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Early screening may halve breast cancer mortality in childhood cancer survivors
Two strategies – annual mammography with MRI and annual MRI alone – at least halved breast cancer mortality when started at the ages of 25 or 30 years.
Jennifer M. Yeh, PhD, of Harvard Medical School in Boston and colleagues reported these results in the Annals of Internal Medicine.
When cost was also considered, 30 years emerged as the preferred starting age, dropping the incremental cost-effectiveness ratio (ICER) below the generally accepted threshold of $100,000 per quality-adjusted life-year gained.
“Our findings underscore the importance of making sure that young women previously treated with chest radiation are informed about their elevated breast cancer risk and the benefits of routine screening. Both primary care providers and oncologists who care for survivors should discuss breast cancer screening with these patients,” Dr. Yeh and colleagues wrote.
“Screening guidelines should emphasize the importance of MRI screening (with or without mammography) among survivors,” the authors recommended. “Our findings also highlight the importance of ensuring that survivors have access to health insurance coverage for MRI screening.”
Implications for awareness, coverage
“My hope is that, by showing the significantly decreased risk of death associated with early breast cancer screening, with harm-benefit ratios considerably lower than benchmarks for average-risk women, this study will help health insurance companies see the benefit in covering early screening for at-risk survivors,” commented Karen E. Effinger, MD, of Emory University, Atlanta, and the Aflac Cancer & Blood Disorders Center at Children’s Healthcare of Atlanta.
“In many survivors, the cost of current screening [as recommended by] guidelines is prohibitive,” added Dr. Effinger, who was not involved in the current study.
The main concern regarding the study’s findings is generalizability to the contemporary era, given the use of a cohort diagnosed and treated decades ago and changes in radiation techniques and dosing since then, she noted in an interview. This limitation was addressed in a sensitivity analysis that halved the women’s base-case lifetime risk of breast cancer and still netted similar results.
“However, it will take many years to determine the true risk reduction of our current treatment strategies,” Dr. Effinger acknowledged.
“It is crucial that we improve our education of both survivors and our colleagues who care for these survivors, especially in regard to risk of subsequent malignancies and the benefits of screening,” Dr. Effinger maintained. “While many people are aware of the risk of breast cancer associated with BRCA mutations, the increased risk in survivors of childhood cancer is not as recognized by nononcologists. This study reinforces that increasing this awareness can save lives.”
In educating their patients about preventive care, health care providers must strike “a fine balance between discussing the risks and benefits of screening without provoking significant anxiety,” she concluded. “It is important for survivors to establish care with a primary care provider in order to develop trust and receive the guidance they need to decrease the risk of early mortality.”
Study details
Dr. Yeh and colleagues developed models to compare outcomes with various screening strategies among women aged 20 years who had received chest radiotherapy for childhood cancer during 1970-1986. The women had been diagnosed with Hodgkin lymphoma (55%), Wilms tumor (12%), non-Hodgkin lymphoma (8%), and other cancers.
The investigators conducted their analysis using data from the Childhood Cancer Survivor Study and other published sources, a lifetime time horizon, and a payer perspective.
The team assessed three strategies: no screening; digital mammography with MRI screening starting at 25 years of age (the current Children’s Oncology Group recommendation), 30 years, or 35 years and continuing to 74 years of age; and MRI only starting at age 25, 30, or 35 years and continuing to age 74 years.
The main study results showed that, without screening, women who had received chest radiation for childhood cancer had a 10%-11% lifetime risk of breast cancer mortality across models.
Relative to no screening, starting at age 25 years, the largest share of deaths was averted with the strategy of annual mammography with MRI – 56.3%-71.2% – or with the strategy of annual MRI alone – 55.7%-62.0%.
These two strategies also yielded the most screening tests, as well as the most false-positive test results and benign biopsy results.
For women who started screening at age 25, there were 4,188-4,879 false-positive test results per 1,000 women for mammography plus MRI and 3,283-3,764 false-positive results per 1,000 women for MRI alone.
For women who started screening at age 25, there were 1,340-1,561 benign biopsy results per 1,000 women for mammography plus MRI and 1,248-1,430 benign results per 1,000 women for MRI alone.
After cost was factored in, beginning screening at age 30 emerged as the preferred strategy to achieve an ICER threshold of less than $100,000 per quality-adjusted life-year gained.
When started at 30 years of age, annual mammography with MRI averted 54.7%-68.8% of breast cancer deaths, with an ICER of $25,400-$113,200 per quality-adjusted life-year gained. Annual MRI alone averted 54.0%-60.0% of breast cancer deaths, with an ICER of $21,800-$50,580 per quality-adjusted life-year gained.
This research was supported by grants from the National Cancer Institute, American Cancer Society, and American Lebanese Syrian Associated Charities. The authors disclosed relationships with GE Healthcare and Biovector. Dr. Effinger disclosed no relevant conflicts of interest.
SOURCE: Yeh JM et al. Ann Intern Med. 2020 Jul 7. doi: 10.7326/M19-3481.
Two strategies – annual mammography with MRI and annual MRI alone – at least halved breast cancer mortality when started at the ages of 25 or 30 years.
Jennifer M. Yeh, PhD, of Harvard Medical School in Boston and colleagues reported these results in the Annals of Internal Medicine.
When cost was also considered, 30 years emerged as the preferred starting age, dropping the incremental cost-effectiveness ratio (ICER) below the generally accepted threshold of $100,000 per quality-adjusted life-year gained.
“Our findings underscore the importance of making sure that young women previously treated with chest radiation are informed about their elevated breast cancer risk and the benefits of routine screening. Both primary care providers and oncologists who care for survivors should discuss breast cancer screening with these patients,” Dr. Yeh and colleagues wrote.
“Screening guidelines should emphasize the importance of MRI screening (with or without mammography) among survivors,” the authors recommended. “Our findings also highlight the importance of ensuring that survivors have access to health insurance coverage for MRI screening.”
Implications for awareness, coverage
“My hope is that, by showing the significantly decreased risk of death associated with early breast cancer screening, with harm-benefit ratios considerably lower than benchmarks for average-risk women, this study will help health insurance companies see the benefit in covering early screening for at-risk survivors,” commented Karen E. Effinger, MD, of Emory University, Atlanta, and the Aflac Cancer & Blood Disorders Center at Children’s Healthcare of Atlanta.
“In many survivors, the cost of current screening [as recommended by] guidelines is prohibitive,” added Dr. Effinger, who was not involved in the current study.
The main concern regarding the study’s findings is generalizability to the contemporary era, given the use of a cohort diagnosed and treated decades ago and changes in radiation techniques and dosing since then, she noted in an interview. This limitation was addressed in a sensitivity analysis that halved the women’s base-case lifetime risk of breast cancer and still netted similar results.
“However, it will take many years to determine the true risk reduction of our current treatment strategies,” Dr. Effinger acknowledged.
“It is crucial that we improve our education of both survivors and our colleagues who care for these survivors, especially in regard to risk of subsequent malignancies and the benefits of screening,” Dr. Effinger maintained. “While many people are aware of the risk of breast cancer associated with BRCA mutations, the increased risk in survivors of childhood cancer is not as recognized by nononcologists. This study reinforces that increasing this awareness can save lives.”
In educating their patients about preventive care, health care providers must strike “a fine balance between discussing the risks and benefits of screening without provoking significant anxiety,” she concluded. “It is important for survivors to establish care with a primary care provider in order to develop trust and receive the guidance they need to decrease the risk of early mortality.”
Study details
Dr. Yeh and colleagues developed models to compare outcomes with various screening strategies among women aged 20 years who had received chest radiotherapy for childhood cancer during 1970-1986. The women had been diagnosed with Hodgkin lymphoma (55%), Wilms tumor (12%), non-Hodgkin lymphoma (8%), and other cancers.
The investigators conducted their analysis using data from the Childhood Cancer Survivor Study and other published sources, a lifetime time horizon, and a payer perspective.
The team assessed three strategies: no screening; digital mammography with MRI screening starting at 25 years of age (the current Children’s Oncology Group recommendation), 30 years, or 35 years and continuing to 74 years of age; and MRI only starting at age 25, 30, or 35 years and continuing to age 74 years.
The main study results showed that, without screening, women who had received chest radiation for childhood cancer had a 10%-11% lifetime risk of breast cancer mortality across models.
Relative to no screening, starting at age 25 years, the largest share of deaths was averted with the strategy of annual mammography with MRI – 56.3%-71.2% – or with the strategy of annual MRI alone – 55.7%-62.0%.
These two strategies also yielded the most screening tests, as well as the most false-positive test results and benign biopsy results.
For women who started screening at age 25, there were 4,188-4,879 false-positive test results per 1,000 women for mammography plus MRI and 3,283-3,764 false-positive results per 1,000 women for MRI alone.
For women who started screening at age 25, there were 1,340-1,561 benign biopsy results per 1,000 women for mammography plus MRI and 1,248-1,430 benign results per 1,000 women for MRI alone.
After cost was factored in, beginning screening at age 30 emerged as the preferred strategy to achieve an ICER threshold of less than $100,000 per quality-adjusted life-year gained.
When started at 30 years of age, annual mammography with MRI averted 54.7%-68.8% of breast cancer deaths, with an ICER of $25,400-$113,200 per quality-adjusted life-year gained. Annual MRI alone averted 54.0%-60.0% of breast cancer deaths, with an ICER of $21,800-$50,580 per quality-adjusted life-year gained.
This research was supported by grants from the National Cancer Institute, American Cancer Society, and American Lebanese Syrian Associated Charities. The authors disclosed relationships with GE Healthcare and Biovector. Dr. Effinger disclosed no relevant conflicts of interest.
SOURCE: Yeh JM et al. Ann Intern Med. 2020 Jul 7. doi: 10.7326/M19-3481.
Two strategies – annual mammography with MRI and annual MRI alone – at least halved breast cancer mortality when started at the ages of 25 or 30 years.
Jennifer M. Yeh, PhD, of Harvard Medical School in Boston and colleagues reported these results in the Annals of Internal Medicine.
When cost was also considered, 30 years emerged as the preferred starting age, dropping the incremental cost-effectiveness ratio (ICER) below the generally accepted threshold of $100,000 per quality-adjusted life-year gained.
“Our findings underscore the importance of making sure that young women previously treated with chest radiation are informed about their elevated breast cancer risk and the benefits of routine screening. Both primary care providers and oncologists who care for survivors should discuss breast cancer screening with these patients,” Dr. Yeh and colleagues wrote.
“Screening guidelines should emphasize the importance of MRI screening (with or without mammography) among survivors,” the authors recommended. “Our findings also highlight the importance of ensuring that survivors have access to health insurance coverage for MRI screening.”
Implications for awareness, coverage
“My hope is that, by showing the significantly decreased risk of death associated with early breast cancer screening, with harm-benefit ratios considerably lower than benchmarks for average-risk women, this study will help health insurance companies see the benefit in covering early screening for at-risk survivors,” commented Karen E. Effinger, MD, of Emory University, Atlanta, and the Aflac Cancer & Blood Disorders Center at Children’s Healthcare of Atlanta.
“In many survivors, the cost of current screening [as recommended by] guidelines is prohibitive,” added Dr. Effinger, who was not involved in the current study.
The main concern regarding the study’s findings is generalizability to the contemporary era, given the use of a cohort diagnosed and treated decades ago and changes in radiation techniques and dosing since then, she noted in an interview. This limitation was addressed in a sensitivity analysis that halved the women’s base-case lifetime risk of breast cancer and still netted similar results.
“However, it will take many years to determine the true risk reduction of our current treatment strategies,” Dr. Effinger acknowledged.
“It is crucial that we improve our education of both survivors and our colleagues who care for these survivors, especially in regard to risk of subsequent malignancies and the benefits of screening,” Dr. Effinger maintained. “While many people are aware of the risk of breast cancer associated with BRCA mutations, the increased risk in survivors of childhood cancer is not as recognized by nononcologists. This study reinforces that increasing this awareness can save lives.”
In educating their patients about preventive care, health care providers must strike “a fine balance between discussing the risks and benefits of screening without provoking significant anxiety,” she concluded. “It is important for survivors to establish care with a primary care provider in order to develop trust and receive the guidance they need to decrease the risk of early mortality.”
Study details
Dr. Yeh and colleagues developed models to compare outcomes with various screening strategies among women aged 20 years who had received chest radiotherapy for childhood cancer during 1970-1986. The women had been diagnosed with Hodgkin lymphoma (55%), Wilms tumor (12%), non-Hodgkin lymphoma (8%), and other cancers.
The investigators conducted their analysis using data from the Childhood Cancer Survivor Study and other published sources, a lifetime time horizon, and a payer perspective.
The team assessed three strategies: no screening; digital mammography with MRI screening starting at 25 years of age (the current Children’s Oncology Group recommendation), 30 years, or 35 years and continuing to 74 years of age; and MRI only starting at age 25, 30, or 35 years and continuing to age 74 years.
The main study results showed that, without screening, women who had received chest radiation for childhood cancer had a 10%-11% lifetime risk of breast cancer mortality across models.
Relative to no screening, starting at age 25 years, the largest share of deaths was averted with the strategy of annual mammography with MRI – 56.3%-71.2% – or with the strategy of annual MRI alone – 55.7%-62.0%.
These two strategies also yielded the most screening tests, as well as the most false-positive test results and benign biopsy results.
For women who started screening at age 25, there were 4,188-4,879 false-positive test results per 1,000 women for mammography plus MRI and 3,283-3,764 false-positive results per 1,000 women for MRI alone.
For women who started screening at age 25, there were 1,340-1,561 benign biopsy results per 1,000 women for mammography plus MRI and 1,248-1,430 benign results per 1,000 women for MRI alone.
After cost was factored in, beginning screening at age 30 emerged as the preferred strategy to achieve an ICER threshold of less than $100,000 per quality-adjusted life-year gained.
When started at 30 years of age, annual mammography with MRI averted 54.7%-68.8% of breast cancer deaths, with an ICER of $25,400-$113,200 per quality-adjusted life-year gained. Annual MRI alone averted 54.0%-60.0% of breast cancer deaths, with an ICER of $21,800-$50,580 per quality-adjusted life-year gained.
This research was supported by grants from the National Cancer Institute, American Cancer Society, and American Lebanese Syrian Associated Charities. The authors disclosed relationships with GE Healthcare and Biovector. Dr. Effinger disclosed no relevant conflicts of interest.
SOURCE: Yeh JM et al. Ann Intern Med. 2020 Jul 7. doi: 10.7326/M19-3481.
FROM ANNALS OF INTERNAL MEDICINE
AAP releases new policy statement on barrier protection for teens
For adolescent patients, routinely take a sexual history, discuss the use of barrier methods, and perform relevant examinations, screenings, and vaccinations, according to a new policy statement on barrier protection use from the American Academy of Pediatrics’ Committee on Adolescence.
The policy statement has been expanded to cover multiple types of sexual activity and methods of barrier protection. These include not only traditional condoms, but also internal condoms (available in the United States only by prescription) and dental dams (for use during oral sex) or a latex sheet. “Pediatricians and other clinicians are encouraged to provide barrier methods within their offices and support availability within their communities,” said Laura K. Grubb, MD, MPH, of Tufts Medical Center in Boston, who authored both the policy statement and the technical report.
Counsel adolescents that abstaining from sexual intercourse is the best way to prevent genital sexually transmitted infections (STIs), HIV infection, and unplanned pregnancy. Also encourage and support consistent, correct barrier method use – in addition to other reliable contraception, if patients are sexually active or are thinking about becoming sexually active – the policy statement notes. Emphasize that all partners share responsibility to prevent STIs and unplanned pregnancies. “Adolescents with intellectual and physical disabilities are an overlooked group when it comes to sexual behavior, but they have similar rates of sexual behaviors when compared with their peers without disabilities,” Dr. Grubb and colleagues emphasized in the policy statement.
This is key because Centers for Disease Control and Prevention 2017 data showed that in the United States, “456,000 adolescent and young women younger than 20 years became pregnant; 448,000 of those pregnancies were among 15- to 19-year-olds, and 7,400 were among those 14 years of age and younger,” according to the technical report accompanying the policy statement. Also, “new cases of STIs increased 31% in the United States from 2013 to 2017, with half of the 2.3 million new STIs reported each year among young people 15 to 24 years of age.”
Parents may need support and encouragement to talk with their children about sex, sexuality, and the use of barrier methods to prevent STIs. Dr. Grubb and colleagues recommend via the policy statement: “Actively communicate to parents and communities that making barrier methods available to adolescents does not increase the onset or frequency of adolescent sexual activity, and that use of barrier methods can help decrease rates of unintended pregnancy and acquisition of STIs.”
