Hair & Nails

TOPLINE:

Low-dose oral minoxidil (LDOM), used off-label to treat alopecia, does not significantly affect blood pressure (BP) in patients with alopecia, but is associated with a slight increase in heart rate and a 5% incidence of hypotensive symptoms.

METHODOLOGY:

• Researchers conducted a systematic review and meta-analysis of 16 studies, which involved 2387 patients with alopecia (60.7% women) who received minoxidil, a vasodilator originally developed as an antihypertensive, at doses of 5 mg or less per day.
• Outcomes included changes in mean arterial pressure, systolic BP, diastolic BP, and heart rate.
• Mean differences were calculated between pretreatment and posttreatment values.

TAKEAWAY:

• Hypotensive symptoms were reported in 5% patients, with no significant hypotensive episodes. About 1.8% patients experienced lightheadedness or syncope, 1.2% experienced dizziness, 0.9% had tachycardia, and 0.8% had palpitations.
• LDOM did not significantly alter systolic BP (mean difference, –0.13; 95% CI, –2.67 to 2.41), diastolic BP (mean difference, –1.25; 95% CI, –3.21 to 0.71), and mean arterial pressure (mean difference, –1.92; 95% CI, –4.00 to 0.17).
• LDOM led to a significant increase in heart rate (mean difference, 2.67 beats/min; 95% CI, 0.34-5.01), a difference the authors wrote would “likely not be clinically significant for most patients.”
• Hypertrichosis was the most common side effect (59.6%) and reason for stopping treatment (accounting for nearly 35% of discontinuations).

IN PRACTICE:

“LDOM appears to be a safe treatment for alopecia with no significant impact on blood pressure,” the authors wrote, noting that the study “addresses gaps in clinical knowledge involving LDOM.” Based on their results, they recommended that BP and heart rate “do not need to be closely monitored in patients without prior cardiovascular risk history.”

SOURCE:

The study was led by Matthew Chen, BS, Stony Brook Dermatology in New York. It was published online in The Journal of the American Academy of Dermatology.

LIMITATIONS:

The studies included had small sample sizes and retrospective designs, which may limit the reliability of the findings. Additional limitations include the absence of control groups, a potential recall bias in adverse effect reporting, and variability in dosing regimens and BP monitoring. 

DISCLOSURES:

The authors reported no external funding or conflicts of interest.

This article was created using several editorial tools, including AI, as part of the process. Human editors reviewed this content before publication. A version of this article first appeared on Medscape.com.

TOPLINE:

Low-dose oral minoxidil (LDOM), used off-label to treat alopecia, does not significantly affect blood pressure (BP) in patients with alopecia, but is associated with a slight increase in heart rate and a 5% incidence of hypotensive symptoms.

METHODOLOGY:

• Researchers conducted a systematic review and meta-analysis of 16 studies, which involved 2387 patients with alopecia (60.7% women) who received minoxidil, a vasodilator originally developed as an antihypertensive, at doses of 5 mg or less per day.
• Outcomes included changes in mean arterial pressure, systolic BP, diastolic BP, and heart rate.
• Mean differences were calculated between pretreatment and posttreatment values.

TAKEAWAY:

• Hypotensive symptoms were reported in 5% patients, with no significant hypotensive episodes. About 1.8% patients experienced lightheadedness or syncope, 1.2% experienced dizziness, 0.9% had tachycardia, and 0.8% had palpitations.
• LDOM did not significantly alter systolic BP (mean difference, –0.13; 95% CI, –2.67 to 2.41), diastolic BP (mean difference, –1.25; 95% CI, –3.21 to 0.71), and mean arterial pressure (mean difference, –1.92; 95% CI, –4.00 to 0.17).
• LDOM led to a significant increase in heart rate (mean difference, 2.67 beats/min; 95% CI, 0.34-5.01), a difference the authors wrote would “likely not be clinically significant for most patients.”
• Hypertrichosis was the most common side effect (59.6%) and reason for stopping treatment (accounting for nearly 35% of discontinuations).

IN PRACTICE:

“LDOM appears to be a safe treatment for alopecia with no significant impact on blood pressure,” the authors wrote, noting that the study “addresses gaps in clinical knowledge involving LDOM.” Based on their results, they recommended that BP and heart rate “do not need to be closely monitored in patients without prior cardiovascular risk history.”

SOURCE:

The study was led by Matthew Chen, BS, Stony Brook Dermatology in New York. It was published online in The Journal of the American Academy of Dermatology.

LIMITATIONS:

The studies included had small sample sizes and retrospective designs, which may limit the reliability of the findings. Additional limitations include the absence of control groups, a potential recall bias in adverse effect reporting, and variability in dosing regimens and BP monitoring. 

DISCLOSURES:

The authors reported no external funding or conflicts of interest.

This article was created using several editorial tools, including AI, as part of the process. Human editors reviewed this content before publication. A version of this article first appeared on Medscape.com.

TOPLINE:

Low-dose oral minoxidil (LDOM), used off-label to treat alopecia, does not significantly affect blood pressure (BP) in patients with alopecia, but is associated with a slight increase in heart rate and a 5% incidence of hypotensive symptoms.

METHODOLOGY:

• Researchers conducted a systematic review and meta-analysis of 16 studies, which involved 2387 patients with alopecia (60.7% women) who received minoxidil, a vasodilator originally developed as an antihypertensive, at doses of 5 mg or less per day.
• Outcomes included changes in mean arterial pressure, systolic BP, diastolic BP, and heart rate.
• Mean differences were calculated between pretreatment and posttreatment values.

TAKEAWAY:

• Hypotensive symptoms were reported in 5% patients, with no significant hypotensive episodes. About 1.8% patients experienced lightheadedness or syncope, 1.2% experienced dizziness, 0.9% had tachycardia, and 0.8% had palpitations.
• LDOM did not significantly alter systolic BP (mean difference, –0.13; 95% CI, –2.67 to 2.41), diastolic BP (mean difference, –1.25; 95% CI, –3.21 to 0.71), and mean arterial pressure (mean difference, –1.92; 95% CI, –4.00 to 0.17).
• LDOM led to a significant increase in heart rate (mean difference, 2.67 beats/min; 95% CI, 0.34-5.01), a difference the authors wrote would “likely not be clinically significant for most patients.”
• Hypertrichosis was the most common side effect (59.6%) and reason for stopping treatment (accounting for nearly 35% of discontinuations).

IN PRACTICE:

“LDOM appears to be a safe treatment for alopecia with no significant impact on blood pressure,” the authors wrote, noting that the study “addresses gaps in clinical knowledge involving LDOM.” Based on their results, they recommended that BP and heart rate “do not need to be closely monitored in patients without prior cardiovascular risk history.”

SOURCE:

The study was led by Matthew Chen, BS, Stony Brook Dermatology in New York. It was published online in The Journal of the American Academy of Dermatology.

LIMITATIONS:

The studies included had small sample sizes and retrospective designs, which may limit the reliability of the findings. Additional limitations include the absence of control groups, a potential recall bias in adverse effect reporting, and variability in dosing regimens and BP monitoring. 

DISCLOSURES:

The authors reported no external funding or conflicts of interest.

This article was created using several editorial tools, including AI, as part of the process. Human editors reviewed this content before publication. A version of this article first appeared on Medscape.com.

Treatment with ruxolitinib cream (1.5%) achieved rapid and marked reductions in the clinical signs and symptoms of cutaneous lichen planus, including itch and skin pain, both when given twice daily and as needed, according to data from a phase 2 trial.

The research, presented at the European Academy of Dermatology and Venereology (EADV) 2024 Congress, involved 64 patients older than 18 years. Ruxolitinib cream (Opzelura) is a topical formulation of a Janus kinase (JAK)1/JAK2 inhibitor, approved by the Food and Drug Administration (FDA) for treating mild to moderate atopic dermatitis and for nonsegmental vitiligo in adults and children aged 12 years or older.

 

Courtesy Dr. Aaron Mangold

Ruxolitinib cream twice daily resulted in “significant improvements in cutaneous lichen planus disease severity vs vehicle” after 16 weeks of treatment, said the study presenter, Aaron R. Mangold, MD, a dermatologist at Mayo Clinic, Scottsdale, Arizona.

Further improvements were seen during another 16 weeks of additional open-label, as-needed application, he added, and the topical treatment was “generally well tolerated.”

Consequently, “ruxolitinib cream represents a promising potential treatment for cutaneous lichen planus,” Mangold concluded.

Asked to comment on the results, Adam Friedman, MD, Professor and Chair of Dermatology, George Washington University, Washington, DC, who was not involved with the study, said that in keeping with the characterization of lichen planus using the four Ps — purple, polygonal, pruritic, papules — it is “Pretty common, Predictably disabling and disfiguring, and Passed over again and again in the drug development world.”

He said in an interview that this chronic inflammatory skin condition, which affects roughly 2% of the population, also “lacks consensus on work-up and management, likely in part owing to the absence of sizable clinical trial data.”

A recent survey conducted at a meeting indicated that dermatologists “heavily lean on topical therapies for the management of all severity levels,” noted Friedman, one of the survey authors. “Therefore, the phase 2 data presented at EADV is a welcome addition to the mix.”
 

Phase 2 Study Results 

At the meeting, Mangold said that a previous proof-of-concept single-arm study in 12 patients suggested that topical ruxolitinib was highly effective in treating cutaneous lichen planus.

The current phase 2 trial enrolled 64 patients with predominantly cutaneous disease who had an Investigator’s Global Assessment (IGA) score of 3 or 4 and an Itch Numeric Rating Scale (NRS) score of ≥ 4. Their median age was 57 years, and 71.9% were women. Nearly 63% were White, 28.1% were Black, and 6.3% were Asian. The median duration of disease was 4.9 years, and 90.6% had received prior treatment for their lichen planus.

