Vaccines

A group B meningococcal outer-membrane-vesicle (OMV) vaccine used during a meningitis outbreak in New Zealand also protected against gonorrhea, according to a report published online July 10 in the Lancet.

Even though Neisseria meningitidis and Neisseria gonorrhoeae cause distinctly different diseases, the bacteria are closely related and are genetically and antigenically very similar. Most of the virulence factors present in one pathogen have an equivalent in the other, “providing at least one biologically plausible mechanism for cross-protection,” said Helen Petousis-Harris, PhD, of the department of general practice and primary health care, University of Auckland (New Zealand), and her associates.

copyright luiscar/Thinkstock

A group B meningococcal outer-membrane-vesicle (OMV) vaccine used during a meningitis outbreak in New Zealand also protected against gonorrhea, according to a report published online July 10 in the Lancet.

Even though Neisseria meningitidis and Neisseria gonorrhoeae cause distinctly different diseases, the bacteria are closely related and are genetically and antigenically very similar. Most of the virulence factors present in one pathogen have an equivalent in the other, “providing at least one biologically plausible mechanism for cross-protection,” said Helen Petousis-Harris, PhD, of the department of general practice and primary health care, University of Auckland (New Zealand), and her associates.

copyright luiscar/Thinkstock

A group B meningococcal outer-membrane-vesicle (OMV) vaccine used during a meningitis outbreak in New Zealand also protected against gonorrhea, according to a report published online July 10 in the Lancet.

Even though Neisseria meningitidis and Neisseria gonorrhoeae cause distinctly different diseases, the bacteria are closely related and are genetically and antigenically very similar. Most of the virulence factors present in one pathogen have an equivalent in the other, “providing at least one biologically plausible mechanism for cross-protection,” said Helen Petousis-Harris, PhD, of the department of general practice and primary health care, University of Auckland (New Zealand), and her associates.

copyright luiscar/Thinkstock

Patients taking eculizumab are at a significant risk for meningococcal disease even if they have received the quadrivalent meningococcal conjugate (MenACWY) and serogroup B (MenB) meningococcal vaccines, according to the Centers for Disease Control and Prevention’s Morbidity and Mortality Weekly Report, released July 7.

Between 2008 and 2016, 16 cases of meningococcal disease were reported in eculizumab users in 10 jurisdictions within the United States. Of those infected, 14 had received MenACWY and MenB vaccines as recommended by the Advisory Committee on Immunization Practices, according to the CDC report.

Required vaccination plus antimicrobial prophylaxis for the duration of eculizumab treatment might reduce the risk for meningococcal disease in these patients, but the addition of antibiotic prophylaxis is no guarantee that all cases of meningococcal disease would be prevented, wrote Lucy A. McNamara, PhD, of the division of bacterial diseases, National Center for Immunization and Respiratory Diseases, CDC, and her colleagues.

They advised physician and patient vigilance regarding meningococcal disease symptoms and urged that patients be advised to seek immediate care and be rapidly treated, regardless of meningococcal vaccination or antimicrobial prophylaxis status.

Health organizations in Europe, including France and the United Kingdom, are recommending eculizumab users receive penicillin during eculizumab treatment. A recent study of invasive meningococcal isolates in the United States found most were susceptible to penicillin, according to the report.

In the 16 U.S. cases reported, nongroupable Neisseria meningitidis caused meningococcal disease in 11 of the patients, serogroup Y was the cause in 4 patients, and the cause was not identified in 1 patient.

Ten patients had meningococcemia without meningitis, the researchers noted. “Initial symptoms of meningococcemia are often relatively mild and nonspecific and might include fever, chills, fatigue, vomiting, diarrhea, and aches or pains in the muscles, joints, chest, or abdomen; however, these symptoms can progress to severe illness and death within hours.”

Eculizumab (Soliris, Alexion Pharmaceuticals) is licensed in the United States for treatment of paroxysmal nocturnal hemoglobinuria and atypical hemolytic uremic syndrome, two diseases that are rare and can be fatal.

Eculizumab is associated with a 1,000-fold to 2,000-fold increased incidence of meningococcal disease among persons receiving the drug. The Food and Drug Administration–approved prescribing information includes a boxed warning regarding increased risk for meningococcal disease.

The CDC is collecting reports from state health departments for further analysis of the risk among eculizumab recipients.

The researchers reported having no conflicts of interest.

ezimmerman@frontlinemedcom.com

On Twitter @eaztweets

Patients taking eculizumab are at a significant risk for meningococcal disease even if they have received the quadrivalent meningococcal conjugate (MenACWY) and serogroup B (MenB) meningococcal vaccines, according to the Centers for Disease Control and Prevention’s Morbidity and Mortality Weekly Report, released July 7.

Between 2008 and 2016, 16 cases of meningococcal disease were reported in eculizumab users in 10 jurisdictions within the United States. Of those infected, 14 had received MenACWY and MenB vaccines as recommended by the Advisory Committee on Immunization Practices, according to the CDC report.

Required vaccination plus antimicrobial prophylaxis for the duration of eculizumab treatment might reduce the risk for meningococcal disease in these patients, but the addition of antibiotic prophylaxis is no guarantee that all cases of meningococcal disease would be prevented, wrote Lucy A. McNamara, PhD, of the division of bacterial diseases, National Center for Immunization and Respiratory Diseases, CDC, and her colleagues.

They advised physician and patient vigilance regarding meningococcal disease symptoms and urged that patients be advised to seek immediate care and be rapidly treated, regardless of meningococcal vaccination or antimicrobial prophylaxis status.

Health organizations in Europe, including France and the United Kingdom, are recommending eculizumab users receive penicillin during eculizumab treatment. A recent study of invasive meningococcal isolates in the United States found most were susceptible to penicillin, according to the report.

In the 16 U.S. cases reported, nongroupable Neisseria meningitidis caused meningococcal disease in 11 of the patients, serogroup Y was the cause in 4 patients, and the cause was not identified in 1 patient.

Ten patients had meningococcemia without meningitis, the researchers noted. “Initial symptoms of meningococcemia are often relatively mild and nonspecific and might include fever, chills, fatigue, vomiting, diarrhea, and aches or pains in the muscles, joints, chest, or abdomen; however, these symptoms can progress to severe illness and death within hours.”

Eculizumab (Soliris, Alexion Pharmaceuticals) is licensed in the United States for treatment of paroxysmal nocturnal hemoglobinuria and atypical hemolytic uremic syndrome, two diseases that are rare and can be fatal.

Eculizumab is associated with a 1,000-fold to 2,000-fold increased incidence of meningococcal disease among persons receiving the drug. The Food and Drug Administration–approved prescribing information includes a boxed warning regarding increased risk for meningococcal disease.

The CDC is collecting reports from state health departments for further analysis of the risk among eculizumab recipients.

The researchers reported having no conflicts of interest.

ezimmerman@frontlinemedcom.com

On Twitter @eaztweets

Patients taking eculizumab are at a significant risk for meningococcal disease even if they have received the quadrivalent meningococcal conjugate (MenACWY) and serogroup B (MenB) meningococcal vaccines, according to the Centers for Disease Control and Prevention’s Morbidity and Mortality Weekly Report, released July 7.

Between 2008 and 2016, 16 cases of meningococcal disease were reported in eculizumab users in 10 jurisdictions within the United States. Of those infected, 14 had received MenACWY and MenB vaccines as recommended by the Advisory Committee on Immunization Practices, according to the CDC report.

Required vaccination plus antimicrobial prophylaxis for the duration of eculizumab treatment might reduce the risk for meningococcal disease in these patients, but the addition of antibiotic prophylaxis is no guarantee that all cases of meningococcal disease would be prevented, wrote Lucy A. McNamara, PhD, of the division of bacterial diseases, National Center for Immunization and Respiratory Diseases, CDC, and her colleagues.

They advised physician and patient vigilance regarding meningococcal disease symptoms and urged that patients be advised to seek immediate care and be rapidly treated, regardless of meningococcal vaccination or antimicrobial prophylaxis status.

Health organizations in Europe, including France and the United Kingdom, are recommending eculizumab users receive penicillin during eculizumab treatment. A recent study of invasive meningococcal isolates in the United States found most were susceptible to penicillin, according to the report.

In the 16 U.S. cases reported, nongroupable Neisseria meningitidis caused meningococcal disease in 11 of the patients, serogroup Y was the cause in 4 patients, and the cause was not identified in 1 patient.