Use Bright Futures: Guidelines for Health Supervision of Infants, Children, and Adolescents, Fourth Edition, for guidance on supporting parents and adolescents in promoting healthy sexual development and sexuality, including discussions of barrier methods.
Some groups of adolescents may use barrier methods less consistently because they perceive themselves to be lower risk. These include adolescents who use preexposure prophylaxis or nonbarrier contraception, who identify as bisexual or lesbian, or who are in established relationships. Monitor these patients to assess their risk and need for additional counseling. In the technical report, studies are cited finding that barrier methods are used less consistently during oral sex and that condom use is lower among cisgender and transgender females, and among adolescents who self-identify as gay, lesbian, or bisexual, compared with other groups.
In the policy statement, Dr. Grubb and colleagues call on pediatricians to advocate for more research and better access to barrier methods, especially for higher-risk adolescents and those living in underserved areas. In particular, school education programs on barrier methods can reach large adolescent groups and provide a “comprehensive array of educational and health care resources.”
Katie Brigham, MD, a pediatrician at MassGeneral Hospital for Children in Boston, affirmed the recommendations in the new policy statement (which she did not help write or research). “Even though the pregnancy rate is dropping in the United States, STI rates are increasing, so it is vital that pediatricians and other providers of adolescents and young adults counsel all their patients, regardless of gender and sexual orientation, of the importance of barrier methods when having oral, vaginal, or anal sex,” she said in an interview.
Dr. Brigham praised the technical report, adding that she found no major weaknesses in its methodology. “For future research, it would be interesting to see if there are different rates of pregnancy and STIs in pediatric practices that provide condoms and other barrier methods free to their patients, compared to those that do not.”
No external funding sources were reported. Dr. Grubb and Dr. Brigham reported having no relevant financial disclosures.
SOURCE: Grubb LK et al. Pediatrics. 2020 Jul 20. doi: 10.1542/peds.2020-007237.
For adolescent patients, routinely take a sexual history, discuss the use of barrier methods, and perform relevant examinations, screenings, and vaccinations, according to a new policy statement on barrier protection use from the American Academy of Pediatrics’ Committee on Adolescence.
The policy statement has been expanded to cover multiple types of sexual activity and methods of barrier protection. These include not only traditional condoms, but also internal condoms (available in the United States only by prescription) and dental dams (for use during oral sex) or a latex sheet. “Pediatricians and other clinicians are encouraged to provide barrier methods within their offices and support availability within their communities,” said Laura K. Grubb, MD, MPH, of Tufts Medical Center in Boston, who authored both the policy statement and the technical report.
Counsel adolescents that abstaining from sexual intercourse is the best way to prevent genital sexually transmitted infections (STIs), HIV infection, and unplanned pregnancy. Also encourage and support consistent, correct barrier method use – in addition to other reliable contraception, if patients are sexually active or are thinking about becoming sexually active – the policy statement notes. Emphasize that all partners share responsibility to prevent STIs and unplanned pregnancies. “Adolescents with intellectual and physical disabilities are an overlooked group when it comes to sexual behavior, but they have similar rates of sexual behaviors when compared with their peers without disabilities,” Dr. Grubb and colleagues emphasized in the policy statement.
This is key because Centers for Disease Control and Prevention 2017 data showed that in the United States, “456,000 adolescent and young women younger than 20 years became pregnant; 448,000 of those pregnancies were among 15- to 19-year-olds, and 7,400 were among those 14 years of age and younger,” according to the technical report accompanying the policy statement. Also, “new cases of STIs increased 31% in the United States from 2013 to 2017, with half of the 2.3 million new STIs reported each year among young people 15 to 24 years of age.”
Parents may need support and encouragement to talk with their children about sex, sexuality, and the use of barrier methods to prevent STIs. Dr. Grubb and colleagues recommend via the policy statement: “Actively communicate to parents and communities that making barrier methods available to adolescents does not increase the onset or frequency of adolescent sexual activity, and that use of barrier methods can help decrease rates of unintended pregnancy and acquisition of STIs.”
Use Bright Futures: Guidelines for Health Supervision of Infants, Children, and Adolescents, Fourth Edition, for guidance on supporting parents and adolescents in promoting healthy sexual development and sexuality, including discussions of barrier methods.
Some groups of adolescents may use barrier methods less consistently because they perceive themselves to be lower risk. These include adolescents who use preexposure prophylaxis or nonbarrier contraception, who identify as bisexual or lesbian, or who are in established relationships. Monitor these patients to assess their risk and need for additional counseling. In the technical report, studies are cited finding that barrier methods are used less consistently during oral sex and that condom use is lower among cisgender and transgender females, and among adolescents who self-identify as gay, lesbian, or bisexual, compared with other groups.
In the policy statement, Dr. Grubb and colleagues call on pediatricians to advocate for more research and better access to barrier methods, especially for higher-risk adolescents and those living in underserved areas. In particular, school education programs on barrier methods can reach large adolescent groups and provide a “comprehensive array of educational and health care resources.”
Katie Brigham, MD, a pediatrician at MassGeneral Hospital for Children in Boston, affirmed the recommendations in the new policy statement (which she did not help write or research). “Even though the pregnancy rate is dropping in the United States, STI rates are increasing, so it is vital that pediatricians and other providers of adolescents and young adults counsel all their patients, regardless of gender and sexual orientation, of the importance of barrier methods when having oral, vaginal, or anal sex,” she said in an interview.
Dr. Brigham praised the technical report, adding that she found no major weaknesses in its methodology. “For future research, it would be interesting to see if there are different rates of pregnancy and STIs in pediatric practices that provide condoms and other barrier methods free to their patients, compared to those that do not.”
No external funding sources were reported. Dr. Grubb and Dr. Brigham reported having no relevant financial disclosures.
SOURCE: Grubb LK et al. Pediatrics. 2020 Jul 20. doi: 10.1542/peds.2020-007237.
For adolescent patients, routinely take a sexual history, discuss the use of barrier methods, and perform relevant examinations, screenings, and vaccinations, according to a new policy statement on barrier protection use from the American Academy of Pediatrics’ Committee on Adolescence.
The policy statement has been expanded to cover multiple types of sexual activity and methods of barrier protection. These include not only traditional condoms, but also internal condoms (available in the United States only by prescription) and dental dams (for use during oral sex) or a latex sheet. “Pediatricians and other clinicians are encouraged to provide barrier methods within their offices and support availability within their communities,” said Laura K. Grubb, MD, MPH, of Tufts Medical Center in Boston, who authored both the policy statement and the technical report.
Counsel adolescents that abstaining from sexual intercourse is the best way to prevent genital sexually transmitted infections (STIs), HIV infection, and unplanned pregnancy. Also encourage and support consistent, correct barrier method use – in addition to other reliable contraception, if patients are sexually active or are thinking about becoming sexually active – the policy statement notes. Emphasize that all partners share responsibility to prevent STIs and unplanned pregnancies. “Adolescents with intellectual and physical disabilities are an overlooked group when it comes to sexual behavior, but they have similar rates of sexual behaviors when compared with their peers without disabilities,” Dr. Grubb and colleagues emphasized in the policy statement.
This is key because Centers for Disease Control and Prevention 2017 data showed that in the United States, “456,000 adolescent and young women younger than 20 years became pregnant; 448,000 of those pregnancies were among 15- to 19-year-olds, and 7,400 were among those 14 years of age and younger,” according to the technical report accompanying the policy statement. Also, “new cases of STIs increased 31% in the United States from 2013 to 2017, with half of the 2.3 million new STIs reported each year among young people 15 to 24 years of age.”
Parents may need support and encouragement to talk with their children about sex, sexuality, and the use of barrier methods to prevent STIs. Dr. Grubb and colleagues recommend via the policy statement: “Actively communicate to parents and communities that making barrier methods available to adolescents does not increase the onset or frequency of adolescent sexual activity, and that use of barrier methods can help decrease rates of unintended pregnancy and acquisition of STIs.”
Use Bright Futures: Guidelines for Health Supervision of Infants, Children, and Adolescents, Fourth Edition, for guidance on supporting parents and adolescents in promoting healthy sexual development and sexuality, including discussions of barrier methods.
Some groups of adolescents may use barrier methods less consistently because they perceive themselves to be lower risk. These include adolescents who use preexposure prophylaxis or nonbarrier contraception, who identify as bisexual or lesbian, or who are in established relationships. Monitor these patients to assess their risk and need for additional counseling. In the technical report, studies are cited finding that barrier methods are used less consistently during oral sex and that condom use is lower among cisgender and transgender females, and among adolescents who self-identify as gay, lesbian, or bisexual, compared with other groups.
In the policy statement, Dr. Grubb and colleagues call on pediatricians to advocate for more research and better access to barrier methods, especially for higher-risk adolescents and those living in underserved areas. In particular, school education programs on barrier methods can reach large adolescent groups and provide a “comprehensive array of educational and health care resources.”
Katie Brigham, MD, a pediatrician at MassGeneral Hospital for Children in Boston, affirmed the recommendations in the new policy statement (which she did not help write or research). “Even though the pregnancy rate is dropping in the United States, STI rates are increasing, so it is vital that pediatricians and other providers of adolescents and young adults counsel all their patients, regardless of gender and sexual orientation, of the importance of barrier methods when having oral, vaginal, or anal sex,” she said in an interview.
Dr. Brigham praised the technical report, adding that she found no major weaknesses in its methodology. “For future research, it would be interesting to see if there are different rates of pregnancy and STIs in pediatric practices that provide condoms and other barrier methods free to their patients, compared to those that do not.”
No external funding sources were reported. Dr. Grubb and Dr. Brigham reported having no relevant financial disclosures.
SOURCE: Grubb LK et al. Pediatrics. 2020 Jul 20. doi: 10.1542/peds.2020-007237.
FROM PEDIATRICS
Consider adverse childhood experiences during the pandemic
We live in historic times. A worldwide pandemic is surging in the United States, with millions infected and the world’s highest death rate. Many of our hospitals are overwhelmed. Schools have been closed for months. Businesses are struggling, and unemployment is at record levels. The murder of George Floyd unleashed an outpouring of grief and rage over police brutality and structural racism.
It is ironic that this age of adversity emerged at the same time that efforts to assess and address childhood adversity are gaining momentum. The effects of adverse childhood experiences (ACEs) have been well known for decades, but only recently have efforts at universal screening been initiated in primary care offices around the country. The multiple crises we face have made this work more pressing than ever. And
While there has long been awareness, especially among pediatricians, of the social determinants of health, it was only 1995 when Robert F. Anda, MD, and Vincent J. Felitti, MD, set about studying over 13,000 adult patients at Kaiser Permanente to understand the relationship between childhood trauma and chronic health problems in adulthood. In 1998 they published the results of this landmark study, establishing that childhood trauma was common and that it predicted chronic diseases and psychosocial problems in adulthood1.
They detailed 10 specific ACEs, and a patient’s ACE score was determined by how many of these experiences they had before they turned 18 years: neglect (emotional or physical), abuse (emotional, physical or sexual), and household dysfunction (parental divorce, incarceration of a parent, domestic violence, parental mental illness, or parental substance abuse). They found that more than half of adults studied had a score of at least 1, and 6% had scores of 4 or more. Those adults with an ACE score of 4 or more are twice as likely to be obese, twice as likely to smoke, and seven times as likely to abuse alcohol as the rest of the population. They are 4 times as likely to have emphysema, 5 times as likely to have depression, and 12 times as likely to attempt suicide. They have higher rates of heart disease, autoimmune disorders, and cancer. Those with ACE scores of 6 or more have their life expectancy shortened by an average of 20 years.
The value of knowing about these risk factors would seem self-evident; it would inform a patient’s health care from screening for cancer or heart disease, referral for mild depressive symptoms, and counseling about alcohol consumption. But this research did not lead to the establishment of routine screening for childhood adversity in primary care practices. There are multiple reasons for this, including growing pressure on physician time and discomfort with starting conversations about potentially traumatic material. But perhaps the greatest obstacle has been uncertainty about what to offer patients who screened in. What is the treatment for a high ACE score?
Even without treatments, we have learned much about childhood adversity since Dr. Anda and Dr. Felitti published their landmark study. Other more chronic adverse childhood experiences also contribute to adult health risk, such as poverty, homelessness, discrimination, community violence, parental chronic illness, or disability or placement in foster care. Having a high ACE score does not only affect health in adulthood. Children with an ACE score of 4 are 2 times as likely to have asthma2,3 and allergies3, 2 times as likely to be obese4, 3 times as likely to have headaches3 and dental problems5,6, 4 times as likely to have depression7,8, 5 times as likely to have ADHD8,9, 7 times as likely to have high rates of school absenteeism3 and aggression10, and over 30 times as likely to have learning or behavioral problems at school4. There is a growing body of knowledge about how chronic, severe stress in childhood affects can lead to pathological alterations in neuroendocrine and immune function. But this has not led to any concrete treatments that may be preventive or reparative.
Movement toward expanding screening nonetheless has accelerated. In California, Nadine Burke-Harris, MD, a pediatrician who studied ACEs and children’s health was named the state’s first Surgeon General in 2019 and spearheaded an effort to make screening for ACEs easier. Starting in 2020, MediCal will pay for annual screenings, and the state is offering training and resources on how to screen and what to do with the information to help patients and families.
The coronavirus pandemic has only highlighted the risks of childhood adversity. The burden of infection and mortality has been borne disproportionately by people of color and those with multiple chronic medical conditions (obesity, cardiovascular disease, diabetes, etc.). While viruses do not discriminate, they are more likely to infect those with higher risk of exposure and to kill those who are physiologically vulnerable.
And the pandemic increases the risk for adversity for today’s children and families. When children cannot attend school, financially vulnerable parents may have to choose between supervising them or feeding them. Families who suddenly are all in a small apartment together without school or other outside supports may be at higher risk for domestic violence and child abuse. Unemployment and financial uncertainty will increase the rates of substance abuse and depression amongst parents. And the serious illness or death of a parent will be a more common event for children in the year ahead. One of these risk factors may increase the likelihood of others.
Beyond the obvious need for substantial policy changes focused on housing, education, and health care, And resilience can build on itself, as children face subsequent challenges with the support of caring connected adults.
The critical first step is asking. Then listen calmly and supportively, normalizing for parents and children how common these experiences are. Explain how they affect health and well-being. Explain that adversity and its consequences are not their fault. Then educate them about what is in their control: the skills they can practice to buffer against the consequences of adversity and build resilience. They sound simple, but still require effort and work. And the pandemic has created some difficulty (social distancing) and opportunity (more family time, fewer school demands).
Sleep
Help parents establish and protect consistent, restful sleep for their children. They can set a consistent bedtime and a calm routine, with screens all off at least 30 minutes before sleep and reading before sleep. Restful sleep is physiologically and psychologically protective to everyone in a family.
Movement
Beyond directly improving physical health, establishing habits of exercise – especially outside – every day can effectively manage ongoing stress, build skills of self-regulation, and help with sleep.
Find out what parents and their children like to do together (walking the dog, shooting hoops, even dancing) and help them devise ways to create family routines around exercise.
Nutrition
Food should be a source of pleasure, but stress can make food into a source of comfort or escape. Help parents to create realistic ways to consistently offer healthy family meals and discourage unhealthy habits.
Even small changes like water instead of soda can help, and there are nutritional and emotional benefits to eating a healthy breakfast or dinner together as a family.
Connections
Nourishing social connections are protective. Help parents think about protecting time to spend with their children for talking, playing games, or even singing.
They should support their children’s connections to other caring adults, through community organizations (church, community centers, or sports), and they should know who their children’s reliable friends are. Parents will benefit from these supports for themselves, which in turn will benefit the full family.
Self-awareness
Activities that cultivate mindfulness are protective. Parents can simply ask how their children are feeling, physically or emotionally, and be able to bear it when it is uncomfortable. Work towards nonjudgmental awareness of how they are feeling. Learning what is relaxing or recharging for them (exercise, music, a hot bath, a good book, time with a friend) will protect against defaulting into maladaptive coping such as escape, numbing, or avoidance.
Of course, if you learn about symptoms that suggest PTSD, depression, or addiction, you should help your patient connect with effective treatment. The difficulty of referring to a mental health provider does not mean you should not try and bring as many people onto the team and into the orbit of the child and family at risk. It may be easier to access some therapy given the new availability of telemedicine visits across many more systems of care. Although the heaviest burdens of adversity are not being borne equally, the fact that adversity is currently a shared experience makes this a moment of promise.