They were randomized to receive 1.5% ruxolitinib cream or a vehicle cream twice daily for 16 weeks, and following a primary endpoint assessment, they were transferred to an open-label extension period, during which they used ruxolitinib cream as needed for another 16 weeks. There was an additional 30-day safety follow-up period.

At week 16, significantly more patients treated with the ruxolitinib cream (50.0%) vs vehicle cream (21.9%) achieved IGA treatment success (the primary endpoint), defined as an IGA score of 0 or 1 with ≥ 2-grade improvement from baseline (odds ratio, 4.04; P = .0129).

In the open-label extension, when all patients used the active cream as needed, the proportion achieving IGA treatment success increased to 60% among the patients originally treated with ruxolitinib cream and 60.9% among those who switched from the vehicle cream.

A similar pattern was seen with Itch NRS scores. At 16 weeks, 57.7% of those treated with the ruxolitinib cream and 19.2% of those given the vehicle cream achieved an Itch NRS score of ≥ 4 (P < .01), rising to 84.2% and 73.3%, respectively, during the open-label extension.

The time to achievement of an Itch NRS of ≥ 4 was also significantly shorter with the ruxolitinib cream than with the vehicle cream (median days, 17 vs 97; hazard ratio, 2.85; P = .0008).

In both treatment groups, Skin Pain NRS scores decreased by a mean of 3.0 with ruxolitinib cream and 1.3 with the vehicle cream at week 16. By the end of the open-label extension, scores dropped by 4.3 among those who continued on active treatment and by 3.5 among those who switched from vehicle to topical ruxolitinib.

There were few treatment-emergent adverse events, with just three ruxolitinib patients affected during the randomized phase of the trial. There was one grade ≥ 3 event considered unrelated to the study drug, and no serious treatment-emergent adverse events were reported.

The most common adverse events during the randomized period were nasopharyngitis, hypertension, and contusion, all experienced by fewer than 10% of patients, whereas sinusitis, increased blood cholesterol levels, and increased blood creatine phosphokinase were most common in the open-label extension, experienced by no more than 5% of patients.

In the interview, Friedman commented that “these data provide hope that one day soon, there will be an FDA-approved, effective, and well-tolerated approach for this condition, validating the patient and supporting the dermatologist with an evidence-based option.”

The study was funded by Incyte. Mangold declared relationships with Argenx, Boehringer Ingelheim, Bristol-Myers Squibb, Clarivate, Incyte Corporation, Janssen, Nuvig Therapeutics, Pfizer, Regeneron Pharmaceuticals, Soligenix, Tourmaline Bio, AbbVie, Corbus, Eli Lilly, Kyowa, Merck, miRagen Therapeutics, Palvella Therapeutics, Priovant Therapeutics, and Adelphi Values. Friedman declared a relationship with Incyte, but it is not related to this topic.

A version of this article first appeared on Medscape.com.

Treatment with ruxolitinib cream (1.5%) achieved rapid and marked reductions in the clinical signs and symptoms of cutaneous lichen planus, including itch and skin pain, both when given twice daily and as needed, according to data from a phase 2 trial.

The research, presented at the European Academy of Dermatology and Venereology (EADV) 2024 Congress, involved 64 patients older than 18 years. Ruxolitinib cream (Opzelura) is a topical formulation of a Janus kinase (JAK)1/JAK2 inhibitor, approved by the Food and Drug Administration (FDA) for treating mild to moderate atopic dermatitis and for nonsegmental vitiligo in adults and children aged 12 years or older.

 

Courtesy Dr. Aaron Mangold

Ruxolitinib cream twice daily resulted in “significant improvements in cutaneous lichen planus disease severity vs vehicle” after 16 weeks of treatment, said the study presenter, Aaron R. Mangold, MD, a dermatologist at Mayo Clinic, Scottsdale, Arizona.

Further improvements were seen during another 16 weeks of additional open-label, as-needed application, he added, and the topical treatment was “generally well tolerated.”

Consequently, “ruxolitinib cream represents a promising potential treatment for cutaneous lichen planus,” Mangold concluded.

Asked to comment on the results, Adam Friedman, MD, Professor and Chair of Dermatology, George Washington University, Washington, DC, who was not involved with the study, said that in keeping with the characterization of lichen planus using the four Ps — purple, polygonal, pruritic, papules — it is “Pretty common, Predictably disabling and disfiguring, and Passed over again and again in the drug development world.”

He said in an interview that this chronic inflammatory skin condition, which affects roughly 2% of the population, also “lacks consensus on work-up and management, likely in part owing to the absence of sizable clinical trial data.”

A recent survey conducted at a meeting indicated that dermatologists “heavily lean on topical therapies for the management of all severity levels,” noted Friedman, one of the survey authors. “Therefore, the phase 2 data presented at EADV is a welcome addition to the mix.”
 

Phase 2 Study Results 

At the meeting, Mangold said that a previous proof-of-concept single-arm study in 12 patients suggested that topical ruxolitinib was highly effective in treating cutaneous lichen planus.

The current phase 2 trial enrolled 64 patients with predominantly cutaneous disease who had an Investigator’s Global Assessment (IGA) score of 3 or 4 and an Itch Numeric Rating Scale (NRS) score of ≥ 4. Their median age was 57 years, and 71.9% were women. Nearly 63% were White, 28.1% were Black, and 6.3% were Asian. The median duration of disease was 4.9 years, and 90.6% had received prior treatment for their lichen planus.

They were randomized to receive 1.5% ruxolitinib cream or a vehicle cream twice daily for 16 weeks, and following a primary endpoint assessment, they were transferred to an open-label extension period, during which they used ruxolitinib cream as needed for another 16 weeks. There was an additional 30-day safety follow-up period.

At week 16, significantly more patients treated with the ruxolitinib cream (50.0%) vs vehicle cream (21.9%) achieved IGA treatment success (the primary endpoint), defined as an IGA score of 0 or 1 with ≥ 2-grade improvement from baseline (odds ratio, 4.04; P = .0129).

In the open-label extension, when all patients used the active cream as needed, the proportion achieving IGA treatment success increased to 60% among the patients originally treated with ruxolitinib cream and 60.9% among those who switched from the vehicle cream.

A similar pattern was seen with Itch NRS scores. At 16 weeks, 57.7% of those treated with the ruxolitinib cream and 19.2% of those given the vehicle cream achieved an Itch NRS score of ≥ 4 (P < .01), rising to 84.2% and 73.3%, respectively, during the open-label extension.

The time to achievement of an Itch NRS of ≥ 4 was also significantly shorter with the ruxolitinib cream than with the vehicle cream (median days, 17 vs 97; hazard ratio, 2.85; P = .0008).

In both treatment groups, Skin Pain NRS scores decreased by a mean of 3.0 with ruxolitinib cream and 1.3 with the vehicle cream at week 16. By the end of the open-label extension, scores dropped by 4.3 among those who continued on active treatment and by 3.5 among those who switched from vehicle to topical ruxolitinib.

There were few treatment-emergent adverse events, with just three ruxolitinib patients affected during the randomized phase of the trial. There was one grade ≥ 3 event considered unrelated to the study drug, and no serious treatment-emergent adverse events were reported.

The most common adverse events during the randomized period were nasopharyngitis, hypertension, and contusion, all experienced by fewer than 10% of patients, whereas sinusitis, increased blood cholesterol levels, and increased blood creatine phosphokinase were most common in the open-label extension, experienced by no more than 5% of patients.

In the interview, Friedman commented that “these data provide hope that one day soon, there will be an FDA-approved, effective, and well-tolerated approach for this condition, validating the patient and supporting the dermatologist with an evidence-based option.”

The study was funded by Incyte. Mangold declared relationships with Argenx, Boehringer Ingelheim, Bristol-Myers Squibb, Clarivate, Incyte Corporation, Janssen, Nuvig Therapeutics, Pfizer, Regeneron Pharmaceuticals, Soligenix, Tourmaline Bio, AbbVie, Corbus, Eli Lilly, Kyowa, Merck, miRagen Therapeutics, Palvella Therapeutics, Priovant Therapeutics, and Adelphi Values. Friedman declared a relationship with Incyte, but it is not related to this topic.

A version of this article first appeared on Medscape.com.

Treatment with ruxolitinib cream (1.5%) achieved rapid and marked reductions in the clinical signs and symptoms of cutaneous lichen planus, including itch and skin pain, both when given twice daily and as needed, according to data from a phase 2 trial.

The research, presented at the European Academy of Dermatology and Venereology (EADV) 2024 Congress, involved 64 patients older than 18 years. Ruxolitinib cream (Opzelura) is a topical formulation of a Janus kinase (JAK)1/JAK2 inhibitor, approved by the Food and Drug Administration (FDA) for treating mild to moderate atopic dermatitis and for nonsegmental vitiligo in adults and children aged 12 years or older.

 

Courtesy Dr. Aaron Mangold

Ruxolitinib cream twice daily resulted in “significant improvements in cutaneous lichen planus disease severity vs vehicle” after 16 weeks of treatment, said the study presenter, Aaron R. Mangold, MD, a dermatologist at Mayo Clinic, Scottsdale, Arizona.

Further improvements were seen during another 16 weeks of additional open-label, as-needed application, he added, and the topical treatment was “generally well tolerated.”

Consequently, “ruxolitinib cream represents a promising potential treatment for cutaneous lichen planus,” Mangold concluded.

Asked to comment on the results, Adam Friedman, MD, Professor and Chair of Dermatology, George Washington University, Washington, DC, who was not involved with the study, said that in keeping with the characterization of lichen planus using the four Ps — purple, polygonal, pruritic, papules — it is “Pretty common, Predictably disabling and disfiguring, and Passed over again and again in the drug development world.”