Ten patients had meningococcemia without meningitis, the researchers noted. “Initial symptoms of meningococcemia are often relatively mild and nonspecific and might include fever, chills, fatigue, vomiting, diarrhea, and aches or pains in the muscles, joints, chest, or abdomen; however, these symptoms can progress to severe illness and death within hours.”

Eculizumab (Soliris, Alexion Pharmaceuticals) is licensed in the United States for treatment of paroxysmal nocturnal hemoglobinuria and atypical hemolytic uremic syndrome, two diseases that are rare and can be fatal.

Eculizumab is associated with a 1,000-fold to 2,000-fold increased incidence of meningococcal disease among persons receiving the drug. The Food and Drug Administration–approved prescribing information includes a boxed warning regarding increased risk for meningococcal disease.

The CDC is collecting reports from state health departments for further analysis of the risk among eculizumab recipients.

The researchers reported having no conflicts of interest.

ezimmerman@frontlinemedcom.com

On Twitter @eaztweets

Despite widespread availability of the human papillomavirus vaccine over the last 11 years, vaccination rates continue to lag behind national targets and are far behind other vaccines routinely administered in adolescence, such as the meningococcal and tetanus vaccines.

Better collaboration among pediatricians and obstetrician-gynecologists to promote the HPV vaccine may be one answer to turning the tide, said David W. Kimberlin, MD, codirector of the division of pediatric infectious diseases at the University of Alabama at Birmingham and president of the Pediatric Infectious Diseases Society.

Courtesy Steve Wood/University of Alabama, Birmingham

5 steps to increase HPV vaccination

Melissa Kottke, MD, director of the Jane Fonda Center for Adolescent Reproductive Health at Emory University offered her practice steps for increased HPV vaccination rates.

1. Be clear about your recommendation. For example, “I recommend the HPV vaccine. It can help prevent cancer.”

*This story was updated 8/22/2017.
 

agallegos@frontlinemedcom.com

On Twitter @legal_med

Despite widespread availability of the human papillomavirus vaccine over the last 11 years, vaccination rates continue to lag behind national targets and are far behind other vaccines routinely administered in adolescence, such as the meningococcal and tetanus vaccines.

Better collaboration among pediatricians and obstetrician-gynecologists to promote the HPV vaccine may be one answer to turning the tide, said David W. Kimberlin, MD, codirector of the division of pediatric infectious diseases at the University of Alabama at Birmingham and president of the Pediatric Infectious Diseases Society.

Courtesy Steve Wood/University of Alabama, Birmingham

5 steps to increase HPV vaccination

Melissa Kottke, MD, director of the Jane Fonda Center for Adolescent Reproductive Health at Emory University offered her practice steps for increased HPV vaccination rates.

1. Be clear about your recommendation. For example, “I recommend the HPV vaccine. It can help prevent cancer.”

*This story was updated 8/22/2017.
 

agallegos@frontlinemedcom.com

On Twitter @legal_med

Despite widespread availability of the human papillomavirus vaccine over the last 11 years, vaccination rates continue to lag behind national targets and are far behind other vaccines routinely administered in adolescence, such as the meningococcal and tetanus vaccines.

Better collaboration among pediatricians and obstetrician-gynecologists to promote the HPV vaccine may be one answer to turning the tide, said David W. Kimberlin, MD, codirector of the division of pediatric infectious diseases at the University of Alabama at Birmingham and president of the Pediatric Infectious Diseases Society.

Courtesy Steve Wood/University of Alabama, Birmingham

5 steps to increase HPV vaccination

Melissa Kottke, MD, director of the Jane Fonda Center for Adolescent Reproductive Health at Emory University offered her practice steps for increased HPV vaccination rates.

1. Be clear about your recommendation. For example, “I recommend the HPV vaccine. It can help prevent cancer.”

*This story was updated 8/22/2017.
 

agallegos@frontlinemedcom.com

On Twitter @legal_med

In April of this year, 3 counties in Minnesota reported a measles outbreak, illustrating the danger of vaccine hesitancy that exists in some communities, resulting in low rates of childhood immunization. Fifty people—mostly children under the age of 5 and almost all unimmunized—have been diagnosed with measles since this outbreak began. As of early May, 11 had been hospitalized. Most of those infected have been American-born children of Somali immigrants.^1,2

At the time of the outbreak, only 42% of the Somali children had been immunized against measles, compared with 88.5% of non-Somalis in Minnesota.² Because of concern about the number of Somali children being diagnosed with autism, a condition apparently not recognized in Somalia, Somali parents living in Minnesota began questioning why this was occurring.

If measles is suspected, care for patients in an isolation room or one that can be kept unused afterwards.

High profile anti-vaccine advocates reportedly visited the community and advised these parents that the measles-mumps-rubella (MMR) vaccine was the cause of this rise in autism incidence and encouraged them to avoid the vaccine.² This series of events led to low vaccination rates in what was once a well-vaccinated community. The outbreak appears to have started with a Somali child who visited Africa and then returned to his community while incubating measles.

The clinical course of measles. Measles is an acute viral respiratory illness, which, after an incubation period of 10 to 12 days, starts with a fever (as high as 105° F), malaise, and at least one of the 3 “C”s—cough, coryza, and conjunctivitis.^3,4 A maculopapular rash then starts on the face and spreads to the trunk and the extremities (FIGURE 1). Koplik spots (FIGURE 2) can be seen on the oral mucosa. Children with measles look very ill. Patients are contagious for approximately 8 days, starting 4 days before the rash appears. Complications can include otitis media, bronchopneumonia, encephalitis, and diarrhea.

Measles is not a benign childhood illness. Before the licensure of live measles vaccine in 1963, an average of 549,000 measles cases were reported in the United States each year.³ That number is likely an underestimate due to inconsistent reporting, with a more plausible number of infections annually being 3 to 4 million.³ These regular epidemics led each year to about 48,000 people being hospitalized from complications, 1000 developing chronic disability from acute measles encephalitis, and about 500 dying from measles-related complications. Today, worldwide, an estimated 134,200 individuals die from measles each year.³

Where the risk is greatest. In the year 2000, measles was declared eliminated from the United States, meaning that endemic transmission was no longer occurring. Since then, the annual number of cases has ranged from a low of 37 in 2004 to a high of 667 in 2014.³ Most measles cases have occurred in unvaccinated individuals and primarily through importation by people infected in other countries who then transmit the infection upon entry or reentry to this country. In the United States, measles is more likely to spread and cause outbreaks in communities where large groups of people are unvaccinated.

Laboratory confirmation of measles is important to establish a correct clinical diagnosis, as well as to verify the infection for public health purposes. Confirmation is achieved by detecting in a patient’s blood sample the measles-specific IgM antibody or measles RNA by real-time polymerase chain reaction (RT-PCR). Obtain both a serum sample and a throat swab (or nasopharyngeal swab) from patients you suspect may have measles. Urine samples may also contain virus, and can be useful. The local health department can offer advice on how to collect and process these laboratory specimens.

Measles is a preventable infection

The Centers for Disease Control and Prevention (CDC) recommends routine childhood immunization with MMR vaccine, with the first dose given at age 12 through 15 months, and the second dose at 4 through 6 years of age (or at least 28 days following the first dose).^3,5 Others for whom the vaccine is recommended are included in the TABLE.³

Because the MMR vaccine is a modified live-virus vaccine, it is contraindicated for pregnant women and those with severe immune deficiencies. It is also contraindicated for individuals who have ever had a life-threatening allergic reaction to the antibiotic neomycin or to any other MMR vaccine component.⁴ That these high-risk groups cannot receive protection from the vaccine underscores the importance of maintaining community herd immunity at a high level to prevent the spread of infection.

In response to this latest outbreak, the Minnesota Department of Health (MDH) has augmented its routine recommendations regarding measles vaccine,¹ including advising that:

• All children 12 months and older who have not received the MMR vaccine and all adults born in 1957 (or later) who have not received the vaccine or ever had the measles should get the first dose as soon as possible.
• Children who live in counties where measles cases have occurred and who have received their first dose of the MMR vaccine at least 28 days ago should get their second dose as soon as possible.
• All Somali Minnesotan children statewide who received their first dose of the vaccine at least 28 days ago should get their second as soon as possible.
• Health care providers statewide may recommend an early (before age 4 years) second dose of the vaccine during routine appointments for children.