Dr. Swick is physician in chief at Ohana, Center for Child and Adolescent Behavioral Health, Community Hospital of the Monterey (Calif.) Peninsula. Dr. Jellinek is professor emeritus of psychiatry and pediatrics, Harvard Medical School, Boston. Dr. Swick and Dr. Jellinek had no relevant financial disclosures. Email them at [email protected].
References
1. Am J Prev Med. 1998 May;14(4):245-58.
2. Ann Allergy Asthma Immunol. 2015;114: 379-84.
3. BMC Public Health. 2018. doi: 10.1186/s12889-018-5699-8.
4. Child Abuse Negl. 2011 Jun;35(6):408-13.
5. Community Dent Oral Epidemiol. 2015;43:193-9.
6. Community Dent Oral Epidemiol. 2018 Oct;46(5): 442-8.
7. Pediatrics 2016 Apr. doi: 10.1542/peds.2015-4016.
8. Matern Child Health J. 2016 Apr. doi: 10.1007/s10995-015-1915-7.
9. Acad Pediatr. 2017 May-Jun. doi: 10.1016/j.acap.2016.08.013.
10. Pediatrics. 2010 Apr. doi: 10.1542/peds.2009-0597.
This article was updated 7/27/2020.
We live in historic times. A worldwide pandemic is surging in the United States, with millions infected and the world’s highest death rate. Many of our hospitals are overwhelmed. Schools have been closed for months. Businesses are struggling, and unemployment is at record levels. The murder of George Floyd unleashed an outpouring of grief and rage over police brutality and structural racism.
It is ironic that this age of adversity emerged at the same time that efforts to assess and address childhood adversity are gaining momentum. The effects of adverse childhood experiences (ACEs) have been well known for decades, but only recently have efforts at universal screening been initiated in primary care offices around the country. The multiple crises we face have made this work more pressing than ever. And
While there has long been awareness, especially among pediatricians, of the social determinants of health, it was only 1995 when Robert F. Anda, MD, and Vincent J. Felitti, MD, set about studying over 13,000 adult patients at Kaiser Permanente to understand the relationship between childhood trauma and chronic health problems in adulthood. In 1998 they published the results of this landmark study, establishing that childhood trauma was common and that it predicted chronic diseases and psychosocial problems in adulthood1.
They detailed 10 specific ACEs, and a patient’s ACE score was determined by how many of these experiences they had before they turned 18 years: neglect (emotional or physical), abuse (emotional, physical or sexual), and household dysfunction (parental divorce, incarceration of a parent, domestic violence, parental mental illness, or parental substance abuse). They found that more than half of adults studied had a score of at least 1, and 6% had scores of 4 or more. Those adults with an ACE score of 4 or more are twice as likely to be obese, twice as likely to smoke, and seven times as likely to abuse alcohol as the rest of the population. They are 4 times as likely to have emphysema, 5 times as likely to have depression, and 12 times as likely to attempt suicide. They have higher rates of heart disease, autoimmune disorders, and cancer. Those with ACE scores of 6 or more have their life expectancy shortened by an average of 20 years.
The value of knowing about these risk factors would seem self-evident; it would inform a patient’s health care from screening for cancer or heart disease, referral for mild depressive symptoms, and counseling about alcohol consumption. But this research did not lead to the establishment of routine screening for childhood adversity in primary care practices. There are multiple reasons for this, including growing pressure on physician time and discomfort with starting conversations about potentially traumatic material. But perhaps the greatest obstacle has been uncertainty about what to offer patients who screened in. What is the treatment for a high ACE score?
Even without treatments, we have learned much about childhood adversity since Dr. Anda and Dr. Felitti published their landmark study. Other more chronic adverse childhood experiences also contribute to adult health risk, such as poverty, homelessness, discrimination, community violence, parental chronic illness, or disability or placement in foster care. Having a high ACE score does not only affect health in adulthood. Children with an ACE score of 4 are 2 times as likely to have asthma2,3 and allergies3, 2 times as likely to be obese4, 3 times as likely to have headaches3 and dental problems5,6, 4 times as likely to have depression7,8, 5 times as likely to have ADHD8,9, 7 times as likely to have high rates of school absenteeism3 and aggression10, and over 30 times as likely to have learning or behavioral problems at school4. There is a growing body of knowledge about how chronic, severe stress in childhood affects can lead to pathological alterations in neuroendocrine and immune function. But this has not led to any concrete treatments that may be preventive or reparative.
Movement toward expanding screening nonetheless has accelerated. In California, Nadine Burke-Harris, MD, a pediatrician who studied ACEs and children’s health was named the state’s first Surgeon General in 2019 and spearheaded an effort to make screening for ACEs easier. Starting in 2020, MediCal will pay for annual screenings, and the state is offering training and resources on how to screen and what to do with the information to help patients and families.
The coronavirus pandemic has only highlighted the risks of childhood adversity. The burden of infection and mortality has been borne disproportionately by people of color and those with multiple chronic medical conditions (obesity, cardiovascular disease, diabetes, etc.). While viruses do not discriminate, they are more likely to infect those with higher risk of exposure and to kill those who are physiologically vulnerable.
And the pandemic increases the risk for adversity for today’s children and families. When children cannot attend school, financially vulnerable parents may have to choose between supervising them or feeding them. Families who suddenly are all in a small apartment together without school or other outside supports may be at higher risk for domestic violence and child abuse. Unemployment and financial uncertainty will increase the rates of substance abuse and depression amongst parents. And the serious illness or death of a parent will be a more common event for children in the year ahead. One of these risk factors may increase the likelihood of others.
Beyond the obvious need for substantial policy changes focused on housing, education, and health care, And resilience can build on itself, as children face subsequent challenges with the support of caring connected adults.
The critical first step is asking. Then listen calmly and supportively, normalizing for parents and children how common these experiences are. Explain how they affect health and well-being. Explain that adversity and its consequences are not their fault. Then educate them about what is in their control: the skills they can practice to buffer against the consequences of adversity and build resilience. They sound simple, but still require effort and work. And the pandemic has created some difficulty (social distancing) and opportunity (more family time, fewer school demands).
Sleep
Help parents establish and protect consistent, restful sleep for their children. They can set a consistent bedtime and a calm routine, with screens all off at least 30 minutes before sleep and reading before sleep. Restful sleep is physiologically and psychologically protective to everyone in a family.
Movement
Beyond directly improving physical health, establishing habits of exercise – especially outside – every day can effectively manage ongoing stress, build skills of self-regulation, and help with sleep.
Find out what parents and their children like to do together (walking the dog, shooting hoops, even dancing) and help them devise ways to create family routines around exercise.
Nutrition
Food should be a source of pleasure, but stress can make food into a source of comfort or escape. Help parents to create realistic ways to consistently offer healthy family meals and discourage unhealthy habits.
Even small changes like water instead of soda can help, and there are nutritional and emotional benefits to eating a healthy breakfast or dinner together as a family.
Connections
Nourishing social connections are protective. Help parents think about protecting time to spend with their children for talking, playing games, or even singing.
They should support their children’s connections to other caring adults, through community organizations (church, community centers, or sports), and they should know who their children’s reliable friends are. Parents will benefit from these supports for themselves, which in turn will benefit the full family.
Self-awareness
Activities that cultivate mindfulness are protective. Parents can simply ask how their children are feeling, physically or emotionally, and be able to bear it when it is uncomfortable. Work towards nonjudgmental awareness of how they are feeling. Learning what is relaxing or recharging for them (exercise, music, a hot bath, a good book, time with a friend) will protect against defaulting into maladaptive coping such as escape, numbing, or avoidance.
Of course, if you learn about symptoms that suggest PTSD, depression, or addiction, you should help your patient connect with effective treatment. The difficulty of referring to a mental health provider does not mean you should not try and bring as many people onto the team and into the orbit of the child and family at risk. It may be easier to access some therapy given the new availability of telemedicine visits across many more systems of care. Although the heaviest burdens of adversity are not being borne equally, the fact that adversity is currently a shared experience makes this a moment of promise.
Dr. Swick is physician in chief at Ohana, Center for Child and Adolescent Behavioral Health, Community Hospital of the Monterey (Calif.) Peninsula. Dr. Jellinek is professor emeritus of psychiatry and pediatrics, Harvard Medical School, Boston. Dr. Swick and Dr. Jellinek had no relevant financial disclosures. Email them at [email protected].
References
1. Am J Prev Med. 1998 May;14(4):245-58.
2. Ann Allergy Asthma Immunol. 2015;114: 379-84.
3. BMC Public Health. 2018. doi: 10.1186/s12889-018-5699-8.
4. Child Abuse Negl. 2011 Jun;35(6):408-13.
5. Community Dent Oral Epidemiol. 2015;43:193-9.
6. Community Dent Oral Epidemiol. 2018 Oct;46(5): 442-8.
7. Pediatrics 2016 Apr. doi: 10.1542/peds.2015-4016.
8. Matern Child Health J. 2016 Apr. doi: 10.1007/s10995-015-1915-7.
9. Acad Pediatr. 2017 May-Jun. doi: 10.1016/j.acap.2016.08.013.
10. Pediatrics. 2010 Apr. doi: 10.1542/peds.2009-0597.
This article was updated 7/27/2020.
We live in historic times. A worldwide pandemic is surging in the United States, with millions infected and the world’s highest death rate. Many of our hospitals are overwhelmed. Schools have been closed for months. Businesses are struggling, and unemployment is at record levels. The murder of George Floyd unleashed an outpouring of grief and rage over police brutality and structural racism.
It is ironic that this age of adversity emerged at the same time that efforts to assess and address childhood adversity are gaining momentum. The effects of adverse childhood experiences (ACEs) have been well known for decades, but only recently have efforts at universal screening been initiated in primary care offices around the country. The multiple crises we face have made this work more pressing than ever. And
While there has long been awareness, especially among pediatricians, of the social determinants of health, it was only 1995 when Robert F. Anda, MD, and Vincent J. Felitti, MD, set about studying over 13,000 adult patients at Kaiser Permanente to understand the relationship between childhood trauma and chronic health problems in adulthood. In 1998 they published the results of this landmark study, establishing that childhood trauma was common and that it predicted chronic diseases and psychosocial problems in adulthood1.
They detailed 10 specific ACEs, and a patient’s ACE score was determined by how many of these experiences they had before they turned 18 years: neglect (emotional or physical), abuse (emotional, physical or sexual), and household dysfunction (parental divorce, incarceration of a parent, domestic violence, parental mental illness, or parental substance abuse). They found that more than half of adults studied had a score of at least 1, and 6% had scores of 4 or more. Those adults with an ACE score of 4 or more are twice as likely to be obese, twice as likely to smoke, and seven times as likely to abuse alcohol as the rest of the population. They are 4 times as likely to have emphysema, 5 times as likely to have depression, and 12 times as likely to attempt suicide. They have higher rates of heart disease, autoimmune disorders, and cancer. Those with ACE scores of 6 or more have their life expectancy shortened by an average of 20 years.
The value of knowing about these risk factors would seem self-evident; it would inform a patient’s health care from screening for cancer or heart disease, referral for mild depressive symptoms, and counseling about alcohol consumption. But this research did not lead to the establishment of routine screening for childhood adversity in primary care practices. There are multiple reasons for this, including growing pressure on physician time and discomfort with starting conversations about potentially traumatic material. But perhaps the greatest obstacle has been uncertainty about what to offer patients who screened in. What is the treatment for a high ACE score?
Even without treatments, we have learned much about childhood adversity since Dr. Anda and Dr. Felitti published their landmark study. Other more chronic adverse childhood experiences also contribute to adult health risk, such as poverty, homelessness, discrimination, community violence, parental chronic illness, or disability or placement in foster care. Having a high ACE score does not only affect health in adulthood. Children with an ACE score of 4 are 2 times as likely to have asthma2,3 and allergies3, 2 times as likely to be obese4, 3 times as likely to have headaches3 and dental problems5,6, 4 times as likely to have depression7,8, 5 times as likely to have ADHD8,9, 7 times as likely to have high rates of school absenteeism3 and aggression10, and over 30 times as likely to have learning or behavioral problems at school4. There is a growing body of knowledge about how chronic, severe stress in childhood affects can lead to pathological alterations in neuroendocrine and immune function. But this has not led to any concrete treatments that may be preventive or reparative.
Movement toward expanding screening nonetheless has accelerated. In California, Nadine Burke-Harris, MD, a pediatrician who studied ACEs and children’s health was named the state’s first Surgeon General in 2019 and spearheaded an effort to make screening for ACEs easier. Starting in 2020, MediCal will pay for annual screenings, and the state is offering training and resources on how to screen and what to do with the information to help patients and families.
The coronavirus pandemic has only highlighted the risks of childhood adversity. The burden of infection and mortality has been borne disproportionately by people of color and those with multiple chronic medical conditions (obesity, cardiovascular disease, diabetes, etc.). While viruses do not discriminate, they are more likely to infect those with higher risk of exposure and to kill those who are physiologically vulnerable.
And the pandemic increases the risk for adversity for today’s children and families. When children cannot attend school, financially vulnerable parents may have to choose between supervising them or feeding them. Families who suddenly are all in a small apartment together without school or other outside supports may be at higher risk for domestic violence and child abuse. Unemployment and financial uncertainty will increase the rates of substance abuse and depression amongst parents. And the serious illness or death of a parent will be a more common event for children in the year ahead. One of these risk factors may increase the likelihood of others.
Beyond the obvious need for substantial policy changes focused on housing, education, and health care, And resilience can build on itself, as children face subsequent challenges with the support of caring connected adults.
The critical first step is asking. Then listen calmly and supportively, normalizing for parents and children how common these experiences are. Explain how they affect health and well-being. Explain that adversity and its consequences are not their fault. Then educate them about what is in their control: the skills they can practice to buffer against the consequences of adversity and build resilience. They sound simple, but still require effort and work. And the pandemic has created some difficulty (social distancing) and opportunity (more family time, fewer school demands).
Sleep
Help parents establish and protect consistent, restful sleep for their children. They can set a consistent bedtime and a calm routine, with screens all off at least 30 minutes before sleep and reading before sleep. Restful sleep is physiologically and psychologically protective to everyone in a family.
Movement
Beyond directly improving physical health, establishing habits of exercise – especially outside – every day can effectively manage ongoing stress, build skills of self-regulation, and help with sleep.
Find out what parents and their children like to do together (walking the dog, shooting hoops, even dancing) and help them devise ways to create family routines around exercise.
Nutrition
Food should be a source of pleasure, but stress can make food into a source of comfort or escape. Help parents to create realistic ways to consistently offer healthy family meals and discourage unhealthy habits.
Even small changes like water instead of soda can help, and there are nutritional and emotional benefits to eating a healthy breakfast or dinner together as a family.
Connections
Nourishing social connections are protective. Help parents think about protecting time to spend with their children for talking, playing games, or even singing.
They should support their children’s connections to other caring adults, through community organizations (church, community centers, or sports), and they should know who their children’s reliable friends are. Parents will benefit from these supports for themselves, which in turn will benefit the full family.
Self-awareness
Activities that cultivate mindfulness are protective. Parents can simply ask how their children are feeling, physically or emotionally, and be able to bear it when it is uncomfortable. Work towards nonjudgmental awareness of how they are feeling. Learning what is relaxing or recharging for them (exercise, music, a hot bath, a good book, time with a friend) will protect against defaulting into maladaptive coping such as escape, numbing, or avoidance.
Of course, if you learn about symptoms that suggest PTSD, depression, or addiction, you should help your patient connect with effective treatment. The difficulty of referring to a mental health provider does not mean you should not try and bring as many people onto the team and into the orbit of the child and family at risk. It may be easier to access some therapy given the new availability of telemedicine visits across many more systems of care. Although the heaviest burdens of adversity are not being borne equally, the fact that adversity is currently a shared experience makes this a moment of promise.
Dr. Swick is physician in chief at Ohana, Center for Child and Adolescent Behavioral Health, Community Hospital of the Monterey (Calif.) Peninsula. Dr. Jellinek is professor emeritus of psychiatry and pediatrics, Harvard Medical School, Boston. Dr. Swick and Dr. Jellinek had no relevant financial disclosures. Email them at [email protected].
References
1. Am J Prev Med. 1998 May;14(4):245-58.
2. Ann Allergy Asthma Immunol. 2015;114: 379-84.
3. BMC Public Health. 2018. doi: 10.1186/s12889-018-5699-8.
4. Child Abuse Negl. 2011 Jun;35(6):408-13.
5. Community Dent Oral Epidemiol. 2015;43:193-9.
6. Community Dent Oral Epidemiol. 2018 Oct;46(5): 442-8.
7. Pediatrics 2016 Apr. doi: 10.1542/peds.2015-4016.
8. Matern Child Health J. 2016 Apr. doi: 10.1007/s10995-015-1915-7.
9. Acad Pediatr. 2017 May-Jun. doi: 10.1016/j.acap.2016.08.013.
10. Pediatrics. 2010 Apr. doi: 10.1542/peds.2009-0597.
This article was updated 7/27/2020.