He said in an interview that this chronic inflammatory skin condition, which affects roughly 2% of the population, also “lacks consensus on work-up and management, likely in part owing to the absence of sizable clinical trial data.”

A recent survey conducted at a meeting indicated that dermatologists “heavily lean on topical therapies for the management of all severity levels,” noted Friedman, one of the survey authors. “Therefore, the phase 2 data presented at EADV is a welcome addition to the mix.”
 

Phase 2 Study Results 

At the meeting, Mangold said that a previous proof-of-concept single-arm study in 12 patients suggested that topical ruxolitinib was highly effective in treating cutaneous lichen planus.

The current phase 2 trial enrolled 64 patients with predominantly cutaneous disease who had an Investigator’s Global Assessment (IGA) score of 3 or 4 and an Itch Numeric Rating Scale (NRS) score of ≥ 4. Their median age was 57 years, and 71.9% were women. Nearly 63% were White, 28.1% were Black, and 6.3% were Asian. The median duration of disease was 4.9 years, and 90.6% had received prior treatment for their lichen planus.

They were randomized to receive 1.5% ruxolitinib cream or a vehicle cream twice daily for 16 weeks, and following a primary endpoint assessment, they were transferred to an open-label extension period, during which they used ruxolitinib cream as needed for another 16 weeks. There was an additional 30-day safety follow-up period.

At week 16, significantly more patients treated with the ruxolitinib cream (50.0%) vs vehicle cream (21.9%) achieved IGA treatment success (the primary endpoint), defined as an IGA score of 0 or 1 with ≥ 2-grade improvement from baseline (odds ratio, 4.04; P = .0129).

In the open-label extension, when all patients used the active cream as needed, the proportion achieving IGA treatment success increased to 60% among the patients originally treated with ruxolitinib cream and 60.9% among those who switched from the vehicle cream.

A similar pattern was seen with Itch NRS scores. At 16 weeks, 57.7% of those treated with the ruxolitinib cream and 19.2% of those given the vehicle cream achieved an Itch NRS score of ≥ 4 (P < .01), rising to 84.2% and 73.3%, respectively, during the open-label extension.

The time to achievement of an Itch NRS of ≥ 4 was also significantly shorter with the ruxolitinib cream than with the vehicle cream (median days, 17 vs 97; hazard ratio, 2.85; P = .0008).

In both treatment groups, Skin Pain NRS scores decreased by a mean of 3.0 with ruxolitinib cream and 1.3 with the vehicle cream at week 16. By the end of the open-label extension, scores dropped by 4.3 among those who continued on active treatment and by 3.5 among those who switched from vehicle to topical ruxolitinib.

There were few treatment-emergent adverse events, with just three ruxolitinib patients affected during the randomized phase of the trial. There was one grade ≥ 3 event considered unrelated to the study drug, and no serious treatment-emergent adverse events were reported.

The most common adverse events during the randomized period were nasopharyngitis, hypertension, and contusion, all experienced by fewer than 10% of patients, whereas sinusitis, increased blood cholesterol levels, and increased blood creatine phosphokinase were most common in the open-label extension, experienced by no more than 5% of patients.

In the interview, Friedman commented that “these data provide hope that one day soon, there will be an FDA-approved, effective, and well-tolerated approach for this condition, validating the patient and supporting the dermatologist with an evidence-based option.”

The study was funded by Incyte. Mangold declared relationships with Argenx, Boehringer Ingelheim, Bristol-Myers Squibb, Clarivate, Incyte Corporation, Janssen, Nuvig Therapeutics, Pfizer, Regeneron Pharmaceuticals, Soligenix, Tourmaline Bio, AbbVie, Corbus, Eli Lilly, Kyowa, Merck, miRagen Therapeutics, Palvella Therapeutics, Priovant Therapeutics, and Adelphi Values. Friedman declared a relationship with Incyte, but it is not related to this topic.

A version of this article first appeared on Medscape.com.

Cosmetic procedures carry inherent risks of adverse events. Transient and permanent alopecia are rare complications of these procedures. Although they have not been fully elucidated, several pathologic mechanisms for hair loss following cosmetic procedures have been proposed, including extravascular compression (a phenomenon that has been well documented in bed­ridden patients) as well as intravascular occlusion leading to inflammation and necrosis, which has been associated with hyaluronic acid (HA) fillers.¹ Cases of alopecia also have been reported following mesotherapy and calcium hydroxyapatite, deoxycholic acid, and botulinum toxin injections.² We report a case of alopecia resulting from poly-L-lactic acid (PLLA) injection in a 35-year-old woman with the intent to raise awareness of this rare adverse event.

Case Report

A healthy 35-year-old woman received aesthetic PLLA injections on the face and frontal hairline performed by an outside dermatologist using the vector technique. During the procedure, the patient experienced intense itchiness at the right temporal artery vascular territory and reported a substantial headache the next day. She also presented with erythema and edema of the frontal and right parietal scalp with a well-delimited livedoid vascular area along the temporal artery territory on the right side of the head 1 day after the procedure (Figure 1). These signs were reported to the outside dermatologist who performed the procedure, but they were not assumed to be adverse events at that time.

The condition persisted for 4 days followed by the development of an irregular 3×2-cm patch of alopecia on the right parietal scalp. A 3-day course of self-administered oral prednisolone 0.2 mg/kg/d was prescribed.

Twenty-seven days after the procedure, the patient presented to our trichology clinic for evaluation of a single patch of nonscarring alopecia on the right parietal scalp. Trichoscopy showed multiple yellow and black dots, broken hairs, pigment deposits, and an erythematous background mainly composed of linear telangiectatic vessels (Figure 2). Histopathologic analysis revealed a lymphocytic inflammatory infiltrate surrounding the follicular units that was compatible with an alopecia areata–like pattern as well as PLLA deposits in the subcutaneous tissue forming foreign body granulomas (Figure 3). The diagnosis of PLLA-induced alopecia was made based on the detection of PLLA at the biopsy site within the patchy alopecia.

Comment

Poly-L-lactic acid is a biostimulator synthesized from the α-hydroxy acid family in 1954 that has been safely used in suture materials, resorbable plates, and orthopedic screws.⁴ Alopecia has been reported as a systemic allergic reaction to biodegradable screws following an orthopedic procedure.⁵ Prior reports of embolization and retinal ischemia with PLLA have raised concerns regarding its occlusive potential.^6-9

Approved by the US Food and Drug Administration in 2004 for soft tissue restoration in HIV-related lipoatrophy, PLLA was expanded to cosmetic applications in 2009. As previously reported with HA fillers, we hypothesize that extravascular compression resulting from the placement of the filler material (due to the volume injected in the scalp area) contributes to the development of alopecia plus PLLA embolism–induced ischemic alopecia in the affected areas.¹⁰ In our case, the diagnosis of PLLA-induced alopecia was confirmed based on the finding of the filler material in the subcutaneous tissue on histopathology, probably due to embolization. Moreover, trichoscopic findings were all similar to those described after HA embolization.¹¹ The features found in our patient due to the PLLA local reaction were similar to those seen in other conditions such as alopecia areata, pressure alopecia, and chemotherapy-induced alopecia; therefore, histopathology confirmation is mandatory in cases of hair loss associated with PLLA.

The emergence of a secondary patch of alopecia prompts consideration of an intrinsic late inflammatory propensity of PLLA. Immune cells recognize PLLA as a foreign body, and subclinical inflammatory foreign body reactions can cause PLLA-induced collagen synthesis.¹² This phenomenon underscores the need for further investigation into the immunologic implications of PLLA in alopecia pathogenesis.

The angiogenic properties of the anagen phase require an adequate blood supply for effective hair growth; therefore, the lack of blood and nutrient supply to the hair bulb triggers miniaturization, a possible explanation for the hair thinning found in the alopecic patch.¹³

Conclusion

Alopecia as an adverse effect of cosmetic procedures can be distressing for patients, even when reversible. A detailed understanding of scalp anatomy is critical for satisfactory outcomes with aesthetic procedures. Physicians must pay attention to the amount and area of material injected in order to avoid possible mechanisms of ischemia—embolization and/or extravascular compression—especially in highly vascularized areas.

We present a rare report of alopecia as an adverse event of PLLA injection. Dermatologists must be aware of this rare condition, and trichoscopy combined with histopathologic analysis are encouraged for early recognition and proper management.

Cosmetic procedures carry inherent risks of adverse events. Transient and permanent alopecia are rare complications of these procedures. Although they have not been fully elucidated, several pathologic mechanisms for hair loss following cosmetic procedures have been proposed, including extravascular compression (a phenomenon that has been well documented in bed­ridden patients) as well as intravascular occlusion leading to inflammation and necrosis, which has been associated with hyaluronic acid (HA) fillers.¹ Cases of alopecia also have been reported following mesotherapy and calcium hydroxyapatite, deoxycholic acid, and botulinum toxin injections.² We report a case of alopecia resulting from poly-L-lactic acid (PLLA) injection in a 35-year-old woman with the intent to raise awareness of this rare adverse event.

Case Report

A healthy 35-year-old woman received aesthetic PLLA injections on the face and frontal hairline performed by an outside dermatologist using the vector technique. During the procedure, the patient experienced intense itchiness at the right temporal artery vascular territory and reported a substantial headache the next day. She also presented with erythema and edema of the frontal and right parietal scalp with a well-delimited livedoid vascular area along the temporal artery territory on the right side of the head 1 day after the procedure (Figure 1). These signs were reported to the outside dermatologist who performed the procedure, but they were not assumed to be adverse events at that time.