Preventing measles outbreaks and minimizing community impact

Measures family physicians can take to protect their staff, patients, and community from measles (and other infectious diseases) include ensuring that all staff are fully immunized as recommended by the CDC,⁶ vaccinating all patients according to the recommended immunization schedules, implementing and enforcing good infection control practices in the clinical setting, and taking appropriate measures to diagnose and manage individuals with suspected measles. These measures are described on the CDC Web site.⁷

Measles virus, commonly believed to be the most infectious agent known, is often transmitted in medical facilities. An individual can become infected simply by entering a closed space that had been occupied by someone with measles several hours earlier. In your facility, physically separate those with fever and rash from other patients as soon as possible and, if measles is suspected, care for them in an isolation room or one that can be kept unused afterwards.

Any time you suspect that a patient has measles, immediately inform the local public health department. The health department should conduct an investigation to find susceptible individuals, provide immunizations for case contacts (and immune globulin for unvaccinated pregnant women and those who are severely immunosuppressed), and implement isolation and quarantine measures as indica­ted by the situation.

There is no antiviral medication for measles. Aim treatment at controlling symptoms and addressing any complicating bacterial infections. Children who have severe illness should receive vitamin A at recommended doses.³

Outbreaks such as the one in Minnesota demonstrate the importance of family physicians working in collaboration with public health officials to minimize the effect of infectious illnesses on the community.

In April of this year, 3 counties in Minnesota reported a measles outbreak, illustrating the danger of vaccine hesitancy that exists in some communities, resulting in low rates of childhood immunization. Fifty people—mostly children under the age of 5 and almost all unimmunized—have been diagnosed with measles since this outbreak began. As of early May, 11 had been hospitalized. Most of those infected have been American-born children of Somali immigrants.^1,2

At the time of the outbreak, only 42% of the Somali children had been immunized against measles, compared with 88.5% of non-Somalis in Minnesota.² Because of concern about the number of Somali children being diagnosed with autism, a condition apparently not recognized in Somalia, Somali parents living in Minnesota began questioning why this was occurring.

If measles is suspected, care for patients in an isolation room or one that can be kept unused afterwards.

High profile anti-vaccine advocates reportedly visited the community and advised these parents that the measles-mumps-rubella (MMR) vaccine was the cause of this rise in autism incidence and encouraged them to avoid the vaccine.² This series of events led to low vaccination rates in what was once a well-vaccinated community. The outbreak appears to have started with a Somali child who visited Africa and then returned to his community while incubating measles.

The clinical course of measles. Measles is an acute viral respiratory illness, which, after an incubation period of 10 to 12 days, starts with a fever (as high as 105° F), malaise, and at least one of the 3 “C”s—cough, coryza, and conjunctivitis.^3,4 A maculopapular rash then starts on the face and spreads to the trunk and the extremities (FIGURE 1). Koplik spots (FIGURE 2) can be seen on the oral mucosa. Children with measles look very ill. Patients are contagious for approximately 8 days, starting 4 days before the rash appears. Complications can include otitis media, bronchopneumonia, encephalitis, and diarrhea.

Measles is not a benign childhood illness. Before the licensure of live measles vaccine in 1963, an average of 549,000 measles cases were reported in the United States each year.³ That number is likely an underestimate due to inconsistent reporting, with a more plausible number of infections annually being 3 to 4 million.³ These regular epidemics led each year to about 48,000 people being hospitalized from complications, 1000 developing chronic disability from acute measles encephalitis, and about 500 dying from measles-related complications. Today, worldwide, an estimated 134,200 individuals die from measles each year.³

Where the risk is greatest. In the year 2000, measles was declared eliminated from the United States, meaning that endemic transmission was no longer occurring. Since then, the annual number of cases has ranged from a low of 37 in 2004 to a high of 667 in 2014.³ Most measles cases have occurred in unvaccinated individuals and primarily through importation by people infected in other countries who then transmit the infection upon entry or reentry to this country. In the United States, measles is more likely to spread and cause outbreaks in communities where large groups of people are unvaccinated.

Laboratory confirmation of measles is important to establish a correct clinical diagnosis, as well as to verify the infection for public health purposes. Confirmation is achieved by detecting in a patient’s blood sample the measles-specific IgM antibody or measles RNA by real-time polymerase chain reaction (RT-PCR). Obtain both a serum sample and a throat swab (or nasopharyngeal swab) from patients you suspect may have measles. Urine samples may also contain virus, and can be useful. The local health department can offer advice on how to collect and process these laboratory specimens.

Measles is a preventable infection

The Centers for Disease Control and Prevention (CDC) recommends routine childhood immunization with MMR vaccine, with the first dose given at age 12 through 15 months, and the second dose at 4 through 6 years of age (or at least 28 days following the first dose).^3,5 Others for whom the vaccine is recommended are included in the TABLE.³

Because the MMR vaccine is a modified live-virus vaccine, it is contraindicated for pregnant women and those with severe immune deficiencies. It is also contraindicated for individuals who have ever had a life-threatening allergic reaction to the antibiotic neomycin or to any other MMR vaccine component.⁴ That these high-risk groups cannot receive protection from the vaccine underscores the importance of maintaining community herd immunity at a high level to prevent the spread of infection.

In response to this latest outbreak, the Minnesota Department of Health (MDH) has augmented its routine recommendations regarding measles vaccine,¹ including advising that:

• All children 12 months and older who have not received the MMR vaccine and all adults born in 1957 (or later) who have not received the vaccine or ever had the measles should get the first dose as soon as possible.
• Children who live in counties where measles cases have occurred and who have received their first dose of the MMR vaccine at least 28 days ago should get their second dose as soon as possible.
• All Somali Minnesotan children statewide who received their first dose of the vaccine at least 28 days ago should get their second as soon as possible.
• Health care providers statewide may recommend an early (before age 4 years) second dose of the vaccine during routine appointments for children.

Preventing measles outbreaks and minimizing community impact

Measures family physicians can take to protect their staff, patients, and community from measles (and other infectious diseases) include ensuring that all staff are fully immunized as recommended by the CDC,⁶ vaccinating all patients according to the recommended immunization schedules, implementing and enforcing good infection control practices in the clinical setting, and taking appropriate measures to diagnose and manage individuals with suspected measles. These measures are described on the CDC Web site.⁷

Measles virus, commonly believed to be the most infectious agent known, is often transmitted in medical facilities. An individual can become infected simply by entering a closed space that had been occupied by someone with measles several hours earlier. In your facility, physically separate those with fever and rash from other patients as soon as possible and, if measles is suspected, care for them in an isolation room or one that can be kept unused afterwards.

Any time you suspect that a patient has measles, immediately inform the local public health department. The health department should conduct an investigation to find susceptible individuals, provide immunizations for case contacts (and immune globulin for unvaccinated pregnant women and those who are severely immunosuppressed), and implement isolation and quarantine measures as indica­ted by the situation.

There is no antiviral medication for measles. Aim treatment at controlling symptoms and addressing any complicating bacterial infections. Children who have severe illness should receive vitamin A at recommended doses.³

Outbreaks such as the one in Minnesota demonstrate the importance of family physicians working in collaboration with public health officials to minimize the effect of infectious illnesses on the community.

In April of this year, 3 counties in Minnesota reported a measles outbreak, illustrating the danger of vaccine hesitancy that exists in some communities, resulting in low rates of childhood immunization. Fifty people—mostly children under the age of 5 and almost all unimmunized—have been diagnosed with measles since this outbreak began. As of early May, 11 had been hospitalized. Most of those infected have been American-born children of Somali immigrants.^1,2

At the time of the outbreak, only 42% of the Somali children had been immunized against measles, compared with 88.5% of non-Somalis in Minnesota.² Because of concern about the number of Somali children being diagnosed with autism, a condition apparently not recognized in Somalia, Somali parents living in Minnesota began questioning why this was occurring.

If measles is suspected, care for patients in an isolation room or one that can be kept unused afterwards.

High profile anti-vaccine advocates reportedly visited the community and advised these parents that the measles-mumps-rubella (MMR) vaccine was the cause of this rise in autism incidence and encouraged them to avoid the vaccine.² This series of events led to low vaccination rates in what was once a well-vaccinated community. The outbreak appears to have started with a Somali child who visited Africa and then returned to his community while incubating measles.