No link between topical steroids and fracture risk found in children with atopic dermatitis
suggest.
“Little has been published about the risk of fracture in children with atopic dermatitis on topical corticosteroids specifically,” one of the study authors, Reese L. Imhof, said in an interview following the virtual annual meeting of the Society for Pediatric Dermatology. “There are concerns, particularly among parents, regarding potential bone side effects through possible corticosteroid percutaneous absorption. Fears related to topical corticosteroid use likely stem from the fact that prolonged systemic corticosteroid use is associated with an increased risk of bone fractures.”
In an effort to determine the fracture risk in children who were diagnosed with atopic dermatitis (AD) prior to age 4 years and received topical corticosteroid treatment, Mr. Imhof, from Mayo Medical School, Rochester, Minn., and his associates used the Rochester Epidemiology Project records-linkage system to identify patients in Olmstead County, Minn., who received their first AD diagnosis prior to age 4 years between Jan. 1, 2004, through Dec. 31, 2017. Those who received topical corticosteroids listed in National Drug File-Reference Terminology class 8952 (anti-inflammatory, topical) or 8954 (anti-infective/anti-inflammatory combinations, topical) between Jan. 1, 2004, and Dec. 31, 2018 were included in the analysis and were followed to identify new bone fractures, excluding pathological fractures in neoplastic disease and skull or facial bone fractures.
The researchers conducted two analyses of the data. For the primary statistical analysis, they evaluated topical corticosteroid exposure as a binary time-dependent covariate in a Cox proportional hazard model using age as the time scale, with patients entering the risk set at the age of the first clinic visit rather than the age of their first AD diagnosis. Next, the researchers performed a landmark analysis as a sensitivity analysis. For this, each patient’s fourth birthday was defined as the starting point, since all included patients were diagnosed with AD prior to age 4 years.
Of the 7,505 patients first identified with AD, 3,542 were included in the primary analysis and 2,499 were included in the landmark analysis. In the primary analysis, 2,384 patients (67%) received a topical prescription for a topical corticosteroid prior to age 4 years, and an additional 190 (5%) received their first prescription after age 4 years. The researchers observed that 451 patients (13%) had a fracture after AD diagnosis at a median age of 7.4 years. The median age at last follow-up for the remaining 3,091 patients was 6.6 years. Evaluated as a time-dependent covariate, the use of a topical corticosteroid was associated with a nonsignificant 17% increased risk of fracture (hazard ratio, 1.17; P = .16).
In the landmark analysis, 1,722 patients (69%) were prescribed a topical corticosteroid prior to age 4 years. Of these patients, 333 (13%) had their first fracture after AD diagnosis, at a median age of 8.7 years. The median age at last follow-up for the remaining patients was 9.3 years. The researchers observed that, starting at 4 years of age, there was no association between topical corticosteroid use and risk of fracture (HR, 1.00; P = 1.00).
“Our findings suggest that topical corticosteroids do not significantly increase fracture risk in this pediatric population with atopic dermatitis,” Mr. Imhof said. “Dermatologists can use the results of this study to reassure parents of infants and young children, as most patients in our study received their first topical corticosteroid prescription prior to age 4.”
He acknowledged certain limitations of the study, such as its retrospective design and study population, which was predominantly white and resided in the upper Midwest. “Also, our study examined prescription data with the assumption made that topical corticosteroids were used as prescribed,” he said. “An additional limitation is that we evaluated ever versus never exposure to topical corticosteroids rather than cumulative duration of use and/or potency.”
Mr. Imhof and his colleagues reported having no financial disclosures.
suggest.
“Little has been published about the risk of fracture in children with atopic dermatitis on topical corticosteroids specifically,” one of the study authors, Reese L. Imhof, said in an interview following the virtual annual meeting of the Society for Pediatric Dermatology. “There are concerns, particularly among parents, regarding potential bone side effects through possible corticosteroid percutaneous absorption. Fears related to topical corticosteroid use likely stem from the fact that prolonged systemic corticosteroid use is associated with an increased risk of bone fractures.”
In an effort to determine the fracture risk in children who were diagnosed with atopic dermatitis (AD) prior to age 4 years and received topical corticosteroid treatment, Mr. Imhof, from Mayo Medical School, Rochester, Minn., and his associates used the Rochester Epidemiology Project records-linkage system to identify patients in Olmstead County, Minn., who received their first AD diagnosis prior to age 4 years between Jan. 1, 2004, through Dec. 31, 2017. Those who received topical corticosteroids listed in National Drug File-Reference Terminology class 8952 (anti-inflammatory, topical) or 8954 (anti-infective/anti-inflammatory combinations, topical) between Jan. 1, 2004, and Dec. 31, 2018 were included in the analysis and were followed to identify new bone fractures, excluding pathological fractures in neoplastic disease and skull or facial bone fractures.
The researchers conducted two analyses of the data. For the primary statistical analysis, they evaluated topical corticosteroid exposure as a binary time-dependent covariate in a Cox proportional hazard model using age as the time scale, with patients entering the risk set at the age of the first clinic visit rather than the age of their first AD diagnosis. Next, the researchers performed a landmark analysis as a sensitivity analysis. For this, each patient’s fourth birthday was defined as the starting point, since all included patients were diagnosed with AD prior to age 4 years.
Of the 7,505 patients first identified with AD, 3,542 were included in the primary analysis and 2,499 were included in the landmark analysis. In the primary analysis, 2,384 patients (67%) received a topical prescription for a topical corticosteroid prior to age 4 years, and an additional 190 (5%) received their first prescription after age 4 years. The researchers observed that 451 patients (13%) had a fracture after AD diagnosis at a median age of 7.4 years. The median age at last follow-up for the remaining 3,091 patients was 6.6 years. Evaluated as a time-dependent covariate, the use of a topical corticosteroid was associated with a nonsignificant 17% increased risk of fracture (hazard ratio, 1.17; P = .16).
In the landmark analysis, 1,722 patients (69%) were prescribed a topical corticosteroid prior to age 4 years. Of these patients, 333 (13%) had their first fracture after AD diagnosis, at a median age of 8.7 years. The median age at last follow-up for the remaining patients was 9.3 years. The researchers observed that, starting at 4 years of age, there was no association between topical corticosteroid use and risk of fracture (HR, 1.00; P = 1.00).
“Our findings suggest that topical corticosteroids do not significantly increase fracture risk in this pediatric population with atopic dermatitis,” Mr. Imhof said. “Dermatologists can use the results of this study to reassure parents of infants and young children, as most patients in our study received their first topical corticosteroid prescription prior to age 4.”
He acknowledged certain limitations of the study, such as its retrospective design and study population, which was predominantly white and resided in the upper Midwest. “Also, our study examined prescription data with the assumption made that topical corticosteroids were used as prescribed,” he said. “An additional limitation is that we evaluated ever versus never exposure to topical corticosteroids rather than cumulative duration of use and/or potency.”
Mr. Imhof and his colleagues reported having no financial disclosures.
suggest.
“Little has been published about the risk of fracture in children with atopic dermatitis on topical corticosteroids specifically,” one of the study authors, Reese L. Imhof, said in an interview following the virtual annual meeting of the Society for Pediatric Dermatology. “There are concerns, particularly among parents, regarding potential bone side effects through possible corticosteroid percutaneous absorption. Fears related to topical corticosteroid use likely stem from the fact that prolonged systemic corticosteroid use is associated with an increased risk of bone fractures.”
In an effort to determine the fracture risk in children who were diagnosed with atopic dermatitis (AD) prior to age 4 years and received topical corticosteroid treatment, Mr. Imhof, from Mayo Medical School, Rochester, Minn., and his associates used the Rochester Epidemiology Project records-linkage system to identify patients in Olmstead County, Minn., who received their first AD diagnosis prior to age 4 years between Jan. 1, 2004, through Dec. 31, 2017. Those who received topical corticosteroids listed in National Drug File-Reference Terminology class 8952 (anti-inflammatory, topical) or 8954 (anti-infective/anti-inflammatory combinations, topical) between Jan. 1, 2004, and Dec. 31, 2018 were included in the analysis and were followed to identify new bone fractures, excluding pathological fractures in neoplastic disease and skull or facial bone fractures.
The researchers conducted two analyses of the data. For the primary statistical analysis, they evaluated topical corticosteroid exposure as a binary time-dependent covariate in a Cox proportional hazard model using age as the time scale, with patients entering the risk set at the age of the first clinic visit rather than the age of their first AD diagnosis. Next, the researchers performed a landmark analysis as a sensitivity analysis. For this, each patient’s fourth birthday was defined as the starting point, since all included patients were diagnosed with AD prior to age 4 years.
Of the 7,505 patients first identified with AD, 3,542 were included in the primary analysis and 2,499 were included in the landmark analysis. In the primary analysis, 2,384 patients (67%) received a topical prescription for a topical corticosteroid prior to age 4 years, and an additional 190 (5%) received their first prescription after age 4 years. The researchers observed that 451 patients (13%) had a fracture after AD diagnosis at a median age of 7.4 years. The median age at last follow-up for the remaining 3,091 patients was 6.6 years. Evaluated as a time-dependent covariate, the use of a topical corticosteroid was associated with a nonsignificant 17% increased risk of fracture (hazard ratio, 1.17; P = .16).
In the landmark analysis, 1,722 patients (69%) were prescribed a topical corticosteroid prior to age 4 years. Of these patients, 333 (13%) had their first fracture after AD diagnosis, at a median age of 8.7 years. The median age at last follow-up for the remaining patients was 9.3 years. The researchers observed that, starting at 4 years of age, there was no association between topical corticosteroid use and risk of fracture (HR, 1.00; P = 1.00).
“Our findings suggest that topical corticosteroids do not significantly increase fracture risk in this pediatric population with atopic dermatitis,” Mr. Imhof said. “Dermatologists can use the results of this study to reassure parents of infants and young children, as most patients in our study received their first topical corticosteroid prescription prior to age 4.”
He acknowledged certain limitations of the study, such as its retrospective design and study population, which was predominantly white and resided in the upper Midwest. “Also, our study examined prescription data with the assumption made that topical corticosteroids were used as prescribed,” he said. “An additional limitation is that we evaluated ever versus never exposure to topical corticosteroids rather than cumulative duration of use and/or potency.”
Mr. Imhof and his colleagues reported having no financial disclosures.
FROM SPD 2020
Schools can reopen safely with precautions, experts say
The absence of in-person school has harmed children in ways beyond loss of academic learning, according to Josh Sharfstein, MD, vice dean for public health practice and community engagement at the Johns Hopkins Bloomberg School of Public Health, Baltimore. In addition to learning, school is a place where many children receive breakfast and lunch every day, as well as support services and the benefits of being in a safe and secure environment, Dr. Sharfstein said in a press briefing sponsored by Johns Hopkins University.
However, although it is an important priority for children to return to school, “we are in the midst of a pandemic that poses real risk,” he said.
In the press briefing, several experts shared ideas and considerations for safely reopening K-12 schools in the fall of 2020.
Data from other countries where schools have reopened, notably Austria and Denmark, have been reassuring about the lack of transmission of SARS-CoV-2 among children in a school setting, said Jennifer Nuzzo, DrPH, an epidemiologist at the Johns Hopkins Center for Health Security. However, other countries where schools have reopened successfully have reported low levels of viral transmission locally, and a responsible strategy for school reopening in the United States should follow a similar plan, she said. In areas where transmission and infection rates are increasing “it may not be safe to reopen,” but in areas where rates are declining or stable, schools could potentially reopen if they follow safety measures.
Dr. Nuzzo suggested that Considerations include protocols for handwashing and sanitation, and maintaining physical distance by creative use of outdoor classrooms (weather permitting) or other spaces within school buildings. Transportation to and from school also will be an issue to address, she noted.
None of the strategies being considered will completely eliminate risk of SARS-CoV-2 infection in school settings, so allowing parents and students to opt out and choose distance learning will be important as well, said Dr. Nuzzo. In addition, schools may need to consider alternative roles for teachers and staff who don’t feel comfortable being in contact with students and fellow staff members. “All of these things are going to be hard,” Dr. Nuzzo acknowledged. “Hard should not be a deterrent,” to reopening schools, but “we acknowledge the resources that schools will need in order to do this.”
At present, all 50 states and the District of Columbia have released some type of plan for reopening schools, said Megan Collins, MD, MPH, codirector the Johns Hopkins Consortium for School-Based Health Solutions.
Dr. Collins and colleagues have developed a school reopening tracker, which is “a national snapshot of current reopening plans that have been released,” she said. The tracker is being updated continuously as plans evolve. The eSchool+ K-12 School Reopening Tracker identifies 12 reopening categories that states could potentially address in the plans. These categories are divided into Operational and Ethics/Equity. The operational categories include:
- Core academics
- SARS-CoV-2 protection
- Before and after school programs
- School access and transportation
- Student health services
- Food and nutrition.
Ethics/equity categories include the following:
- Parent choice
- Teacher and staff choice
- Children of poverty and systemic disadvantage
- Children with special needs/English as second language/gifted and twice exceptional
- Privacy
- Engagement and transparency.
As of July 15, 2020, 16 states (Arizona, Colorado, Connecticut, Georgia, Maryland, Minnesota, New Mexico, North Carolina, North Dakota, Ohio, Rhode Island, Tennessee, Texas, Virginia, Washington, and Wisconsin) had addressed all 12 categories in their reopening plans, Dr. Collins said.
School reopening plans must take equity issues into account, said Annette Anderson, PhD, of the Johns Hopkins University School of Education.
Specifically, developing learning plans for special education students and others at the most risk for learning loss will be essential. “The digital divide has become a digital canyon” in some areas, Dr. Anderson noted, and schools need to rethink eligibility and work to provide access to devices for online learning for all students.
In addition, schools need to convince parents that schools are safe. She recommended that schools consider inviting parents and families to visit buildings in advance of reopening so they can see the safety measures, such as space between desks, cleaning stations, and other protective strategies.
The message to pediatricians and health care professionals when counseling families about returning individual children to school is to consider the risk to the child and the family directly in the context of the local plans, Dr. Sharfstein said during a question and answer session. “One school system’s plan is one school system’s plan,” he said, and added that families who are concerned about the risk should have an online option. However, “if you see a thoughtful approach” to reopening, with safety steps taken and parents informed, with protocols such as keeping small groups of children together to reduce transmission, “it is a pretty good trade-off,” and that is why the American Academy of Pediatrics currently favors children returning to school, he said.
The briefing participants had no relevant financial conflicts to disclose.
The absence of in-person school has harmed children in ways beyond loss of academic learning, according to Josh Sharfstein, MD, vice dean for public health practice and community engagement at the Johns Hopkins Bloomberg School of Public Health, Baltimore. In addition to learning, school is a place where many children receive breakfast and lunch every day, as well as support services and the benefits of being in a safe and secure environment, Dr. Sharfstein said in a press briefing sponsored by Johns Hopkins University.
However, although it is an important priority for children to return to school, “we are in the midst of a pandemic that poses real risk,” he said.
In the press briefing, several experts shared ideas and considerations for safely reopening K-12 schools in the fall of 2020.
Data from other countries where schools have reopened, notably Austria and Denmark, have been reassuring about the lack of transmission of SARS-CoV-2 among children in a school setting, said Jennifer Nuzzo, DrPH, an epidemiologist at the Johns Hopkins Center for Health Security. However, other countries where schools have reopened successfully have reported low levels of viral transmission locally, and a responsible strategy for school reopening in the United States should follow a similar plan, she said. In areas where transmission and infection rates are increasing “it may not be safe to reopen,” but in areas where rates are declining or stable, schools could potentially reopen if they follow safety measures.
Dr. Nuzzo suggested that Considerations include protocols for handwashing and sanitation, and maintaining physical distance by creative use of outdoor classrooms (weather permitting) or other spaces within school buildings. Transportation to and from school also will be an issue to address, she noted.
None of the strategies being considered will completely eliminate risk of SARS-CoV-2 infection in school settings, so allowing parents and students to opt out and choose distance learning will be important as well, said Dr. Nuzzo. In addition, schools may need to consider alternative roles for teachers and staff who don’t feel comfortable being in contact with students and fellow staff members. “All of these things are going to be hard,” Dr. Nuzzo acknowledged. “Hard should not be a deterrent,” to reopening schools, but “we acknowledge the resources that schools will need in order to do this.”