The condition persisted for 4 days followed by the development of an irregular 3×2-cm patch of alopecia on the right parietal scalp. A 3-day course of self-administered oral prednisolone 0.2 mg/kg/d was prescribed.

Twenty-seven days after the procedure, the patient presented to our trichology clinic for evaluation of a single patch of nonscarring alopecia on the right parietal scalp. Trichoscopy showed multiple yellow and black dots, broken hairs, pigment deposits, and an erythematous background mainly composed of linear telangiectatic vessels (Figure 2). Histopathologic analysis revealed a lymphocytic inflammatory infiltrate surrounding the follicular units that was compatible with an alopecia areata–like pattern as well as PLLA deposits in the subcutaneous tissue forming foreign body granulomas (Figure 3). The diagnosis of PLLA-induced alopecia was made based on the detection of PLLA at the biopsy site within the patchy alopecia.

Comment

Poly-L-lactic acid is a biostimulator synthesized from the α-hydroxy acid family in 1954 that has been safely used in suture materials, resorbable plates, and orthopedic screws.⁴ Alopecia has been reported as a systemic allergic reaction to biodegradable screws following an orthopedic procedure.⁵ Prior reports of embolization and retinal ischemia with PLLA have raised concerns regarding its occlusive potential.^6-9

Approved by the US Food and Drug Administration in 2004 for soft tissue restoration in HIV-related lipoatrophy, PLLA was expanded to cosmetic applications in 2009. As previously reported with HA fillers, we hypothesize that extravascular compression resulting from the placement of the filler material (due to the volume injected in the scalp area) contributes to the development of alopecia plus PLLA embolism–induced ischemic alopecia in the affected areas.¹⁰ In our case, the diagnosis of PLLA-induced alopecia was confirmed based on the finding of the filler material in the subcutaneous tissue on histopathology, probably due to embolization. Moreover, trichoscopic findings were all similar to those described after HA embolization.¹¹ The features found in our patient due to the PLLA local reaction were similar to those seen in other conditions such as alopecia areata, pressure alopecia, and chemotherapy-induced alopecia; therefore, histopathology confirmation is mandatory in cases of hair loss associated with PLLA.

The emergence of a secondary patch of alopecia prompts consideration of an intrinsic late inflammatory propensity of PLLA. Immune cells recognize PLLA as a foreign body, and subclinical inflammatory foreign body reactions can cause PLLA-induced collagen synthesis.¹² This phenomenon underscores the need for further investigation into the immunologic implications of PLLA in alopecia pathogenesis.

The angiogenic properties of the anagen phase require an adequate blood supply for effective hair growth; therefore, the lack of blood and nutrient supply to the hair bulb triggers miniaturization, a possible explanation for the hair thinning found in the alopecic patch.¹³

Conclusion

Alopecia as an adverse effect of cosmetic procedures can be distressing for patients, even when reversible. A detailed understanding of scalp anatomy is critical for satisfactory outcomes with aesthetic procedures. Physicians must pay attention to the amount and area of material injected in order to avoid possible mechanisms of ischemia—embolization and/or extravascular compression—especially in highly vascularized areas.

We present a rare report of alopecia as an adverse event of PLLA injection. Dermatologists must be aware of this rare condition, and trichoscopy combined with histopathologic analysis are encouraged for early recognition and proper management.

Cosmetic procedures carry inherent risks of adverse events. Transient and permanent alopecia are rare complications of these procedures. Although they have not been fully elucidated, several pathologic mechanisms for hair loss following cosmetic procedures have been proposed, including extravascular compression (a phenomenon that has been well documented in bed­ridden patients) as well as intravascular occlusion leading to inflammation and necrosis, which has been associated with hyaluronic acid (HA) fillers.¹ Cases of alopecia also have been reported following mesotherapy and calcium hydroxyapatite, deoxycholic acid, and botulinum toxin injections.² We report a case of alopecia resulting from poly-L-lactic acid (PLLA) injection in a 35-year-old woman with the intent to raise awareness of this rare adverse event.

Case Report

A healthy 35-year-old woman received aesthetic PLLA injections on the face and frontal hairline performed by an outside dermatologist using the vector technique. During the procedure, the patient experienced intense itchiness at the right temporal artery vascular territory and reported a substantial headache the next day. She also presented with erythema and edema of the frontal and right parietal scalp with a well-delimited livedoid vascular area along the temporal artery territory on the right side of the head 1 day after the procedure (Figure 1). These signs were reported to the outside dermatologist who performed the procedure, but they were not assumed to be adverse events at that time.

The condition persisted for 4 days followed by the development of an irregular 3×2-cm patch of alopecia on the right parietal scalp. A 3-day course of self-administered oral prednisolone 0.2 mg/kg/d was prescribed.

Twenty-seven days after the procedure, the patient presented to our trichology clinic for evaluation of a single patch of nonscarring alopecia on the right parietal scalp. Trichoscopy showed multiple yellow and black dots, broken hairs, pigment deposits, and an erythematous background mainly composed of linear telangiectatic vessels (Figure 2). Histopathologic analysis revealed a lymphocytic inflammatory infiltrate surrounding the follicular units that was compatible with an alopecia areata–like pattern as well as PLLA deposits in the subcutaneous tissue forming foreign body granulomas (Figure 3). The diagnosis of PLLA-induced alopecia was made based on the detection of PLLA at the biopsy site within the patchy alopecia.

Comment

Poly-L-lactic acid is a biostimulator synthesized from the α-hydroxy acid family in 1954 that has been safely used in suture materials, resorbable plates, and orthopedic screws.⁴ Alopecia has been reported as a systemic allergic reaction to biodegradable screws following an orthopedic procedure.⁵ Prior reports of embolization and retinal ischemia with PLLA have raised concerns regarding its occlusive potential.^6-9

Approved by the US Food and Drug Administration in 2004 for soft tissue restoration in HIV-related lipoatrophy, PLLA was expanded to cosmetic applications in 2009. As previously reported with HA fillers, we hypothesize that extravascular compression resulting from the placement of the filler material (due to the volume injected in the scalp area) contributes to the development of alopecia plus PLLA embolism–induced ischemic alopecia in the affected areas.¹⁰ In our case, the diagnosis of PLLA-induced alopecia was confirmed based on the finding of the filler material in the subcutaneous tissue on histopathology, probably due to embolization. Moreover, trichoscopic findings were all similar to those described after HA embolization.¹¹ The features found in our patient due to the PLLA local reaction were similar to those seen in other conditions such as alopecia areata, pressure alopecia, and chemotherapy-induced alopecia; therefore, histopathology confirmation is mandatory in cases of hair loss associated with PLLA.

The emergence of a secondary patch of alopecia prompts consideration of an intrinsic late inflammatory propensity of PLLA. Immune cells recognize PLLA as a foreign body, and subclinical inflammatory foreign body reactions can cause PLLA-induced collagen synthesis.¹² This phenomenon underscores the need for further investigation into the immunologic implications of PLLA in alopecia pathogenesis.

The angiogenic properties of the anagen phase require an adequate blood supply for effective hair growth; therefore, the lack of blood and nutrient supply to the hair bulb triggers miniaturization, a possible explanation for the hair thinning found in the alopecic patch.¹³

Conclusion

Alopecia as an adverse effect of cosmetic procedures can be distressing for patients, even when reversible. A detailed understanding of scalp anatomy is critical for satisfactory outcomes with aesthetic procedures. Physicians must pay attention to the amount and area of material injected in order to avoid possible mechanisms of ischemia—embolization and/or extravascular compression—especially in highly vascularized areas.

We present a rare report of alopecia as an adverse event of PLLA injection. Dermatologists must be aware of this rare condition, and trichoscopy combined with histopathologic analysis are encouraged for early recognition and proper management.

THE DIAGNOSIS: Habit-Tic Deformity

Habit-tic deformity is a cause of nail dystrophy that commonly arises in children and adults due to subconscious repetitive and self-injurious manipulation of the nail bed or cuticle, which ultimately damages the nail matrix.^1,2 It can be considered a variant of onychotillomania.¹

Characteristic features of habit-tic deformity include a longitudinal depression on the central nail plate with transverse ridges,¹ which can be more prominent on the dominant hand.³ Patients typically note a long duration of nail deformity, often without insight into its etiology.² Diagnosis relies on careful assessment of the clinical presentation and the patient’s history to rule out other differential diagnoses. Based on our patient’s clinical presentation and history, we excluded wart, squamous cell carcinoma, eczema, psoriasis, lichen planus, autoimmune connective tissue disease, onychomycosis, paronychia, pincer nail deformity, and Beau line as potential diagnoses. Biopsy also can be performed to exclude these diagnoses from the differential if the cause is unclear following clinical examination.

Treatment for habit-tic deformity involves identifying and addressing the underlying habit. Barrier methods such as bandages and cyanoacrylate adhesives that prevent further manipulation of the nail matrix are effective treatments for habit-tic deformity.² A multidisciplinary approach with psychiatry may be optimal to identify underlying psychological comorbidities and break the habit through behavior interventions and medications.⁴ Nail dystrophy generally improves once the habit is disrupted; however, a younger age of onset may carry a worse prognosis.³ Patients should be counseled that the affected nail may never grow normally.

Our patient was advised to use fluocinonide ointment 0.05% to reduce inflammation of the proximal nail fold and to cover the thumbnail with a bandage to prevent picking. He also was counseled that the nail may show ongoing abnormal growth. Minimal improvement was noted after 6 months.