The clinical course of measles. Measles is an acute viral respiratory illness, which, after an incubation period of 10 to 12 days, starts with a fever (as high as 105° F), malaise, and at least one of the 3 “C”s—cough, coryza, and conjunctivitis.^3,4 A maculopapular rash then starts on the face and spreads to the trunk and the extremities (FIGURE 1). Koplik spots (FIGURE 2) can be seen on the oral mucosa. Children with measles look very ill. Patients are contagious for approximately 8 days, starting 4 days before the rash appears. Complications can include otitis media, bronchopneumonia, encephalitis, and diarrhea.

Measles is not a benign childhood illness. Before the licensure of live measles vaccine in 1963, an average of 549,000 measles cases were reported in the United States each year.³ That number is likely an underestimate due to inconsistent reporting, with a more plausible number of infections annually being 3 to 4 million.³ These regular epidemics led each year to about 48,000 people being hospitalized from complications, 1000 developing chronic disability from acute measles encephalitis, and about 500 dying from measles-related complications. Today, worldwide, an estimated 134,200 individuals die from measles each year.³

Where the risk is greatest. In the year 2000, measles was declared eliminated from the United States, meaning that endemic transmission was no longer occurring. Since then, the annual number of cases has ranged from a low of 37 in 2004 to a high of 667 in 2014.³ Most measles cases have occurred in unvaccinated individuals and primarily through importation by people infected in other countries who then transmit the infection upon entry or reentry to this country. In the United States, measles is more likely to spread and cause outbreaks in communities where large groups of people are unvaccinated.

Laboratory confirmation of measles is important to establish a correct clinical diagnosis, as well as to verify the infection for public health purposes. Confirmation is achieved by detecting in a patient’s blood sample the measles-specific IgM antibody or measles RNA by real-time polymerase chain reaction (RT-PCR). Obtain both a serum sample and a throat swab (or nasopharyngeal swab) from patients you suspect may have measles. Urine samples may also contain virus, and can be useful. The local health department can offer advice on how to collect and process these laboratory specimens.

Measles is a preventable infection

The Centers for Disease Control and Prevention (CDC) recommends routine childhood immunization with MMR vaccine, with the first dose given at age 12 through 15 months, and the second dose at 4 through 6 years of age (or at least 28 days following the first dose).^3,5 Others for whom the vaccine is recommended are included in the TABLE.³

Because the MMR vaccine is a modified live-virus vaccine, it is contraindicated for pregnant women and those with severe immune deficiencies. It is also contraindicated for individuals who have ever had a life-threatening allergic reaction to the antibiotic neomycin or to any other MMR vaccine component.⁴ That these high-risk groups cannot receive protection from the vaccine underscores the importance of maintaining community herd immunity at a high level to prevent the spread of infection.

In response to this latest outbreak, the Minnesota Department of Health (MDH) has augmented its routine recommendations regarding measles vaccine,¹ including advising that:

• All children 12 months and older who have not received the MMR vaccine and all adults born in 1957 (or later) who have not received the vaccine or ever had the measles should get the first dose as soon as possible.
• Children who live in counties where measles cases have occurred and who have received their first dose of the MMR vaccine at least 28 days ago should get their second dose as soon as possible.
• All Somali Minnesotan children statewide who received their first dose of the vaccine at least 28 days ago should get their second as soon as possible.
• Health care providers statewide may recommend an early (before age 4 years) second dose of the vaccine during routine appointments for children.

Preventing measles outbreaks and minimizing community impact

Measures family physicians can take to protect their staff, patients, and community from measles (and other infectious diseases) include ensuring that all staff are fully immunized as recommended by the CDC,⁶ vaccinating all patients according to the recommended immunization schedules, implementing and enforcing good infection control practices in the clinical setting, and taking appropriate measures to diagnose and manage individuals with suspected measles. These measures are described on the CDC Web site.⁷

Measles virus, commonly believed to be the most infectious agent known, is often transmitted in medical facilities. An individual can become infected simply by entering a closed space that had been occupied by someone with measles several hours earlier. In your facility, physically separate those with fever and rash from other patients as soon as possible and, if measles is suspected, care for them in an isolation room or one that can be kept unused afterwards.

Any time you suspect that a patient has measles, immediately inform the local public health department. The health department should conduct an investigation to find susceptible individuals, provide immunizations for case contacts (and immune globulin for unvaccinated pregnant women and those who are severely immunosuppressed), and implement isolation and quarantine measures as indica­ted by the situation.

There is no antiviral medication for measles. Aim treatment at controlling symptoms and addressing any complicating bacterial infections. Children who have severe illness should receive vitamin A at recommended doses.³

Outbreaks such as the one in Minnesota demonstrate the importance of family physicians working in collaboration with public health officials to minimize the effect of infectious illnesses on the community.

Human papillomavirus (HPV) is the most prevalent sexually transmitted disease globally. It is causally related to the development of several malignancies, including cervical, anal, and oropharyngeal ones, because of its integration and dysregulation of the genome of infected cells. Fortunately, vaccination is available to prevent development of HPV-related diseases. Understanding this virus, its carcinogenic role, and the importance of prevention through vaccination are critically important for ob.gyns. This column reviews the fundamentals of HPV biology, epidemiology, and carcinogenesis.

Viral anatomy

HPV are members of the A genus of the family Papovaviridae. They contain between 7,800 and 7,900 base pairs. They are nonenveloped, double-stranded DNA viruses with a circular structure. The viral DNA is contained within an icosahedral capsid that measures 45 nm-55 nm. The HPV genome has three critical regions: the long control region, otherwise known as the upstream regulatory region; the early region; and the late region.¹

Capsid proteins are similar between groups. Therefore, HPV are categorized into “types” and “subtypes” based on the extent of DNA similarity. There are more than 100 types of HPV in humans.² The type of HPV is determined by the gene sequences of E6/E7 and L1 and must show more than 10% difference between types. The gene sequences between different subtypes differ by 2%-5%.

National Cancer Institute

Epidemiology of HPV infection

HPV are widely distributed among mammalian species but are species specific. Their tissue affinity varies by type. HPV types 1, 2, and 4 cause common or plantar warts. HPV types 6 and 11 cause condyloma acuminata (genital warts) and low grade dysplasia. HPV types 16 and 18 – in addition to 31 and 52 – are of particular interest to oncologists because they are associated with lower genital tract high grade dysplasia and invasive carcinoma. Infection with HPV 16 is present in about half of invasive cervical cancers, with HPV type 18 present in 20% of cervical cancers. Adenocarcinomas of the cervix are more commonly associated with HPV 18. Anal cancer and oropharyngeal cancer are more commonly associated with HPV 16.³

HPV infections are acquired through cutaneous touching (including hand to genital) and HPV positivity is most commonly present within the first 10 years after sexual debut.⁴ However, most individuals who acquire HPV do so as a transient infection, which is cleared without sequelae. Those who fail to rapidly clear HPV infection, and in whom it becomes chronic, face an increasing risk of development of dysplasia and invasive carcinoma. The incidence of HPV infection increases again at menopause, but, for these older women, the new finding of HPV detection may be related to reactivation of an earlier infection rather than exclusively new exposure to the virus.⁵

Diagnosis and testing

HPV infection can be detected through DNA testing, RNA testing, and cellular markers.⁶

HPV DNA testing was the original form of testing offered. It improved the sensitivity over cytology alone in the detection of precursors to malignancy but had relatively poor specificity, resulting in a high false positive rate and unnecessary referral to colposcopy. The various tests approved by the Food and Drug Administration – Hybrid Capture 2 (HC2), Cervista, and Cobas 4800 – differ in the number and nature of HPV types that they detect.

HPV RNA testing has developed and involves measuring the expression of E6 and E7 RNA. This testing is FDA approved and has the potential to improve upon the specificity of DNA testing procedures by decreasing false positives.

Measurement of cellular markers is currently considered experimental/exploratory and is not yet FDA approved for diagnostic purposes in screening or confirmation of HPV infection or coexisting dysplasia. It involves measuring the downstream cellular targets (such as p16) of E6 or E7 activity.
 

The mechanism of carcinogenesis

The early region of the HPV genome is downstream from the upstream regulatory region. It codes for proteins involved in viral infection and replication. The two most important genes in the early region are E6 and E7. When integrated into the human genome of the lower genital tract cell, the viral genes E6 and E7 negatively interfere with cell cycle control and mechanisms to halt dysregulation.⁷

E6 and E7 are considered oncogenes because they cause loss of function of the critical tumor suppressor proteins p53 and the retinoblastoma protein. The p53 protein is typically responsible for controlling cell cycling through the G0/G1 to S phases. It involves stalling cellular mitosis in order to facilitate DNA repair mechanisms in the case of damaged cells, thereby preventing replication of DNA aberrations. The retinoblastoma protein also functions to inhibit cells that have acquired DNA damage from cycling and induces apoptosis in DNA damaged cells. When protein products of E6 and E7 negatively interact with these two tumor suppressor proteins they overcome the cell’s safeguard arrest response.