At present, all 50 states and the District of Columbia have released some type of plan for reopening schools, said Megan Collins, MD, MPH, codirector the Johns Hopkins Consortium for School-Based Health Solutions.
Dr. Collins and colleagues have developed a school reopening tracker, which is “a national snapshot of current reopening plans that have been released,” she said. The tracker is being updated continuously as plans evolve. The eSchool+ K-12 School Reopening Tracker identifies 12 reopening categories that states could potentially address in the plans. These categories are divided into Operational and Ethics/Equity. The operational categories include:
- Core academics
- SARS-CoV-2 protection
- Before and after school programs
- School access and transportation
- Student health services
- Food and nutrition.
Ethics/equity categories include the following:
- Parent choice
- Teacher and staff choice
- Children of poverty and systemic disadvantage
- Children with special needs/English as second language/gifted and twice exceptional
- Privacy
- Engagement and transparency.
As of July 15, 2020, 16 states (Arizona, Colorado, Connecticut, Georgia, Maryland, Minnesota, New Mexico, North Carolina, North Dakota, Ohio, Rhode Island, Tennessee, Texas, Virginia, Washington, and Wisconsin) had addressed all 12 categories in their reopening plans, Dr. Collins said.
School reopening plans must take equity issues into account, said Annette Anderson, PhD, of the Johns Hopkins University School of Education.
Specifically, developing learning plans for special education students and others at the most risk for learning loss will be essential. “The digital divide has become a digital canyon” in some areas, Dr. Anderson noted, and schools need to rethink eligibility and work to provide access to devices for online learning for all students.
In addition, schools need to convince parents that schools are safe. She recommended that schools consider inviting parents and families to visit buildings in advance of reopening so they can see the safety measures, such as space between desks, cleaning stations, and other protective strategies.
The message to pediatricians and health care professionals when counseling families about returning individual children to school is to consider the risk to the child and the family directly in the context of the local plans, Dr. Sharfstein said during a question and answer session. “One school system’s plan is one school system’s plan,” he said, and added that families who are concerned about the risk should have an online option. However, “if you see a thoughtful approach” to reopening, with safety steps taken and parents informed, with protocols such as keeping small groups of children together to reduce transmission, “it is a pretty good trade-off,” and that is why the American Academy of Pediatrics currently favors children returning to school, he said.
The briefing participants had no relevant financial conflicts to disclose.
The absence of in-person school has harmed children in ways beyond loss of academic learning, according to Josh Sharfstein, MD, vice dean for public health practice and community engagement at the Johns Hopkins Bloomberg School of Public Health, Baltimore. In addition to learning, school is a place where many children receive breakfast and lunch every day, as well as support services and the benefits of being in a safe and secure environment, Dr. Sharfstein said in a press briefing sponsored by Johns Hopkins University.
However, although it is an important priority for children to return to school, “we are in the midst of a pandemic that poses real risk,” he said.
In the press briefing, several experts shared ideas and considerations for safely reopening K-12 schools in the fall of 2020.
Data from other countries where schools have reopened, notably Austria and Denmark, have been reassuring about the lack of transmission of SARS-CoV-2 among children in a school setting, said Jennifer Nuzzo, DrPH, an epidemiologist at the Johns Hopkins Center for Health Security. However, other countries where schools have reopened successfully have reported low levels of viral transmission locally, and a responsible strategy for school reopening in the United States should follow a similar plan, she said. In areas where transmission and infection rates are increasing “it may not be safe to reopen,” but in areas where rates are declining or stable, schools could potentially reopen if they follow safety measures.
Dr. Nuzzo suggested that Considerations include protocols for handwashing and sanitation, and maintaining physical distance by creative use of outdoor classrooms (weather permitting) or other spaces within school buildings. Transportation to and from school also will be an issue to address, she noted.
None of the strategies being considered will completely eliminate risk of SARS-CoV-2 infection in school settings, so allowing parents and students to opt out and choose distance learning will be important as well, said Dr. Nuzzo. In addition, schools may need to consider alternative roles for teachers and staff who don’t feel comfortable being in contact with students and fellow staff members. “All of these things are going to be hard,” Dr. Nuzzo acknowledged. “Hard should not be a deterrent,” to reopening schools, but “we acknowledge the resources that schools will need in order to do this.”
At present, all 50 states and the District of Columbia have released some type of plan for reopening schools, said Megan Collins, MD, MPH, codirector the Johns Hopkins Consortium for School-Based Health Solutions.
Dr. Collins and colleagues have developed a school reopening tracker, which is “a national snapshot of current reopening plans that have been released,” she said. The tracker is being updated continuously as plans evolve. The eSchool+ K-12 School Reopening Tracker identifies 12 reopening categories that states could potentially address in the plans. These categories are divided into Operational and Ethics/Equity. The operational categories include:
- Core academics
- SARS-CoV-2 protection
- Before and after school programs
- School access and transportation
- Student health services
- Food and nutrition.
Ethics/equity categories include the following:
- Parent choice
- Teacher and staff choice
- Children of poverty and systemic disadvantage
- Children with special needs/English as second language/gifted and twice exceptional
- Privacy
- Engagement and transparency.
As of July 15, 2020, 16 states (Arizona, Colorado, Connecticut, Georgia, Maryland, Minnesota, New Mexico, North Carolina, North Dakota, Ohio, Rhode Island, Tennessee, Texas, Virginia, Washington, and Wisconsin) had addressed all 12 categories in their reopening plans, Dr. Collins said.
School reopening plans must take equity issues into account, said Annette Anderson, PhD, of the Johns Hopkins University School of Education.
Specifically, developing learning plans for special education students and others at the most risk for learning loss will be essential. “The digital divide has become a digital canyon” in some areas, Dr. Anderson noted, and schools need to rethink eligibility and work to provide access to devices for online learning for all students.
In addition, schools need to convince parents that schools are safe. She recommended that schools consider inviting parents and families to visit buildings in advance of reopening so they can see the safety measures, such as space between desks, cleaning stations, and other protective strategies.
The message to pediatricians and health care professionals when counseling families about returning individual children to school is to consider the risk to the child and the family directly in the context of the local plans, Dr. Sharfstein said during a question and answer session. “One school system’s plan is one school system’s plan,” he said, and added that families who are concerned about the risk should have an online option. However, “if you see a thoughtful approach” to reopening, with safety steps taken and parents informed, with protocols such as keeping small groups of children together to reduce transmission, “it is a pretty good trade-off,” and that is why the American Academy of Pediatrics currently favors children returning to school, he said.
The briefing participants had no relevant financial conflicts to disclose.
Racial differences in rates of atopic dermatitis observed early in life
, results from a single-center retrospective study found.
“Atopic dermatitis is a very common pediatric skin condition with significant morbidity for patients and their families,” lead study author Reesa L. Monir, MD, said during the virtual annual meeting of the Society for Pediatric Dermatology. “Existing studies show increased disease prevalence in Black and Asian children relative to White children, with conflicting data for Hispanic children. The methodology behind many of these existing studies, however, is somewhat questionable. Many were survey-based studies asking parents to remember a diagnosis of eczema or even asking parents to just report an itchy rash and using that as a diagnosis.”
For the current study, Dr. Monir and colleagues reviewed the records of 4,016 infants born between June 1, 2011, and April 30, 2017, who were followed in the University of Florida’s health care system. The researchers defined this as having two or more well-child visits after birth and at least one visit at 300 days of life or later, and the used documentation of specific ICD-9 or ICD-10 codes to capture an objective diagnosis of atopic dermatitis (AD). Of the 4,016 patients, 39.2% were Black, 38.5% were White, 7.1% were Hispanic, 5.3% were Asian, 6.5% were from other racial backgrounds, and 3.4% were multiracial.
Dr. Monir, who is a resident in the department of dermatology at the University of Florida, Gainesville, reported that Black infants had the highest prevalence of AD at 37%, followed by Asian infants (25.8%), Hispanic infants (24.1%), multiracial infants (23%), infants from other racial backgrounds (19.1%), and non-Hispanic White infants (17.9%). Compared with White infants, the odds ratio estimates for AD was highest for Black infants (OR, 2.62), followed by Asian infants (OR, 1.55), multiracial infants (OR, 1.42), Hispanic infants (OR, 1.41), and infants from other racial backgrounds (OR, .97).
On unadjusted analysis, the following factors were significantly associated with race: delivery mode (P = .006), insurance type (P less than .001), NICU stay (P less than .001), and gestational age (P less than .0001). However, on multivariate logistic regression, only two factors were significantly associated with the diagnosis of AD: race (P less than .0001) and NICU stay (P = .0385).
“When we looked at the early childhood period specifically, we found striking racial differences in the rates of AD arising early in life,” Dr. Monir concluded. “The diagnosis was independently associated with race and NICU stay. We suggest that further investigation into these disparities and ways we can mitigate them should focus on this early childhood period.”
The researchers reported having no relevant financial disclosures.
, results from a single-center retrospective study found.
“Atopic dermatitis is a very common pediatric skin condition with significant morbidity for patients and their families,” lead study author Reesa L. Monir, MD, said during the virtual annual meeting of the Society for Pediatric Dermatology. “Existing studies show increased disease prevalence in Black and Asian children relative to White children, with conflicting data for Hispanic children. The methodology behind many of these existing studies, however, is somewhat questionable. Many were survey-based studies asking parents to remember a diagnosis of eczema or even asking parents to just report an itchy rash and using that as a diagnosis.”
For the current study, Dr. Monir and colleagues reviewed the records of 4,016 infants born between June 1, 2011, and April 30, 2017, who were followed in the University of Florida’s health care system. The researchers defined this as having two or more well-child visits after birth and at least one visit at 300 days of life or later, and the used documentation of specific ICD-9 or ICD-10 codes to capture an objective diagnosis of atopic dermatitis (AD). Of the 4,016 patients, 39.2% were Black, 38.5% were White, 7.1% were Hispanic, 5.3% were Asian, 6.5% were from other racial backgrounds, and 3.4% were multiracial.
Dr. Monir, who is a resident in the department of dermatology at the University of Florida, Gainesville, reported that Black infants had the highest prevalence of AD at 37%, followed by Asian infants (25.8%), Hispanic infants (24.1%), multiracial infants (23%), infants from other racial backgrounds (19.1%), and non-Hispanic White infants (17.9%). Compared with White infants, the odds ratio estimates for AD was highest for Black infants (OR, 2.62), followed by Asian infants (OR, 1.55), multiracial infants (OR, 1.42), Hispanic infants (OR, 1.41), and infants from other racial backgrounds (OR, .97).
On unadjusted analysis, the following factors were significantly associated with race: delivery mode (P = .006), insurance type (P less than .001), NICU stay (P less than .001), and gestational age (P less than .0001). However, on multivariate logistic regression, only two factors were significantly associated with the diagnosis of AD: race (P less than .0001) and NICU stay (P = .0385).
“When we looked at the early childhood period specifically, we found striking racial differences in the rates of AD arising early in life,” Dr. Monir concluded. “The diagnosis was independently associated with race and NICU stay. We suggest that further investigation into these disparities and ways we can mitigate them should focus on this early childhood period.”
The researchers reported having no relevant financial disclosures.
, results from a single-center retrospective study found.
“Atopic dermatitis is a very common pediatric skin condition with significant morbidity for patients and their families,” lead study author Reesa L. Monir, MD, said during the virtual annual meeting of the Society for Pediatric Dermatology. “Existing studies show increased disease prevalence in Black and Asian children relative to White children, with conflicting data for Hispanic children. The methodology behind many of these existing studies, however, is somewhat questionable. Many were survey-based studies asking parents to remember a diagnosis of eczema or even asking parents to just report an itchy rash and using that as a diagnosis.”
For the current study, Dr. Monir and colleagues reviewed the records of 4,016 infants born between June 1, 2011, and April 30, 2017, who were followed in the University of Florida’s health care system. The researchers defined this as having two or more well-child visits after birth and at least one visit at 300 days of life or later, and the used documentation of specific ICD-9 or ICD-10 codes to capture an objective diagnosis of atopic dermatitis (AD). Of the 4,016 patients, 39.2% were Black, 38.5% were White, 7.1% were Hispanic, 5.3% were Asian, 6.5% were from other racial backgrounds, and 3.4% were multiracial.
Dr. Monir, who is a resident in the department of dermatology at the University of Florida, Gainesville, reported that Black infants had the highest prevalence of AD at 37%, followed by Asian infants (25.8%), Hispanic infants (24.1%), multiracial infants (23%), infants from other racial backgrounds (19.1%), and non-Hispanic White infants (17.9%). Compared with White infants, the odds ratio estimates for AD was highest for Black infants (OR, 2.62), followed by Asian infants (OR, 1.55), multiracial infants (OR, 1.42), Hispanic infants (OR, 1.41), and infants from other racial backgrounds (OR, .97).
On unadjusted analysis, the following factors were significantly associated with race: delivery mode (P = .006), insurance type (P less than .001), NICU stay (P less than .001), and gestational age (P less than .0001). However, on multivariate logistic regression, only two factors were significantly associated with the diagnosis of AD: race (P less than .0001) and NICU stay (P = .0385).
“When we looked at the early childhood period specifically, we found striking racial differences in the rates of AD arising early in life,” Dr. Monir concluded. “The diagnosis was independently associated with race and NICU stay. We suggest that further investigation into these disparities and ways we can mitigate them should focus on this early childhood period.”
The researchers reported having no relevant financial disclosures.
FROM SPD 2020
Why doctors keep monitoring kids who recover from mysterious COVID-linked illness
He’s a 5-year-old boy and would much rather talk about cartoons or the ideas for inventions that constantly pop into his head.
“Hold your horses, I think I know what I’m gonna make,” he said, holding up a finger in the middle of a conversation. “I’m gonna make something that lights up and attaches to things with glue, so if you don’t have a flashlight, you can just use it!”
In New York, at least 237 kids, including Israel, appear to have Multisystem Inflammatory Syndrome in Children (MIS-C). And state officials continue to track the syndrome, but the Centers for Disease Control and Prevention did not respond to repeated requests for information on how many children nationwide have been diagnosed so far with MIS-C.
A study published June 29 in the New England Journal of Medicine reported on 186 patients in 26 states who had been diagnosed with MIS-C. A researcher writing in the same issue added reports from other countries, finding that about 1,000 children worldwide have been diagnosed with MIS-C.
Tracking the long-term health effects of MIS-C
Israel is friendly and energetic, but he’s also really good at sitting still. During a recent checkup at the Children’s Hospital at Montefiore, New York, he had no complaints about all the stickers and wires a health aide attached to him for an EKG. And when Marc Foca, MD, an infectious disease specialist, came by to listen to his heart and lungs, and prod his abdomen, Israel barely seemed to notice.
There were still some tests pending, but overall, Dr. Foca said, “Israel looks like a totally healthy 5-year-old.”
“Stay safe!” Israel called out, as Dr. Foca left. It’s his new sign-off, instead of goodbye. His mother, Janelle Moholland, explained Israel came up with it himself. And she’s also hoping that, after a harrowing couple of weeks in early May, Israel himself will “stay safe.”
That’s why they’ve been returning to Montefiore for the periodic checkups, even though Israel seems to have recovered fully from both COVID-19 and MIS-C.
MIS-C is relatively rare, and it apparently responds well to treatment, but it is new enough – and mysterious enough – that doctors here want to make sure the children who recover don’t experience any related health complications in the future.
“We’ve seen these kids get really sick, and get better and recover and go home, yet we don’t know what the long-term outcomes are,” said Nadine Choueiter, MD, a pediatric cardiologist at Montefiore. “So that’s why we will be seeing them.”
When Israel first got sick at the end of April, his illness didn’t exactly look like COVID-19. He had persistent high fevers, with his temperature reaching 104° F – but no problems breathing. He wasn’t eating. He was barely drinking. He wasn’t using the bathroom. He had abdominal pains. His eyes were red.
They went to the ED a couple of times and visited an urgent care center, but the doctors sent them home without testing him for the coronavirus. Ms. Moholland, 29, said she felt powerless.
“There was nothing I could do but make him comfortable,” she said. “I literally had to just trust in a higher power and just hope that He would come through for us. It taught me a lot about patience and faith.”
As Israel grew sicker, and they still had no answers, Ms. Moholland grew frustrated. “I wish his pediatrician and [the ED and urgent care staff] had done what they were supposed to do and given him a test” when Israel first got sick, Ms. Moholland said. “What harm would it have done? He suffered for about 10 or 11 days that could have been avoided.”
In a later interview, she talked with NPR about how COVID-19 has disproportionately affected the African American community because of a combination of underlying health conditions and lack of access to good health care. She said she felt she, too, had fallen victim to those disparities.