THE DIAGNOSIS: Habit-Tic Deformity

Habit-tic deformity is a cause of nail dystrophy that commonly arises in children and adults due to subconscious repetitive and self-injurious manipulation of the nail bed or cuticle, which ultimately damages the nail matrix.^1,2 It can be considered a variant of onychotillomania.¹

Characteristic features of habit-tic deformity include a longitudinal depression on the central nail plate with transverse ridges,¹ which can be more prominent on the dominant hand.³ Patients typically note a long duration of nail deformity, often without insight into its etiology.² Diagnosis relies on careful assessment of the clinical presentation and the patient’s history to rule out other differential diagnoses. Based on our patient’s clinical presentation and history, we excluded wart, squamous cell carcinoma, eczema, psoriasis, lichen planus, autoimmune connective tissue disease, onychomycosis, paronychia, pincer nail deformity, and Beau line as potential diagnoses. Biopsy also can be performed to exclude these diagnoses from the differential if the cause is unclear following clinical examination.

Treatment for habit-tic deformity involves identifying and addressing the underlying habit. Barrier methods such as bandages and cyanoacrylate adhesives that prevent further manipulation of the nail matrix are effective treatments for habit-tic deformity.² A multidisciplinary approach with psychiatry may be optimal to identify underlying psychological comorbidities and break the habit through behavior interventions and medications.⁴ Nail dystrophy generally improves once the habit is disrupted; however, a younger age of onset may carry a worse prognosis.³ Patients should be counseled that the affected nail may never grow normally.

Our patient was advised to use fluocinonide ointment 0.05% to reduce inflammation of the proximal nail fold and to cover the thumbnail with a bandage to prevent picking. He also was counseled that the nail may show ongoing abnormal growth. Minimal improvement was noted after 6 months.

THE DIAGNOSIS: Habit-Tic Deformity

Habit-tic deformity is a cause of nail dystrophy that commonly arises in children and adults due to subconscious repetitive and self-injurious manipulation of the nail bed or cuticle, which ultimately damages the nail matrix.^1,2 It can be considered a variant of onychotillomania.¹

Characteristic features of habit-tic deformity include a longitudinal depression on the central nail plate with transverse ridges,¹ which can be more prominent on the dominant hand.³ Patients typically note a long duration of nail deformity, often without insight into its etiology.² Diagnosis relies on careful assessment of the clinical presentation and the patient’s history to rule out other differential diagnoses. Based on our patient’s clinical presentation and history, we excluded wart, squamous cell carcinoma, eczema, psoriasis, lichen planus, autoimmune connective tissue disease, onychomycosis, paronychia, pincer nail deformity, and Beau line as potential diagnoses. Biopsy also can be performed to exclude these diagnoses from the differential if the cause is unclear following clinical examination.

Treatment for habit-tic deformity involves identifying and addressing the underlying habit. Barrier methods such as bandages and cyanoacrylate adhesives that prevent further manipulation of the nail matrix are effective treatments for habit-tic deformity.² A multidisciplinary approach with psychiatry may be optimal to identify underlying psychological comorbidities and break the habit through behavior interventions and medications.⁴ Nail dystrophy generally improves once the habit is disrupted; however, a younger age of onset may carry a worse prognosis.³ Patients should be counseled that the affected nail may never grow normally.

Our patient was advised to use fluocinonide ointment 0.05% to reduce inflammation of the proximal nail fold and to cover the thumbnail with a bandage to prevent picking. He also was counseled that the nail may show ongoing abnormal growth. Minimal improvement was noted after 6 months.

A member of the Elaeagnaceae family, Hippophae rhamnoides, better known as sea buckthorn, is a high-altitude wild shrub endemic to Europe and Asia with edible fruits and a lengthy record of use in traditional Chinese medicine.^1-6 Used as a health supplement and consumed in the diet throughout the world,⁵ sea buckthorn berries, seeds, and leaves have been used in traditional medicine to treat burns/injuries, edema, hypertension, inflammation, skin grafts, ulcers, and wounds.^4,7

This hardy plant is associated with a wide range of biologic activities, including anti-atherogenic, anti-atopic dermatitis, antibacterial, anticancer, antifungal, anti-inflammatory, antimicrobial, antioxidant, anti-psoriasis, anti-sebum, anti-stress, anti-tumor, cytoprotective, hepatoprotective, immunomodulatory, neuroprotective, radioprotective, and tissue regenerative functions.^4,5,8-11Sea buckthorn has also been included in several cosmeceutical formulations to treat wrinkles, scars, pigmentary conditions, and hair disorders, as well as to rejuvenate, even, and smooth the skin.⁴

Indre Brazauskaite/EyeEm/Getty Images

Key Constituents

Functional constituents identified in sea buckthorn include alkaloids, carotenoids, flavonoids, lignans, organic acids, phenolic acids, proanthocyanidins, polyunsaturated acids (including omega-3, -6, -7, and -9), steroids, tannins, terpenoids, and volatile oils, as well as nutritional compounds such as minerals, proteins, and vitamins.^4,5,11 Sea buckthorn pericarp oil contains copious amounts of saturated palmitic acid (29%-36%) and omega-7 unsaturated palmitoleic acid (36%-48%), which fosters cutaneous and mucosal epithelialization, as well as linoleic (10%-12%) and oleic (4%-6%) acids.^12,6 Significant amounts of carotenoids as well as alpha‐linolenic fatty acid (38%), linoleic (36%), oleic (13%), and palmitic (7%) acids are present in sea buckthorn seed oil.⁶

Polysaccharides

In an expansive review on the pharmacological activities of sea buckthorn polysaccharides, Teng and colleagues reported in April 2024 that 20 diverse polysaccharides have been culled from sea buckthorn and exhibited various healthy activities, including antioxidant, anti-fatigue, anti-inflammatory, anti-obesity, anti-tumor, hepatoprotective, hypoglycemic, and immunoregulation, and regulation of intestinal flora activities.¹

Proanthocyanidins and Anti-Aging

In 2023, Liu and colleagues investigated the anti–skin aging impact of sea buckthorn proanthocyanidins in D-galactose-induced aging in mice given the known free radical scavenging activity of these compounds. They found the proanthocyanidins mitigated D-galactose-induced aging and can augment the total antioxidant capacity of the body. Sea buckthorn proanthocyanidins can further attenuate the effects of skin aging by regulating the TGF-beta¹/Smads pathway and MMPs/TIMP system, thus amplifying collagen I and tropoelastin content.¹³

Baumann Cosmetic &amp; Research Institute

A year earlier, many of the same investigators assessed the possible protective activity of sea buckthorn proanthocyanidins against cutaneous aging engendered by oxidative stress from hydrogen peroxide. The compounds amplified superoxide dismutase and glutathione antioxidant functions. The extracts also fostered collagen I production in aging human skin fibroblasts via the TGF-beta1/Smads pathway and hindered collagen I degradation by regulating the MMPs/TIMPs system, which maintained extracellular matrix integrity. Senescent cell migration was also promoted with 100 mcg/mL of sea buckthorn proanthocyanidins. The researchers concluded that this sets the stage for investigating how sea buckthorn proanthocyanidins can be incorporated in cosmetic formulations.14 In a separate study, Liu and colleagues demonstrated that sea buckthorn proanthocyanidins can attenuate oxidative damage and protect mitochondrial function.⁹

Acne and Barrier Functions

The extracts of H rhamnoides and Cassia fistula in a combined formulation were found to be effective in lowering skin sebum content in humans with grade I and grade II acne vulgaris in a 2014 single-blind, randomized, placebo-controlled, split-face study with two groups of 25 patients each (aged 18-37 years).¹⁵ Khan and colleagues have also reported that a sea buckthorn oil-in-water emulsion improved barrier function in human skin as tested by a tewameter and corneometer (noninvasive probes) in 13 healthy males with a mean age of 27 ± 4.8 years.¹⁶

Anti-Aging, Antioxidant, Antibacterial, Skin-Whitening Activity

Zaman and colleagues reported in 2011 that results from an in vivo study of the effects of a sea buckthorn fruit extract topical cream on stratum corneum water content and transepidermal water loss indicated that the formulation enhanced cell surface integrin expression thus facilitating collagen contraction.¹⁷

In 2012, Khan and colleagues reported amelioration in skin elasticity, thus achieving an anti-aging result, from the use of a water-in-oil–based hydroalcoholic cream loaded with fruit extract of H rhamnoides, as measured with a Cutometer.¹⁸ The previous year, some of the same researchers reported that the antioxidants and flavonoids found in a topical sea buckthorn formulation could decrease cutaneous melanin and erythema levels.

More recently, Gęgotek and colleagues found that sea buckthorn seed oil prevented redox balance and lipid metabolism disturbances in skin fibroblasts and keratinocytes caused by UVA or UVB. They suggested that such findings point to the potential of this natural agent to confer anti-inflammatory properties and photoprotection to the skin.¹⁹

In 2020, Ivanišová and colleagues investigated the antioxidant and antimicrobial activities of H rhamnoides 100% oil, 100% juice, dry berries, and tea (dry berries, leaves, and twigs). They found that all of the studied sea buckthorn products displayed high antioxidant activity (identified through DPPH radical scavenging and molybdenum reducing antioxidant power tests). Sea buckthorn juice contained the highest total content of polyphenols, flavonoids, and carotenoids. All of the tested products also exhibited substantial antibacterial activity against the tested microbes.²⁰

Burns and Wound Healing

In a preclinical study of the effects of sea buckthorn leaf extracts on wound healing in albino rats using an excision-punch wound model in 2005, Gupta and colleagues found that twice daily topical application of the aqueous leaf extract fostered wound healing. This was indicated by higher hydroxyproline and protein levels, a diminished wound area, and lower lipid peroxide levels. The investigators suggested that sea buckthorn may facilitate wound healing at least in part because of elevated antioxidant activity in the granulation tissue.³

A year later, Wang and colleagues reported on observations of using H rhamnoides oil, a traditional Chinese herbal medicine derived from sea buckthorn fruit, as a burn treatment. In the study, 151 burn patients received an H rhamnoides oil dressing (changed every other day until wound healing) that was covered with a disinfecting dressing. The dressing reduced swelling and effusion, and alleviated pain, with patients receiving the sea buckthorn dressing experiencing greater apparent exudation reduction, pain reduction, and more rapid epithelial cell growth and wound healing than controls (treated only with Vaseline gauze). The difference between the two groups was statistically significant.²¹

Conclusion

Sea buckthorn has been used for hundreds if not thousands of years in traditional medical applications, including for dermatologic purposes. Emerging data appear to support the use of this dynamic plant for consideration in dermatologic applications. As is often the case, much more work is necessary in the form of randomized controlled trials to determine the effectiveness of sea buckthorn formulations as well as the most appropriate avenues of research or uses for dermatologic application of this traditionally used botanical agent.