In the presence of other carcinogens, such as products of tobacco exposure, the increased DNA damage sustained by the genital tract cell is allowed to go relatively unchecked by the HPV coinfection, which has disabled tumor suppressor function. This facilitates immortality of the damaged cell, amplification of additional DNA mutations, and unchecked cellular growth and dysplastic transformation. E6 and E7 are strongly expressed in invasive genital tract lesions to support its important role in carcinogenesis.

HIV coinfection is another factor that promotes carcinogenesis following HPV infection because it inhibits clearance of the virus through T-cell mediated immunosuppression and directly enhances expression of E6 and E7 proteins in the HIV and HPV coinfected cell.⁸ For these reasons, HIV-positive women are less likely to clear HPV infection and more likely to develop high grade dysplasia or invasive carcinomas.
 

Prevention and vaccination

HPV vaccinations utilize virus-like particles (VLPs). These VLPs are capsid particles generated from the L1 region of the HPV DNA. The capsid proteins coded for by L1 are highly immunogenic. VLPs are recombinant proteins created in benign biologic systems (such as yeast) and contain no inner DNA core (effectively empty viral capsids) and therefore are not infectious. The L1 gene is incorporated into a plasmid, which is inserted into the nucleus of a eukaryotic cell. Transcription and translation of the L1 gene takes place, creating capsid proteins that self-assemble into VLPs. These VLPs are retrieved and inoculated into candidate patients to illicit an immune response.

Quadrivalent, nine-valent, and bivalent vaccines are available worldwide. However, only the nine-valent vaccine – protective against types 6, 11, 16, 18, 31, 33, 45, 52, and 58 – is available in the United States. This theoretically provides more comprehensive coverage against cervical cancer–causing HPV types, as 70% of cervical cancer is attributable to HPV 16 and 18, but an additional 20% is attributable to HPV 31, 33, 45, 52, and 58. This vaccine also provides protection against the HPV strains that cause genital warts and low-grade dysplastic changes.⁹

HPV, in most instances, is a transient virus with no sequelae. However, if not cleared from the cells of the lower genital tract, anus, or oropharynx it can result in the breakdown of cellular correction strategies and culminate in invasive carcinoma. Fortunately, highly effective and safe vaccinations are available and should be broadly prescribed.

Dr. Rossi is an assistant professor in the division of gynecologic oncology at the University of North Carolina at Chapel Hill. She reported having no relevant financial disclosures.

References

1. Cancer Epidemiol Biomarkers Prev. 1995 Jun;4(4):415-28.

2. Gynecol Oncol. 2011 Apr;121(1):32-42.

3. Cancer Epidemiol Biomarkers Prev. 2008 Jul;17(7):1611-22.

4. JAMA. 2007 Feb 28;297(8):813-9.

5. J Infect Dis. 2013; 207(2): 272-80.

6. J Natl Cancer Inst. 2011 Mar 2;103(5):368-83.

7. J Natl Cancer Inst. 2000 May 3;92(9):690-8.

8. Lancet. 2002 Jan 12;359(9301):108-13.

9. Obstet Gynecol 2017;129:e173–8.

Human papillomavirus (HPV) is the most prevalent sexually transmitted disease globally. It is causally related to the development of several malignancies, including cervical, anal, and oropharyngeal ones, because of its integration and dysregulation of the genome of infected cells. Fortunately, vaccination is available to prevent development of HPV-related diseases. Understanding this virus, its carcinogenic role, and the importance of prevention through vaccination are critically important for ob.gyns. This column reviews the fundamentals of HPV biology, epidemiology, and carcinogenesis.

Viral anatomy

HPV are members of the A genus of the family Papovaviridae. They contain between 7,800 and 7,900 base pairs. They are nonenveloped, double-stranded DNA viruses with a circular structure. The viral DNA is contained within an icosahedral capsid that measures 45 nm-55 nm. The HPV genome has three critical regions: the long control region, otherwise known as the upstream regulatory region; the early region; and the late region.¹

Capsid proteins are similar between groups. Therefore, HPV are categorized into “types” and “subtypes” based on the extent of DNA similarity. There are more than 100 types of HPV in humans.² The type of HPV is determined by the gene sequences of E6/E7 and L1 and must show more than 10% difference between types. The gene sequences between different subtypes differ by 2%-5%.

National Cancer Institute

Epidemiology of HPV infection

HPV are widely distributed among mammalian species but are species specific. Their tissue affinity varies by type. HPV types 1, 2, and 4 cause common or plantar warts. HPV types 6 and 11 cause condyloma acuminata (genital warts) and low grade dysplasia. HPV types 16 and 18 – in addition to 31 and 52 – are of particular interest to oncologists because they are associated with lower genital tract high grade dysplasia and invasive carcinoma. Infection with HPV 16 is present in about half of invasive cervical cancers, with HPV type 18 present in 20% of cervical cancers. Adenocarcinomas of the cervix are more commonly associated with HPV 18. Anal cancer and oropharyngeal cancer are more commonly associated with HPV 16.³

HPV infections are acquired through cutaneous touching (including hand to genital) and HPV positivity is most commonly present within the first 10 years after sexual debut.⁴ However, most individuals who acquire HPV do so as a transient infection, which is cleared without sequelae. Those who fail to rapidly clear HPV infection, and in whom it becomes chronic, face an increasing risk of development of dysplasia and invasive carcinoma. The incidence of HPV infection increases again at menopause, but, for these older women, the new finding of HPV detection may be related to reactivation of an earlier infection rather than exclusively new exposure to the virus.⁵

Diagnosis and testing

HPV infection can be detected through DNA testing, RNA testing, and cellular markers.⁶

HPV DNA testing was the original form of testing offered. It improved the sensitivity over cytology alone in the detection of precursors to malignancy but had relatively poor specificity, resulting in a high false positive rate and unnecessary referral to colposcopy. The various tests approved by the Food and Drug Administration – Hybrid Capture 2 (HC2), Cervista, and Cobas 4800 – differ in the number and nature of HPV types that they detect.

HPV RNA testing has developed and involves measuring the expression of E6 and E7 RNA. This testing is FDA approved and has the potential to improve upon the specificity of DNA testing procedures by decreasing false positives.

Measurement of cellular markers is currently considered experimental/exploratory and is not yet FDA approved for diagnostic purposes in screening or confirmation of HPV infection or coexisting dysplasia. It involves measuring the downstream cellular targets (such as p16) of E6 or E7 activity.
 

The mechanism of carcinogenesis

The early region of the HPV genome is downstream from the upstream regulatory region. It codes for proteins involved in viral infection and replication. The two most important genes in the early region are E6 and E7. When integrated into the human genome of the lower genital tract cell, the viral genes E6 and E7 negatively interfere with cell cycle control and mechanisms to halt dysregulation.⁷

E6 and E7 are considered oncogenes because they cause loss of function of the critical tumor suppressor proteins p53 and the retinoblastoma protein. The p53 protein is typically responsible for controlling cell cycling through the G0/G1 to S phases. It involves stalling cellular mitosis in order to facilitate DNA repair mechanisms in the case of damaged cells, thereby preventing replication of DNA aberrations. The retinoblastoma protein also functions to inhibit cells that have acquired DNA damage from cycling and induces apoptosis in DNA damaged cells. When protein products of E6 and E7 negatively interact with these two tumor suppressor proteins they overcome the cell’s safeguard arrest response.

In the presence of other carcinogens, such as products of tobacco exposure, the increased DNA damage sustained by the genital tract cell is allowed to go relatively unchecked by the HPV coinfection, which has disabled tumor suppressor function. This facilitates immortality of the damaged cell, amplification of additional DNA mutations, and unchecked cellular growth and dysplastic transformation. E6 and E7 are strongly expressed in invasive genital tract lesions to support its important role in carcinogenesis.