“It affects me, personally, because I am African American, but you just never know,” she said. “It’s hard. We’re living in uncertain times – very uncertain times.”
Finally, the Children’s Hospital at Montefiore admitted Israel – and the test she’d been trying to get for days confirmed he had the virus.
“I was literally in tears, like begging them not to discharge me because I knew he was not fine,” she recalled.
Israel was in shock, and by the time he got to the hospital, doctors were on the lookout for MIS-C, so they recognized his symptoms – which were distinct from most people with COVID-19.
Doctors gave Israel fluids and intravenous immunoglobulin, a substance obtained from donated human plasma, which is used to treat deficiencies in the immune system.
Immunoglobulin has been effective in children like Israel because MIS-C appears to be caused by an immune overreaction to the initial coronavirus infection, according to Dr. Choueiter.
“The immune system starts attacking the body itself, including the arteries of the heart,” she said.
In some MIS-C cases – though not Israel’s – the attack occurs in the coronary arteries, inflaming and dilating them. That also happens in a different syndrome affecting children, Kawasaki disease. About 5% of Kawasaki patients experience aneurysms – which can fatally rupture blood vessels – after the initial condition subsides.
Dr. Choueiter and colleagues want to make sure MIS-C patients don’t face similar risks. So far, they’re cautiously optimistic.
“We have not seen any new decrease in heart function or any new coronary artery dilations,” she said. “When we check their blood, their inflammatory markers are back to normal. For the parents, the child is back to baseline, and it’s as if this illness is a nightmare that’s long gone.”
For a Pennsylvania teen, the MIS-C diagnosis came much later
Not every child who develops MIS-C tests positive for the coronavirus, though many will test positive for antibodies to the coronavirus, indicating they had been infected previously. That was the case with Andrew Lis, a boy from Pennsylvania who was the first MIS-C patient seen at the Nemours/Alfred I. duPont Hospital for Children in Wilmington, Del.
Andrew had been a healthy 14-year-old boy before he got sick. He and his twin brother love sports and video games. He said the first symptom was a bad headache. He developed a fever the next day, then constipation and intense stomach pain.
“It was terrible,” Andrew said. “It was unbearable. I couldn’t really move a lot.”
His mother, Ingrid Lis, said they were thinking appendicitis, not coronavirus, at first. In fact, she hesitated to take Andrew to the hospital, for fear of exposing him to the virus. But after Andrew stopped eating because of his headache and stomach discomfort, “I knew I couldn’t keep him home anymore,” Mrs. Lis said.
Andrew was admitted to the hospital April 12, but that was before reports of the mysterious syndrome had started trickling out of Europe.
Over about 5 days in the pediatric ICU, Andrew’s condition deteriorated rapidly, as doctors struggled to figure out what was wrong. Puzzled, they tried treatments for scarlet fever, strep throat, and toxic shock syndrome. Andrew’s body broke out in rashes, then his heart began failing and he was put on a ventilator. Andrew’s father, Ed Lis, said doctors told the family to brace for the worst: “We’ve got a healthy kid who a few days ago was just having these sort of strange symptoms. And now they’re telling us that we could lose him.”
Though Andrew’s symptoms were atypical for Kawasaki disease, doctors decided to give him the standard treatment for that condition – administering intravenous immunoglobulin, the same treatment Israel Shippy received.
“Within the 24 hours of the infusion, he was a different person,” Mrs. Lis said. Andrew was removed from the ventilator, and his appetite eventually returned. “That’s when we knew that we had turned that corner.”
It wasn’t until after Andrew’s discharge that his doctors learned about MIS-C from colleagues in Europe. They recommended the whole family be tested for antibodies to the coronavirus. Although Andrew tested positive, the rest of the family – both parents, Andrew’s twin brother and two older siblings – all tested negative. Andrew’s mother is still not sure how he was exposed since the family had been observing a strict lockdown since mid-March. Both she and her husband were working remotely from home, and she says they all wore masks and were conscientious about hand-washing when they ventured out for groceries. She thinks Andrew must have been exposed at least a month before his illness began.
And she’s puzzled why the rest of her close-knit family wasn’t infected as well. “We are a Latino family,” Mrs. Lis said. “We are very used to being together, clustering in the same room.” Even when Andrew was sick, she says, all six of them huddled in his bedroom to comfort him.
Meanwhile, Andrew has made a quick recovery. Not long after his discharge in April, he turned 15 and resumed an exercise routine involving running, push-ups, and sit-ups. A few weeks later, an ECG showed Andrew’s heart was “perfect,” Mr. Lis said. Still, doctors have asked Andrew to follow up with a cardiologist every 3 months.
An eye on the long-term effects
The medical team at Montefiore is tracking the 40 children they have already treated and discharged. With kids showing few symptoms in the immediate aftermath, Dr. Choueiter hopes the long-term trajectory after MIS-C will be similar to what happens after Kawasaki disease.
“Usually children who have had coronary artery dilations [from Kawasaki disease] that have resolved within the first 6 weeks of the illness do well long-term,” said Dr. Choueiter, who runs the Kawasaki disease program at Montefiore.
The Montefiore team is asking patients affected by MIS-C to return for a checkup 1 week after discharge, then after 1 month, 3 months, 6 months, and a year. They will be evaluated by pediatric cardiologists, hematologists, rheumatologists and infectious disease specialists.
Montefiore and other children’s hospitals around the country are sharing information. Dr. Choueiter wants to establish an even longer-term monitoring program for MIS-C, comparable with registries that exist for other diseases.
Ms. Moholland is glad the hospital is being vigilant.
“The uncertainty of not knowing whether it could come back in his future is a little unsettling,” she said. “But I am hopeful.”
This story is part of a partnership that includes WNYC, NPR, and Kaiser Health News. A version of this article originally appeared on Kaiser Health News.
He’s a 5-year-old boy and would much rather talk about cartoons or the ideas for inventions that constantly pop into his head.
“Hold your horses, I think I know what I’m gonna make,” he said, holding up a finger in the middle of a conversation. “I’m gonna make something that lights up and attaches to things with glue, so if you don’t have a flashlight, you can just use it!”
In New York, at least 237 kids, including Israel, appear to have Multisystem Inflammatory Syndrome in Children (MIS-C). And state officials continue to track the syndrome, but the Centers for Disease Control and Prevention did not respond to repeated requests for information on how many children nationwide have been diagnosed so far with MIS-C.
A study published June 29 in the New England Journal of Medicine reported on 186 patients in 26 states who had been diagnosed with MIS-C. A researcher writing in the same issue added reports from other countries, finding that about 1,000 children worldwide have been diagnosed with MIS-C.
Tracking the long-term health effects of MIS-C
Israel is friendly and energetic, but he’s also really good at sitting still. During a recent checkup at the Children’s Hospital at Montefiore, New York, he had no complaints about all the stickers and wires a health aide attached to him for an EKG. And when Marc Foca, MD, an infectious disease specialist, came by to listen to his heart and lungs, and prod his abdomen, Israel barely seemed to notice.
There were still some tests pending, but overall, Dr. Foca said, “Israel looks like a totally healthy 5-year-old.”
“Stay safe!” Israel called out, as Dr. Foca left. It’s his new sign-off, instead of goodbye. His mother, Janelle Moholland, explained Israel came up with it himself. And she’s also hoping that, after a harrowing couple of weeks in early May, Israel himself will “stay safe.”
That’s why they’ve been returning to Montefiore for the periodic checkups, even though Israel seems to have recovered fully from both COVID-19 and MIS-C.
MIS-C is relatively rare, and it apparently responds well to treatment, but it is new enough – and mysterious enough – that doctors here want to make sure the children who recover don’t experience any related health complications in the future.
“We’ve seen these kids get really sick, and get better and recover and go home, yet we don’t know what the long-term outcomes are,” said Nadine Choueiter, MD, a pediatric cardiologist at Montefiore. “So that’s why we will be seeing them.”
When Israel first got sick at the end of April, his illness didn’t exactly look like COVID-19. He had persistent high fevers, with his temperature reaching 104° F – but no problems breathing. He wasn’t eating. He was barely drinking. He wasn’t using the bathroom. He had abdominal pains. His eyes were red.
They went to the ED a couple of times and visited an urgent care center, but the doctors sent them home without testing him for the coronavirus. Ms. Moholland, 29, said she felt powerless.
“There was nothing I could do but make him comfortable,” she said. “I literally had to just trust in a higher power and just hope that He would come through for us. It taught me a lot about patience and faith.”
As Israel grew sicker, and they still had no answers, Ms. Moholland grew frustrated. “I wish his pediatrician and [the ED and urgent care staff] had done what they were supposed to do and given him a test” when Israel first got sick, Ms. Moholland said. “What harm would it have done? He suffered for about 10 or 11 days that could have been avoided.”
In a later interview, she talked with NPR about how COVID-19 has disproportionately affected the African American community because of a combination of underlying health conditions and lack of access to good health care. She said she felt she, too, had fallen victim to those disparities.
“It affects me, personally, because I am African American, but you just never know,” she said. “It’s hard. We’re living in uncertain times – very uncertain times.”
Finally, the Children’s Hospital at Montefiore admitted Israel – and the test she’d been trying to get for days confirmed he had the virus.
“I was literally in tears, like begging them not to discharge me because I knew he was not fine,” she recalled.
Israel was in shock, and by the time he got to the hospital, doctors were on the lookout for MIS-C, so they recognized his symptoms – which were distinct from most people with COVID-19.
Doctors gave Israel fluids and intravenous immunoglobulin, a substance obtained from donated human plasma, which is used to treat deficiencies in the immune system.
Immunoglobulin has been effective in children like Israel because MIS-C appears to be caused by an immune overreaction to the initial coronavirus infection, according to Dr. Choueiter.
“The immune system starts attacking the body itself, including the arteries of the heart,” she said.
In some MIS-C cases – though not Israel’s – the attack occurs in the coronary arteries, inflaming and dilating them. That also happens in a different syndrome affecting children, Kawasaki disease. About 5% of Kawasaki patients experience aneurysms – which can fatally rupture blood vessels – after the initial condition subsides.
Dr. Choueiter and colleagues want to make sure MIS-C patients don’t face similar risks. So far, they’re cautiously optimistic.
“We have not seen any new decrease in heart function or any new coronary artery dilations,” she said. “When we check their blood, their inflammatory markers are back to normal. For the parents, the child is back to baseline, and it’s as if this illness is a nightmare that’s long gone.”
For a Pennsylvania teen, the MIS-C diagnosis came much later
Not every child who develops MIS-C tests positive for the coronavirus, though many will test positive for antibodies to the coronavirus, indicating they had been infected previously. That was the case with Andrew Lis, a boy from Pennsylvania who was the first MIS-C patient seen at the Nemours/Alfred I. duPont Hospital for Children in Wilmington, Del.
Andrew had been a healthy 14-year-old boy before he got sick. He and his twin brother love sports and video games. He said the first symptom was a bad headache. He developed a fever the next day, then constipation and intense stomach pain.
“It was terrible,” Andrew said. “It was unbearable. I couldn’t really move a lot.”
His mother, Ingrid Lis, said they were thinking appendicitis, not coronavirus, at first. In fact, she hesitated to take Andrew to the hospital, for fear of exposing him to the virus. But after Andrew stopped eating because of his headache and stomach discomfort, “I knew I couldn’t keep him home anymore,” Mrs. Lis said.
Andrew was admitted to the hospital April 12, but that was before reports of the mysterious syndrome had started trickling out of Europe.
Over about 5 days in the pediatric ICU, Andrew’s condition deteriorated rapidly, as doctors struggled to figure out what was wrong. Puzzled, they tried treatments for scarlet fever, strep throat, and toxic shock syndrome. Andrew’s body broke out in rashes, then his heart began failing and he was put on a ventilator. Andrew’s father, Ed Lis, said doctors told the family to brace for the worst: “We’ve got a healthy kid who a few days ago was just having these sort of strange symptoms. And now they’re telling us that we could lose him.”
Though Andrew’s symptoms were atypical for Kawasaki disease, doctors decided to give him the standard treatment for that condition – administering intravenous immunoglobulin, the same treatment Israel Shippy received.
“Within the 24 hours of the infusion, he was a different person,” Mrs. Lis said. Andrew was removed from the ventilator, and his appetite eventually returned. “That’s when we knew that we had turned that corner.”
It wasn’t until after Andrew’s discharge that his doctors learned about MIS-C from colleagues in Europe. They recommended the whole family be tested for antibodies to the coronavirus. Although Andrew tested positive, the rest of the family – both parents, Andrew’s twin brother and two older siblings – all tested negative. Andrew’s mother is still not sure how he was exposed since the family had been observing a strict lockdown since mid-March. Both she and her husband were working remotely from home, and she says they all wore masks and were conscientious about hand-washing when they ventured out for groceries. She thinks Andrew must have been exposed at least a month before his illness began.
And she’s puzzled why the rest of her close-knit family wasn’t infected as well. “We are a Latino family,” Mrs. Lis said. “We are very used to being together, clustering in the same room.” Even when Andrew was sick, she says, all six of them huddled in his bedroom to comfort him.
Meanwhile, Andrew has made a quick recovery. Not long after his discharge in April, he turned 15 and resumed an exercise routine involving running, push-ups, and sit-ups. A few weeks later, an ECG showed Andrew’s heart was “perfect,” Mr. Lis said. Still, doctors have asked Andrew to follow up with a cardiologist every 3 months.
An eye on the long-term effects
The medical team at Montefiore is tracking the 40 children they have already treated and discharged. With kids showing few symptoms in the immediate aftermath, Dr. Choueiter hopes the long-term trajectory after MIS-C will be similar to what happens after Kawasaki disease.
“Usually children who have had coronary artery dilations [from Kawasaki disease] that have resolved within the first 6 weeks of the illness do well long-term,” said Dr. Choueiter, who runs the Kawasaki disease program at Montefiore.
The Montefiore team is asking patients affected by MIS-C to return for a checkup 1 week after discharge, then after 1 month, 3 months, 6 months, and a year. They will be evaluated by pediatric cardiologists, hematologists, rheumatologists and infectious disease specialists.
Montefiore and other children’s hospitals around the country are sharing information. Dr. Choueiter wants to establish an even longer-term monitoring program for MIS-C, comparable with registries that exist for other diseases.
Ms. Moholland is glad the hospital is being vigilant.
“The uncertainty of not knowing whether it could come back in his future is a little unsettling,” she said. “But I am hopeful.”
This story is part of a partnership that includes WNYC, NPR, and Kaiser Health News. A version of this article originally appeared on Kaiser Health News.
He’s a 5-year-old boy and would much rather talk about cartoons or the ideas for inventions that constantly pop into his head.
“Hold your horses, I think I know what I’m gonna make,” he said, holding up a finger in the middle of a conversation. “I’m gonna make something that lights up and attaches to things with glue, so if you don’t have a flashlight, you can just use it!”
In New York, at least 237 kids, including Israel, appear to have Multisystem Inflammatory Syndrome in Children (MIS-C). And state officials continue to track the syndrome, but the Centers for Disease Control and Prevention did not respond to repeated requests for information on how many children nationwide have been diagnosed so far with MIS-C.
A study published June 29 in the New England Journal of Medicine reported on 186 patients in 26 states who had been diagnosed with MIS-C. A researcher writing in the same issue added reports from other countries, finding that about 1,000 children worldwide have been diagnosed with MIS-C.
Tracking the long-term health effects of MIS-C
Israel is friendly and energetic, but he’s also really good at sitting still. During a recent checkup at the Children’s Hospital at Montefiore, New York, he had no complaints about all the stickers and wires a health aide attached to him for an EKG. And when Marc Foca, MD, an infectious disease specialist, came by to listen to his heart and lungs, and prod his abdomen, Israel barely seemed to notice.
There were still some tests pending, but overall, Dr. Foca said, “Israel looks like a totally healthy 5-year-old.”
“Stay safe!” Israel called out, as Dr. Foca left. It’s his new sign-off, instead of goodbye. His mother, Janelle Moholland, explained Israel came up with it himself. And she’s also hoping that, after a harrowing couple of weeks in early May, Israel himself will “stay safe.”
That’s why they’ve been returning to Montefiore for the periodic checkups, even though Israel seems to have recovered fully from both COVID-19 and MIS-C.
MIS-C is relatively rare, and it apparently responds well to treatment, but it is new enough – and mysterious enough – that doctors here want to make sure the children who recover don’t experience any related health complications in the future.
“We’ve seen these kids get really sick, and get better and recover and go home, yet we don’t know what the long-term outcomes are,” said Nadine Choueiter, MD, a pediatric cardiologist at Montefiore. “So that’s why we will be seeing them.”