Dr. Baumann is a private practice dermatologist, researcher, author, and entrepreneur in Miami. She founded the division of cosmetic dermatology at the University of Miami in 1997. The third edition of her bestselling textbook, “Cosmetic Dermatology,” was published in 2022. Dr. Baumann has received funding for advisory boards and/or clinical research trials from Allergan, Galderma, Johnson & Johnson, and Burt’s Bees. She is the CEO of Skin Type Solutions, a SaaS company used to generate skin care routines in office and as a e-commerce solution. Write to her at dermnews@mdedge.com.

References

1. Teng H et al. J Ethnopharmacol. 2024 Apr 24;324:117809. doi: 10.1016/j.jep.2024.117809.

2. Wang Z et al. Int J Biol Macromol. 2024 Apr;263(Pt 1):130206. doi: 10.1016/j.ijbiomac.2024.130206.

3. Gupta A et al. Int J Low Extrem Wounds. 2005 Jun;4(2):88-92. doi: 10.1177/1534734605277401.

4. Pundir S et al. J Ethnopharmacol. 2021 Feb 10;266:113434. doi: 10.1016/j.jep.2020.113434.

5. Ma QG et al. J Agric Food Chem. 2023 Mar 29;71(12):4769-4788. doi: 10.1021/acs.jafc.2c06916.

6. Poljšak N et al. Phytother Res. 2020 Feb;34(2):254-269. doi: 10.1002/ptr.6524. doi: 10.1002/ptr.6524.

7. Upadhyay NK et al. Evid Based Complement Alternat Med. 2011;2011:659705. doi: 10.1093/ecam/nep189.

8. Suryakumar G, Gupta A. J Ethnopharmacol. 2011 Nov 18;138(2):268-78. doi: 10.1016/j.jep.2011.09.024.

9. Liu K et al. Front Pharmacol. 2022 Jul 8;13:914146. doi: 10.3389/fphar.2022.914146.

10. Akhtar N et al. J Pharm Bioallied Sci. 2010 Jan;2(1):13-7. doi: 10.4103/0975-7406.62698.

11. Ren R et al. RSC Adv. 2020 Dec 17;10(73):44654-44671. doi: 10.1039/d0ra06488b.

12. Ito H et al. Burns. 2014 May;40(3):511-9. doi: 10.1016/j.burns.2013.08.011.

13. Liu X et al. Food Sci Nutr. 2023 Dec 7;12(2):1082-1094. doi: 10.1002/fsn3.3823.

14. Liu X at al. Antioxidants (Basel). 2022 Sep 25;11(10):1900. doi: 10.3390/antiox11101900.

15. Khan BA, Akhtar N. Postepy Dermatol Alergol. 2014 Aug;31(4):229-234. doi: 10.5114/pdia.2014.40934.

16. Khan BA, Akhtar N. Pak J Pharm Sci. 2014 Nov;27(6):1919-22.

17. Khan AB et al. African J Pharm Pharmacol. 2011 Aug;5(8):1092-5.

18. Khan BA, Akhtar N, Braga VA. Trop J Pharm Res. 2012;11(6):955-62.

19. Gęgotek A et al. Antioxidants (Basel). 2018 Aug 23;7(9):110. doi: 10.3390/antiox7090110.

20. Ivanišová E et al. Acta Sci Pol Technol Aliment. 2020 Apr-Jun;19(2):195-205. doi: 10.17306/J.AFS.0809.

21. Wang ZY, Luo XL, He CP. Nan Fang Yi Ke Da Xue Xue Bao. 2006 Jan;26(1):124-5.

A member of the Elaeagnaceae family, Hippophae rhamnoides, better known as sea buckthorn, is a high-altitude wild shrub endemic to Europe and Asia with edible fruits and a lengthy record of use in traditional Chinese medicine.^1-6 Used as a health supplement and consumed in the diet throughout the world,⁵ sea buckthorn berries, seeds, and leaves have been used in traditional medicine to treat burns/injuries, edema, hypertension, inflammation, skin grafts, ulcers, and wounds.^4,7

This hardy plant is associated with a wide range of biologic activities, including anti-atherogenic, anti-atopic dermatitis, antibacterial, anticancer, antifungal, anti-inflammatory, antimicrobial, antioxidant, anti-psoriasis, anti-sebum, anti-stress, anti-tumor, cytoprotective, hepatoprotective, immunomodulatory, neuroprotective, radioprotective, and tissue regenerative functions.^4,5,8-11Sea buckthorn has also been included in several cosmeceutical formulations to treat wrinkles, scars, pigmentary conditions, and hair disorders, as well as to rejuvenate, even, and smooth the skin.⁴

Indre Brazauskaite/EyeEm/Getty Images

Key Constituents

Functional constituents identified in sea buckthorn include alkaloids, carotenoids, flavonoids, lignans, organic acids, phenolic acids, proanthocyanidins, polyunsaturated acids (including omega-3, -6, -7, and -9), steroids, tannins, terpenoids, and volatile oils, as well as nutritional compounds such as minerals, proteins, and vitamins.^4,5,11 Sea buckthorn pericarp oil contains copious amounts of saturated palmitic acid (29%-36%) and omega-7 unsaturated palmitoleic acid (36%-48%), which fosters cutaneous and mucosal epithelialization, as well as linoleic (10%-12%) and oleic (4%-6%) acids.^12,6 Significant amounts of carotenoids as well as alpha‐linolenic fatty acid (38%), linoleic (36%), oleic (13%), and palmitic (7%) acids are present in sea buckthorn seed oil.⁶

Polysaccharides

In an expansive review on the pharmacological activities of sea buckthorn polysaccharides, Teng and colleagues reported in April 2024 that 20 diverse polysaccharides have been culled from sea buckthorn and exhibited various healthy activities, including antioxidant, anti-fatigue, anti-inflammatory, anti-obesity, anti-tumor, hepatoprotective, hypoglycemic, and immunoregulation, and regulation of intestinal flora activities.¹

Proanthocyanidins and Anti-Aging

In 2023, Liu and colleagues investigated the anti–skin aging impact of sea buckthorn proanthocyanidins in D-galactose-induced aging in mice given the known free radical scavenging activity of these compounds. They found the proanthocyanidins mitigated D-galactose-induced aging and can augment the total antioxidant capacity of the body. Sea buckthorn proanthocyanidins can further attenuate the effects of skin aging by regulating the TGF-beta¹/Smads pathway and MMPs/TIMP system, thus amplifying collagen I and tropoelastin content.¹³

Baumann Cosmetic &amp; Research Institute

A year earlier, many of the same investigators assessed the possible protective activity of sea buckthorn proanthocyanidins against cutaneous aging engendered by oxidative stress from hydrogen peroxide. The compounds amplified superoxide dismutase and glutathione antioxidant functions. The extracts also fostered collagen I production in aging human skin fibroblasts via the TGF-beta1/Smads pathway and hindered collagen I degradation by regulating the MMPs/TIMPs system, which maintained extracellular matrix integrity. Senescent cell migration was also promoted with 100 mcg/mL of sea buckthorn proanthocyanidins. The researchers concluded that this sets the stage for investigating how sea buckthorn proanthocyanidins can be incorporated in cosmetic formulations.14 In a separate study, Liu and colleagues demonstrated that sea buckthorn proanthocyanidins can attenuate oxidative damage and protect mitochondrial function.⁹

Acne and Barrier Functions

The extracts of H rhamnoides and Cassia fistula in a combined formulation were found to be effective in lowering skin sebum content in humans with grade I and grade II acne vulgaris in a 2014 single-blind, randomized, placebo-controlled, split-face study with two groups of 25 patients each (aged 18-37 years).¹⁵ Khan and colleagues have also reported that a sea buckthorn oil-in-water emulsion improved barrier function in human skin as tested by a tewameter and corneometer (noninvasive probes) in 13 healthy males with a mean age of 27 ± 4.8 years.¹⁶

Anti-Aging, Antioxidant, Antibacterial, Skin-Whitening Activity

Zaman and colleagues reported in 2011 that results from an in vivo study of the effects of a sea buckthorn fruit extract topical cream on stratum corneum water content and transepidermal water loss indicated that the formulation enhanced cell surface integrin expression thus facilitating collagen contraction.¹⁷

In 2012, Khan and colleagues reported amelioration in skin elasticity, thus achieving an anti-aging result, from the use of a water-in-oil–based hydroalcoholic cream loaded with fruit extract of H rhamnoides, as measured with a Cutometer.¹⁸ The previous year, some of the same researchers reported that the antioxidants and flavonoids found in a topical sea buckthorn formulation could decrease cutaneous melanin and erythema levels.