HIV coinfection is another factor that promotes carcinogenesis following HPV infection because it inhibits clearance of the virus through T-cell mediated immunosuppression and directly enhances expression of E6 and E7 proteins in the HIV and HPV coinfected cell.⁸ For these reasons, HIV-positive women are less likely to clear HPV infection and more likely to develop high grade dysplasia or invasive carcinomas.
 

Prevention and vaccination

HPV vaccinations utilize virus-like particles (VLPs). These VLPs are capsid particles generated from the L1 region of the HPV DNA. The capsid proteins coded for by L1 are highly immunogenic. VLPs are recombinant proteins created in benign biologic systems (such as yeast) and contain no inner DNA core (effectively empty viral capsids) and therefore are not infectious. The L1 gene is incorporated into a plasmid, which is inserted into the nucleus of a eukaryotic cell. Transcription and translation of the L1 gene takes place, creating capsid proteins that self-assemble into VLPs. These VLPs are retrieved and inoculated into candidate patients to illicit an immune response.

Quadrivalent, nine-valent, and bivalent vaccines are available worldwide. However, only the nine-valent vaccine – protective against types 6, 11, 16, 18, 31, 33, 45, 52, and 58 – is available in the United States. This theoretically provides more comprehensive coverage against cervical cancer–causing HPV types, as 70% of cervical cancer is attributable to HPV 16 and 18, but an additional 20% is attributable to HPV 31, 33, 45, 52, and 58. This vaccine also provides protection against the HPV strains that cause genital warts and low-grade dysplastic changes.⁹

HPV, in most instances, is a transient virus with no sequelae. However, if not cleared from the cells of the lower genital tract, anus, or oropharynx it can result in the breakdown of cellular correction strategies and culminate in invasive carcinoma. Fortunately, highly effective and safe vaccinations are available and should be broadly prescribed.

Dr. Rossi is an assistant professor in the division of gynecologic oncology at the University of North Carolina at Chapel Hill. She reported having no relevant financial disclosures.

References

1. Cancer Epidemiol Biomarkers Prev. 1995 Jun;4(4):415-28.

2. Gynecol Oncol. 2011 Apr;121(1):32-42.

3. Cancer Epidemiol Biomarkers Prev. 2008 Jul;17(7):1611-22.

4. JAMA. 2007 Feb 28;297(8):813-9.

5. J Infect Dis. 2013; 207(2): 272-80.

6. J Natl Cancer Inst. 2011 Mar 2;103(5):368-83.

7. J Natl Cancer Inst. 2000 May 3;92(9):690-8.

8. Lancet. 2002 Jan 12;359(9301):108-13.

9. Obstet Gynecol 2017;129:e173–8.

Human papillomavirus (HPV) is the most prevalent sexually transmitted disease globally. It is causally related to the development of several malignancies, including cervical, anal, and oropharyngeal ones, because of its integration and dysregulation of the genome of infected cells. Fortunately, vaccination is available to prevent development of HPV-related diseases. Understanding this virus, its carcinogenic role, and the importance of prevention through vaccination are critically important for ob.gyns. This column reviews the fundamentals of HPV biology, epidemiology, and carcinogenesis.

Viral anatomy

HPV are members of the A genus of the family Papovaviridae. They contain between 7,800 and 7,900 base pairs. They are nonenveloped, double-stranded DNA viruses with a circular structure. The viral DNA is contained within an icosahedral capsid that measures 45 nm-55 nm. The HPV genome has three critical regions: the long control region, otherwise known as the upstream regulatory region; the early region; and the late region.¹

Capsid proteins are similar between groups. Therefore, HPV are categorized into “types” and “subtypes” based on the extent of DNA similarity. There are more than 100 types of HPV in humans.² The type of HPV is determined by the gene sequences of E6/E7 and L1 and must show more than 10% difference between types. The gene sequences between different subtypes differ by 2%-5%.

National Cancer Institute

Epidemiology of HPV infection

HPV are widely distributed among mammalian species but are species specific. Their tissue affinity varies by type. HPV types 1, 2, and 4 cause common or plantar warts. HPV types 6 and 11 cause condyloma acuminata (genital warts) and low grade dysplasia. HPV types 16 and 18 – in addition to 31 and 52 – are of particular interest to oncologists because they are associated with lower genital tract high grade dysplasia and invasive carcinoma. Infection with HPV 16 is present in about half of invasive cervical cancers, with HPV type 18 present in 20% of cervical cancers. Adenocarcinomas of the cervix are more commonly associated with HPV 18. Anal cancer and oropharyngeal cancer are more commonly associated with HPV 16.³

HPV infections are acquired through cutaneous touching (including hand to genital) and HPV positivity is most commonly present within the first 10 years after sexual debut.⁴ However, most individuals who acquire HPV do so as a transient infection, which is cleared without sequelae. Those who fail to rapidly clear HPV infection, and in whom it becomes chronic, face an increasing risk of development of dysplasia and invasive carcinoma. The incidence of HPV infection increases again at menopause, but, for these older women, the new finding of HPV detection may be related to reactivation of an earlier infection rather than exclusively new exposure to the virus.⁵

Diagnosis and testing

HPV infection can be detected through DNA testing, RNA testing, and cellular markers.⁶

HPV DNA testing was the original form of testing offered. It improved the sensitivity over cytology alone in the detection of precursors to malignancy but had relatively poor specificity, resulting in a high false positive rate and unnecessary referral to colposcopy. The various tests approved by the Food and Drug Administration – Hybrid Capture 2 (HC2), Cervista, and Cobas 4800 – differ in the number and nature of HPV types that they detect.

HPV RNA testing has developed and involves measuring the expression of E6 and E7 RNA. This testing is FDA approved and has the potential to improve upon the specificity of DNA testing procedures by decreasing false positives.

Measurement of cellular markers is currently considered experimental/exploratory and is not yet FDA approved for diagnostic purposes in screening or confirmation of HPV infection or coexisting dysplasia. It involves measuring the downstream cellular targets (such as p16) of E6 or E7 activity.
 

The mechanism of carcinogenesis

The early region of the HPV genome is downstream from the upstream regulatory region. It codes for proteins involved in viral infection and replication. The two most important genes in the early region are E6 and E7. When integrated into the human genome of the lower genital tract cell, the viral genes E6 and E7 negatively interfere with cell cycle control and mechanisms to halt dysregulation.⁷

E6 and E7 are considered oncogenes because they cause loss of function of the critical tumor suppressor proteins p53 and the retinoblastoma protein. The p53 protein is typically responsible for controlling cell cycling through the G0/G1 to S phases. It involves stalling cellular mitosis in order to facilitate DNA repair mechanisms in the case of damaged cells, thereby preventing replication of DNA aberrations. The retinoblastoma protein also functions to inhibit cells that have acquired DNA damage from cycling and induces apoptosis in DNA damaged cells. When protein products of E6 and E7 negatively interact with these two tumor suppressor proteins they overcome the cell’s safeguard arrest response.

In the presence of other carcinogens, such as products of tobacco exposure, the increased DNA damage sustained by the genital tract cell is allowed to go relatively unchecked by the HPV coinfection, which has disabled tumor suppressor function. This facilitates immortality of the damaged cell, amplification of additional DNA mutations, and unchecked cellular growth and dysplastic transformation. E6 and E7 are strongly expressed in invasive genital tract lesions to support its important role in carcinogenesis.

HIV coinfection is another factor that promotes carcinogenesis following HPV infection because it inhibits clearance of the virus through T-cell mediated immunosuppression and directly enhances expression of E6 and E7 proteins in the HIV and HPV coinfected cell.⁸ For these reasons, HIV-positive women are less likely to clear HPV infection and more likely to develop high grade dysplasia or invasive carcinomas.
 

Prevention and vaccination

HPV vaccinations utilize virus-like particles (VLPs). These VLPs are capsid particles generated from the L1 region of the HPV DNA. The capsid proteins coded for by L1 are highly immunogenic. VLPs are recombinant proteins created in benign biologic systems (such as yeast) and contain no inner DNA core (effectively empty viral capsids) and therefore are not infectious. The L1 gene is incorporated into a plasmid, which is inserted into the nucleus of a eukaryotic cell. Transcription and translation of the L1 gene takes place, creating capsid proteins that self-assemble into VLPs. These VLPs are retrieved and inoculated into candidate patients to illicit an immune response.