When Israel first got sick at the end of April, his illness didn’t exactly look like COVID-19. He had persistent high fevers, with his temperature reaching 104° F – but no problems breathing. He wasn’t eating. He was barely drinking. He wasn’t using the bathroom. He had abdominal pains. His eyes were red.
They went to the ED a couple of times and visited an urgent care center, but the doctors sent them home without testing him for the coronavirus. Ms. Moholland, 29, said she felt powerless.
“There was nothing I could do but make him comfortable,” she said. “I literally had to just trust in a higher power and just hope that He would come through for us. It taught me a lot about patience and faith.”
As Israel grew sicker, and they still had no answers, Ms. Moholland grew frustrated. “I wish his pediatrician and [the ED and urgent care staff] had done what they were supposed to do and given him a test” when Israel first got sick, Ms. Moholland said. “What harm would it have done? He suffered for about 10 or 11 days that could have been avoided.”
In a later interview, she talked with NPR about how COVID-19 has disproportionately affected the African American community because of a combination of underlying health conditions and lack of access to good health care. She said she felt she, too, had fallen victim to those disparities.
“It affects me, personally, because I am African American, but you just never know,” she said. “It’s hard. We’re living in uncertain times – very uncertain times.”
Finally, the Children’s Hospital at Montefiore admitted Israel – and the test she’d been trying to get for days confirmed he had the virus.
“I was literally in tears, like begging them not to discharge me because I knew he was not fine,” she recalled.
Israel was in shock, and by the time he got to the hospital, doctors were on the lookout for MIS-C, so they recognized his symptoms – which were distinct from most people with COVID-19.
Doctors gave Israel fluids and intravenous immunoglobulin, a substance obtained from donated human plasma, which is used to treat deficiencies in the immune system.
Immunoglobulin has been effective in children like Israel because MIS-C appears to be caused by an immune overreaction to the initial coronavirus infection, according to Dr. Choueiter.
“The immune system starts attacking the body itself, including the arteries of the heart,” she said.
In some MIS-C cases – though not Israel’s – the attack occurs in the coronary arteries, inflaming and dilating them. That also happens in a different syndrome affecting children, Kawasaki disease. About 5% of Kawasaki patients experience aneurysms – which can fatally rupture blood vessels – after the initial condition subsides.
Dr. Choueiter and colleagues want to make sure MIS-C patients don’t face similar risks. So far, they’re cautiously optimistic.
“We have not seen any new decrease in heart function or any new coronary artery dilations,” she said. “When we check their blood, their inflammatory markers are back to normal. For the parents, the child is back to baseline, and it’s as if this illness is a nightmare that’s long gone.”
For a Pennsylvania teen, the MIS-C diagnosis came much later
Not every child who develops MIS-C tests positive for the coronavirus, though many will test positive for antibodies to the coronavirus, indicating they had been infected previously. That was the case with Andrew Lis, a boy from Pennsylvania who was the first MIS-C patient seen at the Nemours/Alfred I. duPont Hospital for Children in Wilmington, Del.
Andrew had been a healthy 14-year-old boy before he got sick. He and his twin brother love sports and video games. He said the first symptom was a bad headache. He developed a fever the next day, then constipation and intense stomach pain.
“It was terrible,” Andrew said. “It was unbearable. I couldn’t really move a lot.”
His mother, Ingrid Lis, said they were thinking appendicitis, not coronavirus, at first. In fact, she hesitated to take Andrew to the hospital, for fear of exposing him to the virus. But after Andrew stopped eating because of his headache and stomach discomfort, “I knew I couldn’t keep him home anymore,” Mrs. Lis said.
Andrew was admitted to the hospital April 12, but that was before reports of the mysterious syndrome had started trickling out of Europe.
Over about 5 days in the pediatric ICU, Andrew’s condition deteriorated rapidly, as doctors struggled to figure out what was wrong. Puzzled, they tried treatments for scarlet fever, strep throat, and toxic shock syndrome. Andrew’s body broke out in rashes, then his heart began failing and he was put on a ventilator. Andrew’s father, Ed Lis, said doctors told the family to brace for the worst: “We’ve got a healthy kid who a few days ago was just having these sort of strange symptoms. And now they’re telling us that we could lose him.”
Though Andrew’s symptoms were atypical for Kawasaki disease, doctors decided to give him the standard treatment for that condition – administering intravenous immunoglobulin, the same treatment Israel Shippy received.
“Within the 24 hours of the infusion, he was a different person,” Mrs. Lis said. Andrew was removed from the ventilator, and his appetite eventually returned. “That’s when we knew that we had turned that corner.”
It wasn’t until after Andrew’s discharge that his doctors learned about MIS-C from colleagues in Europe. They recommended the whole family be tested for antibodies to the coronavirus. Although Andrew tested positive, the rest of the family – both parents, Andrew’s twin brother and two older siblings – all tested negative. Andrew’s mother is still not sure how he was exposed since the family had been observing a strict lockdown since mid-March. Both she and her husband were working remotely from home, and she says they all wore masks and were conscientious about hand-washing when they ventured out for groceries. She thinks Andrew must have been exposed at least a month before his illness began.
And she’s puzzled why the rest of her close-knit family wasn’t infected as well. “We are a Latino family,” Mrs. Lis said. “We are very used to being together, clustering in the same room.” Even when Andrew was sick, she says, all six of them huddled in his bedroom to comfort him.
Meanwhile, Andrew has made a quick recovery. Not long after his discharge in April, he turned 15 and resumed an exercise routine involving running, push-ups, and sit-ups. A few weeks later, an ECG showed Andrew’s heart was “perfect,” Mr. Lis said. Still, doctors have asked Andrew to follow up with a cardiologist every 3 months.
An eye on the long-term effects
The medical team at Montefiore is tracking the 40 children they have already treated and discharged. With kids showing few symptoms in the immediate aftermath, Dr. Choueiter hopes the long-term trajectory after MIS-C will be similar to what happens after Kawasaki disease.
“Usually children who have had coronary artery dilations [from Kawasaki disease] that have resolved within the first 6 weeks of the illness do well long-term,” said Dr. Choueiter, who runs the Kawasaki disease program at Montefiore.
The Montefiore team is asking patients affected by MIS-C to return for a checkup 1 week after discharge, then after 1 month, 3 months, 6 months, and a year. They will be evaluated by pediatric cardiologists, hematologists, rheumatologists and infectious disease specialists.
Montefiore and other children’s hospitals around the country are sharing information. Dr. Choueiter wants to establish an even longer-term monitoring program for MIS-C, comparable with registries that exist for other diseases.
Ms. Moholland is glad the hospital is being vigilant.
“The uncertainty of not knowing whether it could come back in his future is a little unsettling,” she said. “But I am hopeful.”
This story is part of a partnership that includes WNYC, NPR, and Kaiser Health News. A version of this article originally appeared on Kaiser Health News.
Expert clarifies guidance on adolescent polycystic ovary syndrome
A trio of international expert recommendations mainly agree on essentials for the diagnosis and treatment of polycystic ovary syndrome in adolescents, but some confusion persists, according to Robert L. Rosenfield, MD, of the University of California, San Francisco.
In a commentary published in the Journal of Pediatric & Adolescent Gynecology, Dr. Rosenfield, who convened one of the three conferences at which guidance was developed, noted that the three recommendations – published by the Pediatric Endocrine Society, the International Consortium of Paediatric Endocrinology, and the International PCOS Network in 2015, 2017, and 2018, respectively – “are fairly dense” and reviews have suggested a lack of agreement. His comments offer perspective and practice suggestions that follow the consensus of the recommendations.
“All the documents agree on the core diagnostic criteria for adolescent PCOS: otherwise unexplained evidence of ovulatory dysfunction, as indicated by menstrual abnormalities based on stage-appropriate standards, and evidence of an androgen excess disorder,” Dr. Rosenfield said.
The main differences among the recommendations from the three groups reflect tension between the value of an early diagnosis and the liabilities of a mistaken diagnosis in the context of attitudes about adolescent contraception. “These are issues not likely to be resolved easily, yet they are matters for every physician to consider in management of each case,” he said.
Dr. Rosenfield emphasized that clinicians must consider PCOS “in the general context of all causes of adolescent menstrual disturbances,” when evaluating a girl within 1-2 years of menarche who presents with a menstrual abnormality, hirsutism, and/or acne that has been resistant to topical treatment.
A key point on which the recommendations differ is whether further assessment is needed if the menstrual abnormality has persisted for 1 year (the 2018 recommendations) or 2 years (the 2015 and 2017 recommendations), Dr. Rosenfield explained. “What the conferees struggled with is differentiating how long after menarche a menstrual abnormality should persist to avoid confusing PCOS with normal immaturity of the menstrual cycle,” known as physiologic adolescent anovulation (PAA). “The degree of certainty is improved only modestly by waiting 2 years rather than 1 year to make a diagnosis.”
However, the three documents agree that girls suspected of having PCOS within the first 1-2 years after menarche should be evaluated at that time, and followed with a diagnosis of “at risk for PCOS” if the early test results are consistent with a PCOS diagnosis, he said.
Another point of difference among the groups is the extent to which hirsutism and acne represent clinical evidence of hyperandrogenism that justifies testing for biochemical hyperandrogenism, Dr. Rosenfield said.
“All three sets of adolescent PCOS recommendations agree that investigation for biochemical hyperandrogenism be initiated by measuring serum total and/or free testosterone by specialty assays with well-defined reference ranges,” he said.
However, “documentation of biochemical hyperandrogenism has been problematic because standard platform assays of testosterone give grossly inaccurate results.”
As said Dr. Rosenfield. Guidelines in the United States favor estrogen-progestin combined oral contraceptives as first-line therapy, while the international guidelines support contraceptives if contraception also is desired; otherwise the 2017 guidelines recommend metformin as a first-line treatment.
“Agreement is uniform that healthy lifestyle management is first-line therapy for management of the associated obesity and metabolic disturbances, i.e., prior to and/or in conjunction with metformin therapy,” he noted.
In general, Dr. Rosenfield acknowledged that front-line clinicians cannot easily evaluate all early postmenarcheal girls for abnormal menstrual cycles. Instead, he advocated a “middle ground” approach between early diagnosis and potentially labeling a girl with a false positive diagnosis.
Postmenarcheal girls who are amenorrheic for 2 months could be assessed for signs of PCOS or pregnancy, and whether she is generally in good health, he said. “However, for example, if she remains amenorrheic for more than 90 days or if two successive periods are more than 2 months apart, laboratory screening would be reasonable.”
PCOS is “a diagnosis of exclusion for which referral to a specialist is advisable” to rule out other conditions such as non-classic congenital adrenal hyperplasia, hyperprolactinemia, endogenous Cushing syndrome, thyroid dysfunction, and virilizing tumors, said Dr. Rosenfield.
However, PCOS accounts for most cases of adolescent hyperandrogenism. The symptomatic treatment of early postmenarcheal girls at risk of PCOS is recommended to manage menstrual abnormality, hirsutism, acne, or obesity, and these girls should be reassessed by the time they finish high school after a 3-month treatment withdrawal period, he emphasized.
Dr. Rosenfield had no relevant financial conflicts to disclose.
SOURCE: Rosenfield RL. J Pediatr Adolesc Gynecol. 2020 June 29. doi: 10.1016/j.jpag.2020.06.017.
A trio of international expert recommendations mainly agree on essentials for the diagnosis and treatment of polycystic ovary syndrome in adolescents, but some confusion persists, according to Robert L. Rosenfield, MD, of the University of California, San Francisco.
In a commentary published in the Journal of Pediatric & Adolescent Gynecology, Dr. Rosenfield, who convened one of the three conferences at which guidance was developed, noted that the three recommendations – published by the Pediatric Endocrine Society, the International Consortium of Paediatric Endocrinology, and the International PCOS Network in 2015, 2017, and 2018, respectively – “are fairly dense” and reviews have suggested a lack of agreement. His comments offer perspective and practice suggestions that follow the consensus of the recommendations.
“All the documents agree on the core diagnostic criteria for adolescent PCOS: otherwise unexplained evidence of ovulatory dysfunction, as indicated by menstrual abnormalities based on stage-appropriate standards, and evidence of an androgen excess disorder,” Dr. Rosenfield said.
The main differences among the recommendations from the three groups reflect tension between the value of an early diagnosis and the liabilities of a mistaken diagnosis in the context of attitudes about adolescent contraception. “These are issues not likely to be resolved easily, yet they are matters for every physician to consider in management of each case,” he said.
Dr. Rosenfield emphasized that clinicians must consider PCOS “in the general context of all causes of adolescent menstrual disturbances,” when evaluating a girl within 1-2 years of menarche who presents with a menstrual abnormality, hirsutism, and/or acne that has been resistant to topical treatment.
A key point on which the recommendations differ is whether further assessment is needed if the menstrual abnormality has persisted for 1 year (the 2018 recommendations) or 2 years (the 2015 and 2017 recommendations), Dr. Rosenfield explained. “What the conferees struggled with is differentiating how long after menarche a menstrual abnormality should persist to avoid confusing PCOS with normal immaturity of the menstrual cycle,” known as physiologic adolescent anovulation (PAA). “The degree of certainty is improved only modestly by waiting 2 years rather than 1 year to make a diagnosis.”
However, the three documents agree that girls suspected of having PCOS within the first 1-2 years after menarche should be evaluated at that time, and followed with a diagnosis of “at risk for PCOS” if the early test results are consistent with a PCOS diagnosis, he said.
Another point of difference among the groups is the extent to which hirsutism and acne represent clinical evidence of hyperandrogenism that justifies testing for biochemical hyperandrogenism, Dr. Rosenfield said.
“All three sets of adolescent PCOS recommendations agree that investigation for biochemical hyperandrogenism be initiated by measuring serum total and/or free testosterone by specialty assays with well-defined reference ranges,” he said.
However, “documentation of biochemical hyperandrogenism has been problematic because standard platform assays of testosterone give grossly inaccurate results.”
As said Dr. Rosenfield. Guidelines in the United States favor estrogen-progestin combined oral contraceptives as first-line therapy, while the international guidelines support contraceptives if contraception also is desired; otherwise the 2017 guidelines recommend metformin as a first-line treatment.
“Agreement is uniform that healthy lifestyle management is first-line therapy for management of the associated obesity and metabolic disturbances, i.e., prior to and/or in conjunction with metformin therapy,” he noted.
In general, Dr. Rosenfield acknowledged that front-line clinicians cannot easily evaluate all early postmenarcheal girls for abnormal menstrual cycles. Instead, he advocated a “middle ground” approach between early diagnosis and potentially labeling a girl with a false positive diagnosis.
Postmenarcheal girls who are amenorrheic for 2 months could be assessed for signs of PCOS or pregnancy, and whether she is generally in good health, he said. “However, for example, if she remains amenorrheic for more than 90 days or if two successive periods are more than 2 months apart, laboratory screening would be reasonable.”
PCOS is “a diagnosis of exclusion for which referral to a specialist is advisable” to rule out other conditions such as non-classic congenital adrenal hyperplasia, hyperprolactinemia, endogenous Cushing syndrome, thyroid dysfunction, and virilizing tumors, said Dr. Rosenfield.
However, PCOS accounts for most cases of adolescent hyperandrogenism. The symptomatic treatment of early postmenarcheal girls at risk of PCOS is recommended to manage menstrual abnormality, hirsutism, acne, or obesity, and these girls should be reassessed by the time they finish high school after a 3-month treatment withdrawal period, he emphasized.
Dr. Rosenfield had no relevant financial conflicts to disclose.
SOURCE: Rosenfield RL. J Pediatr Adolesc Gynecol. 2020 June 29. doi: 10.1016/j.jpag.2020.06.017.
A trio of international expert recommendations mainly agree on essentials for the diagnosis and treatment of polycystic ovary syndrome in adolescents, but some confusion persists, according to Robert L. Rosenfield, MD, of the University of California, San Francisco.
In a commentary published in the Journal of Pediatric & Adolescent Gynecology, Dr. Rosenfield, who convened one of the three conferences at which guidance was developed, noted that the three recommendations – published by the Pediatric Endocrine Society, the International Consortium of Paediatric Endocrinology, and the International PCOS Network in 2015, 2017, and 2018, respectively – “are fairly dense” and reviews have suggested a lack of agreement. His comments offer perspective and practice suggestions that follow the consensus of the recommendations.
“All the documents agree on the core diagnostic criteria for adolescent PCOS: otherwise unexplained evidence of ovulatory dysfunction, as indicated by menstrual abnormalities based on stage-appropriate standards, and evidence of an androgen excess disorder,” Dr. Rosenfield said.