More recently, Gęgotek and colleagues found that sea buckthorn seed oil prevented redox balance and lipid metabolism disturbances in skin fibroblasts and keratinocytes caused by UVA or UVB. They suggested that such findings point to the potential of this natural agent to confer anti-inflammatory properties and photoprotection to the skin.¹⁹

In 2020, Ivanišová and colleagues investigated the antioxidant and antimicrobial activities of H rhamnoides 100% oil, 100% juice, dry berries, and tea (dry berries, leaves, and twigs). They found that all of the studied sea buckthorn products displayed high antioxidant activity (identified through DPPH radical scavenging and molybdenum reducing antioxidant power tests). Sea buckthorn juice contained the highest total content of polyphenols, flavonoids, and carotenoids. All of the tested products also exhibited substantial antibacterial activity against the tested microbes.²⁰

Burns and Wound Healing

In a preclinical study of the effects of sea buckthorn leaf extracts on wound healing in albino rats using an excision-punch wound model in 2005, Gupta and colleagues found that twice daily topical application of the aqueous leaf extract fostered wound healing. This was indicated by higher hydroxyproline and protein levels, a diminished wound area, and lower lipid peroxide levels. The investigators suggested that sea buckthorn may facilitate wound healing at least in part because of elevated antioxidant activity in the granulation tissue.³

A year later, Wang and colleagues reported on observations of using H rhamnoides oil, a traditional Chinese herbal medicine derived from sea buckthorn fruit, as a burn treatment. In the study, 151 burn patients received an H rhamnoides oil dressing (changed every other day until wound healing) that was covered with a disinfecting dressing. The dressing reduced swelling and effusion, and alleviated pain, with patients receiving the sea buckthorn dressing experiencing greater apparent exudation reduction, pain reduction, and more rapid epithelial cell growth and wound healing than controls (treated only with Vaseline gauze). The difference between the two groups was statistically significant.²¹

Conclusion

Sea buckthorn has been used for hundreds if not thousands of years in traditional medical applications, including for dermatologic purposes. Emerging data appear to support the use of this dynamic plant for consideration in dermatologic applications. As is often the case, much more work is necessary in the form of randomized controlled trials to determine the effectiveness of sea buckthorn formulations as well as the most appropriate avenues of research or uses for dermatologic application of this traditionally used botanical agent.

Dr. Baumann is a private practice dermatologist, researcher, author, and entrepreneur in Miami. She founded the division of cosmetic dermatology at the University of Miami in 1997. The third edition of her bestselling textbook, “Cosmetic Dermatology,” was published in 2022. Dr. Baumann has received funding for advisory boards and/or clinical research trials from Allergan, Galderma, Johnson & Johnson, and Burt’s Bees. She is the CEO of Skin Type Solutions, a SaaS company used to generate skin care routines in office and as a e-commerce solution. Write to her at dermnews@mdedge.com.

References

1. Teng H et al. J Ethnopharmacol. 2024 Apr 24;324:117809. doi: 10.1016/j.jep.2024.117809.

2. Wang Z et al. Int J Biol Macromol. 2024 Apr;263(Pt 1):130206. doi: 10.1016/j.ijbiomac.2024.130206.

3. Gupta A et al. Int J Low Extrem Wounds. 2005 Jun;4(2):88-92. doi: 10.1177/1534734605277401.

4. Pundir S et al. J Ethnopharmacol. 2021 Feb 10;266:113434. doi: 10.1016/j.jep.2020.113434.

5. Ma QG et al. J Agric Food Chem. 2023 Mar 29;71(12):4769-4788. doi: 10.1021/acs.jafc.2c06916.

6. Poljšak N et al. Phytother Res. 2020 Feb;34(2):254-269. doi: 10.1002/ptr.6524. doi: 10.1002/ptr.6524.

7. Upadhyay NK et al. Evid Based Complement Alternat Med. 2011;2011:659705. doi: 10.1093/ecam/nep189.

8. Suryakumar G, Gupta A. J Ethnopharmacol. 2011 Nov 18;138(2):268-78. doi: 10.1016/j.jep.2011.09.024.

9. Liu K et al. Front Pharmacol. 2022 Jul 8;13:914146. doi: 10.3389/fphar.2022.914146.

10. Akhtar N et al. J Pharm Bioallied Sci. 2010 Jan;2(1):13-7. doi: 10.4103/0975-7406.62698.

11. Ren R et al. RSC Adv. 2020 Dec 17;10(73):44654-44671. doi: 10.1039/d0ra06488b.

12. Ito H et al. Burns. 2014 May;40(3):511-9. doi: 10.1016/j.burns.2013.08.011.

13. Liu X et al. Food Sci Nutr. 2023 Dec 7;12(2):1082-1094. doi: 10.1002/fsn3.3823.

14. Liu X at al. Antioxidants (Basel). 2022 Sep 25;11(10):1900. doi: 10.3390/antiox11101900.

15. Khan BA, Akhtar N. Postepy Dermatol Alergol. 2014 Aug;31(4):229-234. doi: 10.5114/pdia.2014.40934.

16. Khan BA, Akhtar N. Pak J Pharm Sci. 2014 Nov;27(6):1919-22.

17. Khan AB et al. African J Pharm Pharmacol. 2011 Aug;5(8):1092-5.

18. Khan BA, Akhtar N, Braga VA. Trop J Pharm Res. 2012;11(6):955-62.

19. Gęgotek A et al. Antioxidants (Basel). 2018 Aug 23;7(9):110. doi: 10.3390/antiox7090110.

20. Ivanišová E et al. Acta Sci Pol Technol Aliment. 2020 Apr-Jun;19(2):195-205. doi: 10.17306/J.AFS.0809.

21. Wang ZY, Luo XL, He CP. Nan Fang Yi Ke Da Xue Xue Bao. 2006 Jan;26(1):124-5.

A member of the Elaeagnaceae family, Hippophae rhamnoides, better known as sea buckthorn, is a high-altitude wild shrub endemic to Europe and Asia with edible fruits and a lengthy record of use in traditional Chinese medicine.^1-6 Used as a health supplement and consumed in the diet throughout the world,⁵ sea buckthorn berries, seeds, and leaves have been used in traditional medicine to treat burns/injuries, edema, hypertension, inflammation, skin grafts, ulcers, and wounds.^4,7

This hardy plant is associated with a wide range of biologic activities, including anti-atherogenic, anti-atopic dermatitis, antibacterial, anticancer, antifungal, anti-inflammatory, antimicrobial, antioxidant, anti-psoriasis, anti-sebum, anti-stress, anti-tumor, cytoprotective, hepatoprotective, immunomodulatory, neuroprotective, radioprotective, and tissue regenerative functions.^4,5,8-11Sea buckthorn has also been included in several cosmeceutical formulations to treat wrinkles, scars, pigmentary conditions, and hair disorders, as well as to rejuvenate, even, and smooth the skin.⁴

Indre Brazauskaite/EyeEm/Getty Images

Key Constituents

Functional constituents identified in sea buckthorn include alkaloids, carotenoids, flavonoids, lignans, organic acids, phenolic acids, proanthocyanidins, polyunsaturated acids (including omega-3, -6, -7, and -9), steroids, tannins, terpenoids, and volatile oils, as well as nutritional compounds such as minerals, proteins, and vitamins.^4,5,11 Sea buckthorn pericarp oil contains copious amounts of saturated palmitic acid (29%-36%) and omega-7 unsaturated palmitoleic acid (36%-48%), which fosters cutaneous and mucosal epithelialization, as well as linoleic (10%-12%) and oleic (4%-6%) acids.^12,6 Significant amounts of carotenoids as well as alpha‐linolenic fatty acid (38%), linoleic (36%), oleic (13%), and palmitic (7%) acids are present in sea buckthorn seed oil.⁶

Polysaccharides

In an expansive review on the pharmacological activities of sea buckthorn polysaccharides, Teng and colleagues reported in April 2024 that 20 diverse polysaccharides have been culled from sea buckthorn and exhibited various healthy activities, including antioxidant, anti-fatigue, anti-inflammatory, anti-obesity, anti-tumor, hepatoprotective, hypoglycemic, and immunoregulation, and regulation of intestinal flora activities.¹

Proanthocyanidins and Anti-Aging

In 2023, Liu and colleagues investigated the anti–skin aging impact of sea buckthorn proanthocyanidins in D-galactose-induced aging in mice given the known free radical scavenging activity of these compounds. They found the proanthocyanidins mitigated D-galactose-induced aging and can augment the total antioxidant capacity of the body. Sea buckthorn proanthocyanidins can further attenuate the effects of skin aging by regulating the TGF-beta¹/Smads pathway and MMPs/TIMP system, thus amplifying collagen I and tropoelastin content.¹³

Baumann Cosmetic &amp; Research Institute

A year earlier, many of the same investigators assessed the possible protective activity of sea buckthorn proanthocyanidins against cutaneous aging engendered by oxidative stress from hydrogen peroxide. The compounds amplified superoxide dismutase and glutathione antioxidant functions. The extracts also fostered collagen I production in aging human skin fibroblasts via the TGF-beta1/Smads pathway and hindered collagen I degradation by regulating the MMPs/TIMPs system, which maintained extracellular matrix integrity. Senescent cell migration was also promoted with 100 mcg/mL of sea buckthorn proanthocyanidins. The researchers concluded that this sets the stage for investigating how sea buckthorn proanthocyanidins can be incorporated in cosmetic formulations.14 In a separate study, Liu and colleagues demonstrated that sea buckthorn proanthocyanidins can attenuate oxidative damage and protect mitochondrial function.⁹

Acne and Barrier Functions

The extracts of H rhamnoides and Cassia fistula in a combined formulation were found to be effective in lowering skin sebum content in humans with grade I and grade II acne vulgaris in a 2014 single-blind, randomized, placebo-controlled, split-face study with two groups of 25 patients each (aged 18-37 years).¹⁵ Khan and colleagues have also reported that a sea buckthorn oil-in-water emulsion improved barrier function in human skin as tested by a tewameter and corneometer (noninvasive probes) in 13 healthy males with a mean age of 27 ± 4.8 years.¹⁶

Anti-Aging, Antioxidant, Antibacterial, Skin-Whitening Activity

Zaman and colleagues reported in 2011 that results from an in vivo study of the effects of a sea buckthorn fruit extract topical cream on stratum corneum water content and transepidermal water loss indicated that the formulation enhanced cell surface integrin expression thus facilitating collagen contraction.¹⁷

In 2012, Khan and colleagues reported amelioration in skin elasticity, thus achieving an anti-aging result, from the use of a water-in-oil–based hydroalcoholic cream loaded with fruit extract of H rhamnoides, as measured with a Cutometer.¹⁸ The previous year, some of the same researchers reported that the antioxidants and flavonoids found in a topical sea buckthorn formulation could decrease cutaneous melanin and erythema levels.