Quadrivalent, nine-valent, and bivalent vaccines are available worldwide. However, only the nine-valent vaccine – protective against types 6, 11, 16, 18, 31, 33, 45, 52, and 58 – is available in the United States. This theoretically provides more comprehensive coverage against cervical cancer–causing HPV types, as 70% of cervical cancer is attributable to HPV 16 and 18, but an additional 20% is attributable to HPV 31, 33, 45, 52, and 58. This vaccine also provides protection against the HPV strains that cause genital warts and low-grade dysplastic changes.⁹

HPV, in most instances, is a transient virus with no sequelae. However, if not cleared from the cells of the lower genital tract, anus, or oropharynx it can result in the breakdown of cellular correction strategies and culminate in invasive carcinoma. Fortunately, highly effective and safe vaccinations are available and should be broadly prescribed.

Dr. Rossi is an assistant professor in the division of gynecologic oncology at the University of North Carolina at Chapel Hill. She reported having no relevant financial disclosures.

References

1. Cancer Epidemiol Biomarkers Prev. 1995 Jun;4(4):415-28.

2. Gynecol Oncol. 2011 Apr;121(1):32-42.

3. Cancer Epidemiol Biomarkers Prev. 2008 Jul;17(7):1611-22.

4. JAMA. 2007 Feb 28;297(8):813-9.

5. J Infect Dis. 2013; 207(2): 272-80.

6. J Natl Cancer Inst. 2011 Mar 2;103(5):368-83.

7. J Natl Cancer Inst. 2000 May 3;92(9):690-8.

8. Lancet. 2002 Jan 12;359(9301):108-13.

9. Obstet Gynecol 2017;129:e173–8.

The more vaccines children get at any one office visit between the ages of 4 and 6 years, the more fearful they are of needles later on and the less likely they are to start human papillomavirus vaccine (HPV) as adolescents, according to an investigation of 120 children.

Shot-stacking between ages 4 and 6 years is not uncommon, especially if children might not be back in the office any time soon. Although it’s convenient and often better reimbursed to give all the recommended 4- to 6-year-old shots – MMR, DTaP, varicella, IPV, and maybe flu and hepatitis B vaccines – in one visit, the investigators found a hidden cost.

M. Alexander Otto/Frontline Medical News

aotto@frontlinemedcom.com

The more vaccines children get at any one office visit between the ages of 4 and 6 years, the more fearful they are of needles later on and the less likely they are to start human papillomavirus vaccine (HPV) as adolescents, according to an investigation of 120 children.

Shot-stacking between ages 4 and 6 years is not uncommon, especially if children might not be back in the office any time soon. Although it’s convenient and often better reimbursed to give all the recommended 4- to 6-year-old shots – MMR, DTaP, varicella, IPV, and maybe flu and hepatitis B vaccines – in one visit, the investigators found a hidden cost.

M. Alexander Otto/Frontline Medical News

aotto@frontlinemedcom.com

The more vaccines children get at any one office visit between the ages of 4 and 6 years, the more fearful they are of needles later on and the less likely they are to start human papillomavirus vaccine (HPV) as adolescents, according to an investigation of 120 children.

Shot-stacking between ages 4 and 6 years is not uncommon, especially if children might not be back in the office any time soon. Although it’s convenient and often better reimbursed to give all the recommended 4- to 6-year-old shots – MMR, DTaP, varicella, IPV, and maybe flu and hepatitis B vaccines – in one visit, the investigators found a hidden cost.

M. Alexander Otto/Frontline Medical News

aotto@frontlinemedcom.com

MADRID – A nurse-led program successfully increased the uptake of pneumococcal vaccination among patients with chronic inflammatory rheumatic diseases in a single-center study.

From the start to the end of a 4-month evaluation period, the rate of vaccination of at-risk patients increased from 17.1% (13/76) to 77.6% (59/76; P less than .001).

Sara Freeman/Frontline Medical News

MADRID – A nurse-led program successfully increased the uptake of pneumococcal vaccination among patients with chronic inflammatory rheumatic diseases in a single-center study.

From the start to the end of a 4-month evaluation period, the rate of vaccination of at-risk patients increased from 17.1% (13/76) to 77.6% (59/76; P less than .001).

Sara Freeman/Frontline Medical News

MADRID – A nurse-led program successfully increased the uptake of pneumococcal vaccination among patients with chronic inflammatory rheumatic diseases in a single-center study.

From the start to the end of a 4-month evaluation period, the rate of vaccination of at-risk patients increased from 17.1% (13/76) to 77.6% (59/76; P less than .001).

Sara Freeman/Frontline Medical News

MADRID – Cases of invasive meningococcal disease in English 1 year olds dropped fourfold in the first year after the multicomponent group B meningococcal (MenB) vaccine (4CMenB, Bexsero) was added to the national infant immunization list, Shamez Ladhani, MD, Ph.D, reported at the annual meeting of the European Society for Paediatric Infectious Diseases.

“In 1 year olds, we have seen a significant decrease in the number of cases, compared with the number of cases predicted. I suspect the vaccine effectiveness is close to 94% against meningococcal group B,” said Dr. Ladhani of Public Health England, London.

bjancin@frontlinemedcom.com

MADRID – Cases of invasive meningococcal disease in English 1 year olds dropped fourfold in the first year after the multicomponent group B meningococcal (MenB) vaccine (4CMenB, Bexsero) was added to the national infant immunization list, Shamez Ladhani, MD, Ph.D, reported at the annual meeting of the European Society for Paediatric Infectious Diseases.

“In 1 year olds, we have seen a significant decrease in the number of cases, compared with the number of cases predicted. I suspect the vaccine effectiveness is close to 94% against meningococcal group B,” said Dr. Ladhani of Public Health England, London.

bjancin@frontlinemedcom.com

MADRID – Cases of invasive meningococcal disease in English 1 year olds dropped fourfold in the first year after the multicomponent group B meningococcal (MenB) vaccine (4CMenB, Bexsero) was added to the national infant immunization list, Shamez Ladhani, MD, Ph.D, reported at the annual meeting of the European Society for Paediatric Infectious Diseases.

“In 1 year olds, we have seen a significant decrease in the number of cases, compared with the number of cases predicted. I suspect the vaccine effectiveness is close to 94% against meningococcal group B,” said Dr. Ladhani of Public Health England, London.

bjancin@frontlinemedcom.com

Influenza vaccinations given through a microneedle patch (MNP) received higher patient approval compared with traditional inoculation methods, according to a small study funded by the National Institutes of Health.

In a phase I, randomized, placebo-controlled study, 100 patients between the ages of 18 and 49 years were split into four groups: one given the patch by a health care worker, one instructed to apply the patch at home, one given a vaccine through a traditional intramuscular injection, and one given a placebo.

Of those who took the patch, 70% (33 of 47) preferred the patch to intramuscular injection (The Lancet. 2017 Jun 27. doi: 10.1016/S0140-6736[17]30575-5).

All nonplacebo groups were given Fluvirin, the 2014-2015 licensed trivalent inactivated influenza vaccine, according to the researchers.

Protection against the virus 6 months after vaccination was similar across all groups other than the placebo group: 20-24 (83%-100%) of 24 participants given the patch by a health care worker, 18-24 (75%-100%) of 24 in the group of patients who gave themselves the patch, and 20-25 (80%-100%) of 25 in the injection group having achieved seroprotection against the three influenza strains 6 months after vaccination.

When measuring reactogenicity, the investigators did find more patients (41 of 50) reported cases of pruritis in the microneedle group than in the injection group (4 of 25).

However, these cases were mostly mild, while the injection group reported more grade 2 and grade 3 reactions, with grade 4 being the most severe.

Given the storage temperature of 40° C and ease of use without a health care provider, the investigators discussed the financial and clinical prospects of the patch.

“Increased acceptability could enable increased rates of influenza vaccination, which are currently less than 50% in adult populations,” they noted. “Moreover, because participants were able to self-vaccinate and 70% or more preferred it, significant cost savings could be enabled by microneedle patches due to a reduction in health-care worker time devoted to vaccination.”

Along with storage life and simple application process, the fact that the microneedles dissolve safely into the skin creates the potential for use in patients’ homes and offices, the researchers noted.

There may also be potential for use among pediatric patients, who may be resistant to vaccinations because of the injection method, they added.

“Microneedle patches have the potential to become ideal candidates for vaccination programmes, not only in poorly resourced settings, but also for individuals who currently prefer not to get vaccinated, potentially even being an attractive vaccine for the paediatric population,” Katja Höschler, PhD, and Maria C. Zambon, PhD, of Public Health England, London, said in a comment published with the study (The Lancet. 2017 Jun 27. doi: 10.1016/S0140-6736[17]31364-8). “The delivery advantages could also be exploited for non-influenza vaccines.”

