Sorter M, Connolly B, et al; STM Research Group. A machine learning approach to identifying the thought markers of suicidal subjects: a prospective multicenter trial. Suicide Life Threat Behav. 2017;47(1):112-121.
25. Corcoran CM, Carrillo F, Fernández-Slezak D, et al. Prediction of psychosis across protocols and risk cohorts using automated language analysis. World Psychiatry. 2018;17(1):67-75.
26. Bedi G, Carrillo F, Cecchi GA, et al. Automated analysis of free speech predicts psychosis onset in high-risk youths. NPJ Schizophr. 2015;1:15030. doi:10.1038/npjschz.2015.30.
27. Tandon N, Tandon R. Will machine learning enable us to finally cut the Gordian Knot of schizophrenia. Schizophr Bull. 2018;44(5):939-941.
28. Char DS, Shah NH, Magnus D. Implementing machine learning in health care - addressing ethical challenges. N Engl J Med. 2018;378(11):981-983.
29. Nuffield Council on Bioethics. The big ethical questions for artificial intelligence (AI) in healthcare. http://nuffieldbioethics.org/news/2018/big-ethical-questions-artificial-intelligence-ai-healthcare. Published May 15, 2018. Accessed July 19, 2019.
30. Axt J. Artificial neural networks: a systematic review of their efficacy as an innovative resource for health care practice managers. https://www.researchgate.net/publication/322101587_Running_head_ANN_EFFICACY_IN_HEALTHCARE-A_SYSTEMATIC_REVIEW_1_Artificial_Neural_Networks_A_systematic_review_of_their_efficacy_as_an_innovative_resource_for_healthcare_practice_managers. Published October 2017. Accessed July 19, 2019.
31. Cecchi G. IBM 5 in 5: with AI, our words will be a window into our mental health. IBM Research Blog. https://www.ibm.com/blogs/research/2017/1/ibm-5-in-5-our-words-will-be-the-windows-to-our-mental-health/. Published January 5, 2017. Accessed July 19, 2019.
32. Constine J. Facebook rolls out AI to detect suicidal posts before they’re reported. TechCrunch. http://tcrn.ch/2hUBi3B. Published November 27, 2017. Accessed July 19, 2019.
33. Fitzpatrick KK, Darcy A, Vierhile M. Delivering cognitive behavior therapy to young adults with symptoms of depression and anxiety using a fully automated conversational agent (Woebot): a randomized controlled trial. JMIR Ment Health. 2017;4(2):e19. doi:10.2196/mental.7785.
34. UTA researchers use artificial intelligence to assess, enhance cognitive abilities in school-aged children. University of Texas at Arlington. https://www.uta.edu/news/releases/2016/10/makedon-children-learning-difficulties.php. Published October 13, 2016. Accessed July 19, 2019.
35. Nealon C. App for early autism detection launched on World Autism Awareness Day, April 2. University at Buffalo. http://www.buffalo.edu/news/releases/2018/04/001.html. Published April 2, 2018. Accessed July 19, 2019.
36. SimSensei. University of Southern California Institute for Creative Technologies. http://ict.usc.edu/prototypes/simsensei/. Accessed July 19, 2019.

References

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