More recently, Gęgotek and colleagues found that sea buckthorn seed oil prevented redox balance and lipid metabolism disturbances in skin fibroblasts and keratinocytes caused by UVA or UVB. They suggested that such findings point to the potential of this natural agent to confer anti-inflammatory properties and photoprotection to the skin.¹⁹

In 2020, Ivanišová and colleagues investigated the antioxidant and antimicrobial activities of H rhamnoides 100% oil, 100% juice, dry berries, and tea (dry berries, leaves, and twigs). They found that all of the studied sea buckthorn products displayed high antioxidant activity (identified through DPPH radical scavenging and molybdenum reducing antioxidant power tests). Sea buckthorn juice contained the highest total content of polyphenols, flavonoids, and carotenoids. All of the tested products also exhibited substantial antibacterial activity against the tested microbes.²⁰

Burns and Wound Healing

In a preclinical study of the effects of sea buckthorn leaf extracts on wound healing in albino rats using an excision-punch wound model in 2005, Gupta and colleagues found that twice daily topical application of the aqueous leaf extract fostered wound healing. This was indicated by higher hydroxyproline and protein levels, a diminished wound area, and lower lipid peroxide levels. The investigators suggested that sea buckthorn may facilitate wound healing at least in part because of elevated antioxidant activity in the granulation tissue.³

A year later, Wang and colleagues reported on observations of using H rhamnoides oil, a traditional Chinese herbal medicine derived from sea buckthorn fruit, as a burn treatment. In the study, 151 burn patients received an H rhamnoides oil dressing (changed every other day until wound healing) that was covered with a disinfecting dressing. The dressing reduced swelling and effusion, and alleviated pain, with patients receiving the sea buckthorn dressing experiencing greater apparent exudation reduction, pain reduction, and more rapid epithelial cell growth and wound healing than controls (treated only with Vaseline gauze). The difference between the two groups was statistically significant.²¹

Conclusion

Sea buckthorn has been used for hundreds if not thousands of years in traditional medical applications, including for dermatologic purposes. Emerging data appear to support the use of this dynamic plant for consideration in dermatologic applications. As is often the case, much more work is necessary in the form of randomized controlled trials to determine the effectiveness of sea buckthorn formulations as well as the most appropriate avenues of research or uses for dermatologic application of this traditionally used botanical agent.

Dr. Baumann is a private practice dermatologist, researcher, author, and entrepreneur in Miami. She founded the division of cosmetic dermatology at the University of Miami in 1997. The third edition of her bestselling textbook, “Cosmetic Dermatology,” was published in 2022. Dr. Baumann has received funding for advisory boards and/or clinical research trials from Allergan, Galderma, Johnson & Johnson, and Burt’s Bees. She is the CEO of Skin Type Solutions, a SaaS company used to generate skin care routines in office and as a e-commerce solution. Write to her at dermnews@mdedge.com.

References

1. Teng H et al. J Ethnopharmacol. 2024 Apr 24;324:117809. doi: 10.1016/j.jep.2024.117809.

2. Wang Z et al. Int J Biol Macromol. 2024 Apr;263(Pt 1):130206. doi: 10.1016/j.ijbiomac.2024.130206.

3. Gupta A et al. Int J Low Extrem Wounds. 2005 Jun;4(2):88-92. doi: 10.1177/1534734605277401.

4. Pundir S et al. J Ethnopharmacol. 2021 Feb 10;266:113434. doi: 10.1016/j.jep.2020.113434.

5. Ma QG et al. J Agric Food Chem. 2023 Mar 29;71(12):4769-4788. doi: 10.1021/acs.jafc.2c06916.

6. Poljšak N et al. Phytother Res. 2020 Feb;34(2):254-269. doi: 10.1002/ptr.6524. doi: 10.1002/ptr.6524.

7. Upadhyay NK et al. Evid Based Complement Alternat Med. 2011;2011:659705. doi: 10.1093/ecam/nep189.

8. Suryakumar G, Gupta A. J Ethnopharmacol. 2011 Nov 18;138(2):268-78. doi: 10.1016/j.jep.2011.09.024.

9. Liu K et al. Front Pharmacol. 2022 Jul 8;13:914146. doi: 10.3389/fphar.2022.914146.

10. Akhtar N et al. J Pharm Bioallied Sci. 2010 Jan;2(1):13-7. doi: 10.4103/0975-7406.62698.

11. Ren R et al. RSC Adv. 2020 Dec 17;10(73):44654-44671. doi: 10.1039/d0ra06488b.

12. Ito H et al. Burns. 2014 May;40(3):511-9. doi: 10.1016/j.burns.2013.08.011.

13. Liu X et al. Food Sci Nutr. 2023 Dec 7;12(2):1082-1094. doi: 10.1002/fsn3.3823.

14. Liu X at al. Antioxidants (Basel). 2022 Sep 25;11(10):1900. doi: 10.3390/antiox11101900.

15. Khan BA, Akhtar N. Postepy Dermatol Alergol. 2014 Aug;31(4):229-234. doi: 10.5114/pdia.2014.40934.

16. Khan BA, Akhtar N. Pak J Pharm Sci. 2014 Nov;27(6):1919-22.

17. Khan AB et al. African J Pharm Pharmacol. 2011 Aug;5(8):1092-5.

18. Khan BA, Akhtar N, Braga VA. Trop J Pharm Res. 2012;11(6):955-62.

19. Gęgotek A et al. Antioxidants (Basel). 2018 Aug 23;7(9):110. doi: 10.3390/antiox7090110.

20. Ivanišová E et al. Acta Sci Pol Technol Aliment. 2020 Apr-Jun;19(2):195-205. doi: 10.17306/J.AFS.0809.

21. Wang ZY, Luo XL, He CP. Nan Fang Yi Ke Da Xue Xue Bao. 2006 Jan;26(1):124-5.

On October 1, 2024, International Classification of Diseases, 10th Revision, Clinical Modification (ICD-10-CM) codes for central centrifugal cicatricial alopecia (CCCA) and frontal fibrosing alopecia (FFA) took effect for the first time, a development characterized as a critical advancement in the field of hair loss disorders.

“CCCA and FFA are conditions that require early diagnosis and intervention to prevent irreversible hair loss,” Maria Hordinsky, MD, professor of dermatology at the University of Minnesota, Minneapolis, and a member of the Board of Directors, Scarring Alopecia Foundation (SAF), said in an interview.

Ms. Jefferson

For her part, Jefferson said that she will continue to advocate for patients with scarring alopecia as a medical student and when she becomes a physician. “I hope in the near future we will see an externally led FDA Patient-Focused Drug Development meeting for both CCCA and FFA, further advancing care and research for these conditions,” she said in an interview.

McMichael, Hordinsky, and Jefferson had no relevant disclosures to report.

A version of this article appeared on Medscape.com.

On October 1, 2024, International Classification of Diseases, 10th Revision, Clinical Modification (ICD-10-CM) codes for central centrifugal cicatricial alopecia (CCCA) and frontal fibrosing alopecia (FFA) took effect for the first time, a development characterized as a critical advancement in the field of hair loss disorders.

“CCCA and FFA are conditions that require early diagnosis and intervention to prevent irreversible hair loss,” Maria Hordinsky, MD, professor of dermatology at the University of Minnesota, Minneapolis, and a member of the Board of Directors, Scarring Alopecia Foundation (SAF), said in an interview.

Ms. Jefferson

For her part, Jefferson said that she will continue to advocate for patients with scarring alopecia as a medical student and when she becomes a physician. “I hope in the near future we will see an externally led FDA Patient-Focused Drug Development meeting for both CCCA and FFA, further advancing care and research for these conditions,” she said in an interview.

McMichael, Hordinsky, and Jefferson had no relevant disclosures to report.

A version of this article appeared on Medscape.com.

On October 1, 2024, International Classification of Diseases, 10th Revision, Clinical Modification (ICD-10-CM) codes for central centrifugal cicatricial alopecia (CCCA) and frontal fibrosing alopecia (FFA) took effect for the first time, a development characterized as a critical advancement in the field of hair loss disorders.

“CCCA and FFA are conditions that require early diagnosis and intervention to prevent irreversible hair loss,” Maria Hordinsky, MD, professor of dermatology at the University of Minnesota, Minneapolis, and a member of the Board of Directors, Scarring Alopecia Foundation (SAF), said in an interview.

Ms. Jefferson

For her part, Jefferson said that she will continue to advocate for patients with scarring alopecia as a medical student and when she becomes a physician. “I hope in the near future we will see an externally led FDA Patient-Focused Drug Development meeting for both CCCA and FFA, further advancing care and research for these conditions,” she said in an interview.

McMichael, Hordinsky, and Jefferson had no relevant disclosures to report.

A version of this article appeared on Medscape.com.