Further studies must be conducted to test the efficacy of this vaccination system, because this study was limited by its size, the researchers noted.

The population was less inclined to receive an influenza injection because of the method itself, which may have affected the levels of preference for the patch, they added.

Some of the researchers are employees of Micron Biomedical, a company that manufactures microneedle products, and are listed as inventors on the licensed patents of these products. The investigators reported no other relevant financial disclosures.

ezimmerman@frontlinemedcom.com

On Twitter@eaztweets

Influenza vaccinations given through a microneedle patch (MNP) received higher patient approval compared with traditional inoculation methods, according to a small study funded by the National Institutes of Health.

In a phase I, randomized, placebo-controlled study, 100 patients between the ages of 18 and 49 years were split into four groups: one given the patch by a health care worker, one instructed to apply the patch at home, one given a vaccine through a traditional intramuscular injection, and one given a placebo.

Of those who took the patch, 70% (33 of 47) preferred the patch to intramuscular injection (The Lancet. 2017 Jun 27. doi: 10.1016/S0140-6736[17]30575-5).

All nonplacebo groups were given Fluvirin, the 2014-2015 licensed trivalent inactivated influenza vaccine, according to the researchers.

Protection against the virus 6 months after vaccination was similar across all groups other than the placebo group: 20-24 (83%-100%) of 24 participants given the patch by a health care worker, 18-24 (75%-100%) of 24 in the group of patients who gave themselves the patch, and 20-25 (80%-100%) of 25 in the injection group having achieved seroprotection against the three influenza strains 6 months after vaccination.

When measuring reactogenicity, the investigators did find more patients (41 of 50) reported cases of pruritis in the microneedle group than in the injection group (4 of 25).

However, these cases were mostly mild, while the injection group reported more grade 2 and grade 3 reactions, with grade 4 being the most severe.

Given the storage temperature of 40° C and ease of use without a health care provider, the investigators discussed the financial and clinical prospects of the patch.

“Increased acceptability could enable increased rates of influenza vaccination, which are currently less than 50% in adult populations,” they noted. “Moreover, because participants were able to self-vaccinate and 70% or more preferred it, significant cost savings could be enabled by microneedle patches due to a reduction in health-care worker time devoted to vaccination.”

Along with storage life and simple application process, the fact that the microneedles dissolve safely into the skin creates the potential for use in patients’ homes and offices, the researchers noted.

There may also be potential for use among pediatric patients, who may be resistant to vaccinations because of the injection method, they added.

“Microneedle patches have the potential to become ideal candidates for vaccination programmes, not only in poorly resourced settings, but also for individuals who currently prefer not to get vaccinated, potentially even being an attractive vaccine for the paediatric population,” Katja Höschler, PhD, and Maria C. Zambon, PhD, of Public Health England, London, said in a comment published with the study (The Lancet. 2017 Jun 27. doi: 10.1016/S0140-6736[17]31364-8). “The delivery advantages could also be exploited for non-influenza vaccines.”

Further studies must be conducted to test the efficacy of this vaccination system, because this study was limited by its size, the researchers noted.

The population was less inclined to receive an influenza injection because of the method itself, which may have affected the levels of preference for the patch, they added.

Some of the researchers are employees of Micron Biomedical, a company that manufactures microneedle products, and are listed as inventors on the licensed patents of these products. The investigators reported no other relevant financial disclosures.

ezimmerman@frontlinemedcom.com

On Twitter@eaztweets

Influenza vaccinations given through a microneedle patch (MNP) received higher patient approval compared with traditional inoculation methods, according to a small study funded by the National Institutes of Health.

In a phase I, randomized, placebo-controlled study, 100 patients between the ages of 18 and 49 years were split into four groups: one given the patch by a health care worker, one instructed to apply the patch at home, one given a vaccine through a traditional intramuscular injection, and one given a placebo.

Of those who took the patch, 70% (33 of 47) preferred the patch to intramuscular injection (The Lancet. 2017 Jun 27. doi: 10.1016/S0140-6736[17]30575-5).

All nonplacebo groups were given Fluvirin, the 2014-2015 licensed trivalent inactivated influenza vaccine, according to the researchers.

Protection against the virus 6 months after vaccination was similar across all groups other than the placebo group: 20-24 (83%-100%) of 24 participants given the patch by a health care worker, 18-24 (75%-100%) of 24 in the group of patients who gave themselves the patch, and 20-25 (80%-100%) of 25 in the injection group having achieved seroprotection against the three influenza strains 6 months after vaccination.

When measuring reactogenicity, the investigators did find more patients (41 of 50) reported cases of pruritis in the microneedle group than in the injection group (4 of 25).

However, these cases were mostly mild, while the injection group reported more grade 2 and grade 3 reactions, with grade 4 being the most severe.

Given the storage temperature of 40° C and ease of use without a health care provider, the investigators discussed the financial and clinical prospects of the patch.

“Increased acceptability could enable increased rates of influenza vaccination, which are currently less than 50% in adult populations,” they noted. “Moreover, because participants were able to self-vaccinate and 70% or more preferred it, significant cost savings could be enabled by microneedle patches due to a reduction in health-care worker time devoted to vaccination.”

Along with storage life and simple application process, the fact that the microneedles dissolve safely into the skin creates the potential for use in patients’ homes and offices, the researchers noted.

There may also be potential for use among pediatric patients, who may be resistant to vaccinations because of the injection method, they added.

“Microneedle patches have the potential to become ideal candidates for vaccination programmes, not only in poorly resourced settings, but also for individuals who currently prefer not to get vaccinated, potentially even being an attractive vaccine for the paediatric population,” Katja Höschler, PhD, and Maria C. Zambon, PhD, of Public Health England, London, said in a comment published with the study (The Lancet. 2017 Jun 27. doi: 10.1016/S0140-6736[17]31364-8). “The delivery advantages could also be exploited for non-influenza vaccines.”

Further studies must be conducted to test the efficacy of this vaccination system, because this study was limited by its size, the researchers noted.

The population was less inclined to receive an influenza injection because of the method itself, which may have affected the levels of preference for the patch, they added.

Some of the researchers are employees of Micron Biomedical, a company that manufactures microneedle products, and are listed as inventors on the licensed patents of these products. The investigators reported no other relevant financial disclosures.

ezimmerman@frontlinemedcom.com

On Twitter@eaztweets

FROM AN ACIP MEETING

New draft recommendations on influenza vaccines for children and pregnant women were unanimously passed by the Centers for Disease Control and Prevention’s Advisory Committee on Immunization Practices (ACIP) after a lengthy debate over specifics regarding recommendations for pregnant women.

The proposed recommendation that sparked the debate would change the wording of the previous recommendation for pregnant women to receive a seasonal inactivated vaccine (IIV) to “any licensed, recommended, and age-appropriate, trivalent or quadrivalent IIV or RIV [recombinant influenza vaccine] may be used.”

Steve Mann/Thinkstock

ezimmerman@frontlinemedcom.com

On Twitter @eaztweets

FROM AN ACIP MEETING

New draft recommendations on influenza vaccines for children and pregnant women were unanimously passed by the Centers for Disease Control and Prevention’s Advisory Committee on Immunization Practices (ACIP) after a lengthy debate over specifics regarding recommendations for pregnant women.

The proposed recommendation that sparked the debate would change the wording of the previous recommendation for pregnant women to receive a seasonal inactivated vaccine (IIV) to “any licensed, recommended, and age-appropriate, trivalent or quadrivalent IIV or RIV [recombinant influenza vaccine] may be used.”

Steve Mann/Thinkstock

ezimmerman@frontlinemedcom.com

On Twitter @eaztweets

FROM AN ACIP MEETING

New draft recommendations on influenza vaccines for children and pregnant women were unanimously passed by the Centers for Disease Control and Prevention’s Advisory Committee on Immunization Practices (ACIP) after a lengthy debate over specifics regarding recommendations for pregnant women.

The proposed recommendation that sparked the debate would change the wording of the previous recommendation for pregnant women to receive a seasonal inactivated vaccine (IIV) to “any licensed, recommended, and age-appropriate, trivalent or quadrivalent IIV or RIV [recombinant influenza vaccine] may be used.”

Steve Mann/Thinkstock

ezimmerman@frontlinemedcom.com

On Twitter @eaztweets