The main differences among the recommendations from the three groups reflect tension between the value of an early diagnosis and the liabilities of a mistaken diagnosis in the context of attitudes about adolescent contraception. “These are issues not likely to be resolved easily, yet they are matters for every physician to consider in management of each case,” he said.
Dr. Rosenfield emphasized that clinicians must consider PCOS “in the general context of all causes of adolescent menstrual disturbances,” when evaluating a girl within 1-2 years of menarche who presents with a menstrual abnormality, hirsutism, and/or acne that has been resistant to topical treatment.
A key point on which the recommendations differ is whether further assessment is needed if the menstrual abnormality has persisted for 1 year (the 2018 recommendations) or 2 years (the 2015 and 2017 recommendations), Dr. Rosenfield explained. “What the conferees struggled with is differentiating how long after menarche a menstrual abnormality should persist to avoid confusing PCOS with normal immaturity of the menstrual cycle,” known as physiologic adolescent anovulation (PAA). “The degree of certainty is improved only modestly by waiting 2 years rather than 1 year to make a diagnosis.”
However, the three documents agree that girls suspected of having PCOS within the first 1-2 years after menarche should be evaluated at that time, and followed with a diagnosis of “at risk for PCOS” if the early test results are consistent with a PCOS diagnosis, he said.
Another point of difference among the groups is the extent to which hirsutism and acne represent clinical evidence of hyperandrogenism that justifies testing for biochemical hyperandrogenism, Dr. Rosenfield said.
“All three sets of adolescent PCOS recommendations agree that investigation for biochemical hyperandrogenism be initiated by measuring serum total and/or free testosterone by specialty assays with well-defined reference ranges,” he said.
However, “documentation of biochemical hyperandrogenism has been problematic because standard platform assays of testosterone give grossly inaccurate results.”
As said Dr. Rosenfield. Guidelines in the United States favor estrogen-progestin combined oral contraceptives as first-line therapy, while the international guidelines support contraceptives if contraception also is desired; otherwise the 2017 guidelines recommend metformin as a first-line treatment.
“Agreement is uniform that healthy lifestyle management is first-line therapy for management of the associated obesity and metabolic disturbances, i.e., prior to and/or in conjunction with metformin therapy,” he noted.
In general, Dr. Rosenfield acknowledged that front-line clinicians cannot easily evaluate all early postmenarcheal girls for abnormal menstrual cycles. Instead, he advocated a “middle ground” approach between early diagnosis and potentially labeling a girl with a false positive diagnosis.
Postmenarcheal girls who are amenorrheic for 2 months could be assessed for signs of PCOS or pregnancy, and whether she is generally in good health, he said. “However, for example, if she remains amenorrheic for more than 90 days or if two successive periods are more than 2 months apart, laboratory screening would be reasonable.”
PCOS is “a diagnosis of exclusion for which referral to a specialist is advisable” to rule out other conditions such as non-classic congenital adrenal hyperplasia, hyperprolactinemia, endogenous Cushing syndrome, thyroid dysfunction, and virilizing tumors, said Dr. Rosenfield.
However, PCOS accounts for most cases of adolescent hyperandrogenism. The symptomatic treatment of early postmenarcheal girls at risk of PCOS is recommended to manage menstrual abnormality, hirsutism, acne, or obesity, and these girls should be reassessed by the time they finish high school after a 3-month treatment withdrawal period, he emphasized.
Dr. Rosenfield had no relevant financial conflicts to disclose.
SOURCE: Rosenfield RL. J Pediatr Adolesc Gynecol. 2020 June 29. doi: 10.1016/j.jpag.2020.06.017.
FROM THE JOURNAL OF PEDIATRIC AND ADOLESCENT GYNECOLOGY
What have we learned from COVID?
In 2015, I proposed virtual care for the division of adolescent medicine, to the administration of our Midwestern children and adolescent hospital; they gladly listened and accepted a copy of the resources I provided. Virtual care was acknowledged to be the future direction of our and other organizations.
Four years later, virtual visits were introduced in the pediatric urgent care, but with little usability as families were slow to adopt this new form of medicine. Fast forward to the COVID-19 crisis in March 2020, and virtual medicine was the only option to meet the needs of patients and to stop the economic consequences. Unfortunately, the expedited rollout at our and many other hospitals may have resulted in limited program development and a lack of shared best practices.
Since March 2020, both patients and medical providers have accepted virtual care, but we now have an opportunity to review some of the limitations to offering virtual care. Work in primary care centers may see limitations using virtual medicine to meet the needs of all patients. Take into consideration the ability to offer confidential care. Confidential care has been a challenge virtually. For example, while completing a virtual visit with a 19-year-old female, it was apparent she was not alone and when asked a benign question the commotion in the background told the real story. The young woman began to laugh and said, “That was my dad running out of the room.” Despite requesting that parents leave the call, they can be heard within earshot of the caller.
On a televisit, written words appear backwards on the video, requiring written questions to be mirror images. When asking questions meant to be confidential, we have used note cards with a question mark. Verbal directions asking the adolescent to give a thumbs up or down to answer the question are required to maintain privacy from others in the room. If the patient responds thumbs up, this leads to additional questions with note cards. Although not ideal, this process gets to the answers, and the adolescent can disclose confidential information without concern about being overheard. Child abuse and neglect professionals have found similar challenges talking to caregivers or children as they are uncertain if others in the home are out of the screen but listening to the questions or prompting responses.
Obtaining vitals may be restricted and picking up hypertension or changes in weight has been limited to face to face visits. To continue to provide virtual care will require screening stations. I foresee a kiosk at the grocery or drugstore with a computer and the ability to obtain vitals or portions of an exam such as heart and lung evaluations. Patients could go at their convenience and the results could be sent to their providers. Technology already exists to use a cell phone to take photos of a toddler’s sore ear drum, and to obtain basic pulse oximetry and ECG, but these have a cost and may be available only to those able to afford these tools.
Billing issues have developed when patients go to a lab on the same day as a virtual visit. Completing a virtual visit for a sore throat thought to be streptococcal pharyngitis should not be finalized without access to a streptococcal throat swab. Until families have home kits to evaluate for strep throat, the families must bring the patient to a clinic or lab to obtain a pharyngeal culture. Furthermore, insurance reimbursement standards will need to be set for ongoing virtual health to become a sustainable option.
Workflows have been disrupted by balancing face to face visits with virtual visits. Unless the virtual visit has been set up for the medical team to access immediately, there are delays accessing the virtual platform, resulting in unnecessary gaps in care. Arranging schedules to separate face to face visits from virtual visits offers more efficiency. Creating a block of virtual visits separated from face-to-face visits or assigning providers to virtual-only schedules may be the best option for an efficient clinic flow. Telemedicine visit templates may need to be created as virtual visits become standard practice.
At present, virtual visits can only be offered to English-speaking patients. The inability to offer translators limits access to a small number of patients. Given COVID-19’s impact on the underserved communities, having a safe resource to reach these patients has been limited, leaving face-to-face visits as their only option. Requiring a face-to-face visit during peak illness has placed patients at risk. They have refused health care as opposed to exposure to the illness in health care settings.
We have innovative opportunities to create a new health care system. Despite the initial struggles with the adoption of virtual care, patients and providers have begun embracing the technology. Best practices and shared resources will be required to have a successful system before brick and mortar organizations can be reduced or insurance companies create their own health care systems which can branch across state lines.
Ms. Thew is the medical director of the department of adolescent medicine at Children’s Wisconsin in Milwaukee. She said she had no relevant financial disclosures. Email her at [email protected].
The article was updated 7/17/2020.
In 2015, I proposed virtual care for the division of adolescent medicine, to the administration of our Midwestern children and adolescent hospital; they gladly listened and accepted a copy of the resources I provided. Virtual care was acknowledged to be the future direction of our and other organizations.
Four years later, virtual visits were introduced in the pediatric urgent care, but with little usability as families were slow to adopt this new form of medicine. Fast forward to the COVID-19 crisis in March 2020, and virtual medicine was the only option to meet the needs of patients and to stop the economic consequences. Unfortunately, the expedited rollout at our and many other hospitals may have resulted in limited program development and a lack of shared best practices.
Since March 2020, both patients and medical providers have accepted virtual care, but we now have an opportunity to review some of the limitations to offering virtual care. Work in primary care centers may see limitations using virtual medicine to meet the needs of all patients. Take into consideration the ability to offer confidential care. Confidential care has been a challenge virtually. For example, while completing a virtual visit with a 19-year-old female, it was apparent she was not alone and when asked a benign question the commotion in the background told the real story. The young woman began to laugh and said, “That was my dad running out of the room.” Despite requesting that parents leave the call, they can be heard within earshot of the caller.
On a televisit, written words appear backwards on the video, requiring written questions to be mirror images. When asking questions meant to be confidential, we have used note cards with a question mark. Verbal directions asking the adolescent to give a thumbs up or down to answer the question are required to maintain privacy from others in the room. If the patient responds thumbs up, this leads to additional questions with note cards. Although not ideal, this process gets to the answers, and the adolescent can disclose confidential information without concern about being overheard. Child abuse and neglect professionals have found similar challenges talking to caregivers or children as they are uncertain if others in the home are out of the screen but listening to the questions or prompting responses.
Obtaining vitals may be restricted and picking up hypertension or changes in weight has been limited to face to face visits. To continue to provide virtual care will require screening stations. I foresee a kiosk at the grocery or drugstore with a computer and the ability to obtain vitals or portions of an exam such as heart and lung evaluations. Patients could go at their convenience and the results could be sent to their providers. Technology already exists to use a cell phone to take photos of a toddler’s sore ear drum, and to obtain basic pulse oximetry and ECG, but these have a cost and may be available only to those able to afford these tools.
Billing issues have developed when patients go to a lab on the same day as a virtual visit. Completing a virtual visit for a sore throat thought to be streptococcal pharyngitis should not be finalized without access to a streptococcal throat swab. Until families have home kits to evaluate for strep throat, the families must bring the patient to a clinic or lab to obtain a pharyngeal culture. Furthermore, insurance reimbursement standards will need to be set for ongoing virtual health to become a sustainable option.
Workflows have been disrupted by balancing face to face visits with virtual visits. Unless the virtual visit has been set up for the medical team to access immediately, there are delays accessing the virtual platform, resulting in unnecessary gaps in care. Arranging schedules to separate face to face visits from virtual visits offers more efficiency. Creating a block of virtual visits separated from face-to-face visits or assigning providers to virtual-only schedules may be the best option for an efficient clinic flow. Telemedicine visit templates may need to be created as virtual visits become standard practice.
At present, virtual visits can only be offered to English-speaking patients. The inability to offer translators limits access to a small number of patients. Given COVID-19’s impact on the underserved communities, having a safe resource to reach these patients has been limited, leaving face-to-face visits as their only option. Requiring a face-to-face visit during peak illness has placed patients at risk. They have refused health care as opposed to exposure to the illness in health care settings.
We have innovative opportunities to create a new health care system. Despite the initial struggles with the adoption of virtual care, patients and providers have begun embracing the technology. Best practices and shared resources will be required to have a successful system before brick and mortar organizations can be reduced or insurance companies create their own health care systems which can branch across state lines.
Ms. Thew is the medical director of the department of adolescent medicine at Children’s Wisconsin in Milwaukee. She said she had no relevant financial disclosures. Email her at [email protected].
The article was updated 7/17/2020.
In 2015, I proposed virtual care for the division of adolescent medicine, to the administration of our Midwestern children and adolescent hospital; they gladly listened and accepted a copy of the resources I provided. Virtual care was acknowledged to be the future direction of our and other organizations.
Four years later, virtual visits were introduced in the pediatric urgent care, but with little usability as families were slow to adopt this new form of medicine. Fast forward to the COVID-19 crisis in March 2020, and virtual medicine was the only option to meet the needs of patients and to stop the economic consequences. Unfortunately, the expedited rollout at our and many other hospitals may have resulted in limited program development and a lack of shared best practices.
Since March 2020, both patients and medical providers have accepted virtual care, but we now have an opportunity to review some of the limitations to offering virtual care. Work in primary care centers may see limitations using virtual medicine to meet the needs of all patients. Take into consideration the ability to offer confidential care. Confidential care has been a challenge virtually. For example, while completing a virtual visit with a 19-year-old female, it was apparent she was not alone and when asked a benign question the commotion in the background told the real story. The young woman began to laugh and said, “That was my dad running out of the room.” Despite requesting that parents leave the call, they can be heard within earshot of the caller.
On a televisit, written words appear backwards on the video, requiring written questions to be mirror images. When asking questions meant to be confidential, we have used note cards with a question mark. Verbal directions asking the adolescent to give a thumbs up or down to answer the question are required to maintain privacy from others in the room. If the patient responds thumbs up, this leads to additional questions with note cards. Although not ideal, this process gets to the answers, and the adolescent can disclose confidential information without concern about being overheard. Child abuse and neglect professionals have found similar challenges talking to caregivers or children as they are uncertain if others in the home are out of the screen but listening to the questions or prompting responses.
Obtaining vitals may be restricted and picking up hypertension or changes in weight has been limited to face to face visits. To continue to provide virtual care will require screening stations. I foresee a kiosk at the grocery or drugstore with a computer and the ability to obtain vitals or portions of an exam such as heart and lung evaluations. Patients could go at their convenience and the results could be sent to their providers. Technology already exists to use a cell phone to take photos of a toddler’s sore ear drum, and to obtain basic pulse oximetry and ECG, but these have a cost and may be available only to those able to afford these tools.
Billing issues have developed when patients go to a lab on the same day as a virtual visit. Completing a virtual visit for a sore throat thought to be streptococcal pharyngitis should not be finalized without access to a streptococcal throat swab. Until families have home kits to evaluate for strep throat, the families must bring the patient to a clinic or lab to obtain a pharyngeal culture. Furthermore, insurance reimbursement standards will need to be set for ongoing virtual health to become a sustainable option.
Workflows have been disrupted by balancing face to face visits with virtual visits. Unless the virtual visit has been set up for the medical team to access immediately, there are delays accessing the virtual platform, resulting in unnecessary gaps in care. Arranging schedules to separate face to face visits from virtual visits offers more efficiency. Creating a block of virtual visits separated from face-to-face visits or assigning providers to virtual-only schedules may be the best option for an efficient clinic flow. Telemedicine visit templates may need to be created as virtual visits become standard practice.
At present, virtual visits can only be offered to English-speaking patients. The inability to offer translators limits access to a small number of patients. Given COVID-19’s impact on the underserved communities, having a safe resource to reach these patients has been limited, leaving face-to-face visits as their only option. Requiring a face-to-face visit during peak illness has placed patients at risk. They have refused health care as opposed to exposure to the illness in health care settings.
We have innovative opportunities to create a new health care system. Despite the initial struggles with the adoption of virtual care, patients and providers have begun embracing the technology. Best practices and shared resources will be required to have a successful system before brick and mortar organizations can be reduced or insurance companies create their own health care systems which can branch across state lines.
Ms. Thew is the medical director of the department of adolescent medicine at Children’s Wisconsin in Milwaukee. She said she had no relevant financial disclosures. Email her at [email protected].
The article was updated 7/17/2020.
Zika virus syndrome may adversely affect children normocephalic at birth
Microcephaly may be the hallmark of congenital Zika virus syndrome, but neurologic abnormalities also are common in normocephalic children exposed to the virus in utero, according to data from a large pediatric referral center in Rio de Janeiro.
The retrospective analysis demonstrated that there is a “spectrum of clinical manifestations” in children with congenital Zika virus syndrome, including those who “had initially been perceived as developing normally based on [head circumference],” Jessica S. Cranston, a medical student at the University of California, Los Angeles, and associates wrote in JAMA Network Open.
Previous studies have described the poor clinical outcomes in Zika virus–exposed infants with microcephaly, but the current analysis evaluated head circumference (HC) as a continuous variable and stratified outcomes according to the presence or absence of microcephaly, they explained.
In the cohort of 215 children referred to Instituto Fernandes Figueira who had laboratory-confirmed antenatal Zika virus exposure, 53 had microcephaly (cephalic perimeter z score of less than –2 standard deviations) and 162 were normocephalic, the investigators said.
The children were evaluated monthly for the first 6 months of life and then every 3 months. Neurodevelopmental evaluation with the Bayley Scales of Infant and Toddler Development, Third Edition, between 6 months and 3 years of age showed that all of those with microcephaly had abnormal neuromotor findings. All but two of the children with microcephaly had abnormal neuroimaging results, and 38 (72%) had failure to thrive, they reported.
Among the children with normocephaly at birth, 68% had abnormal neurologic findings, including hyperreflexia (27%), abnormal tone (39%), and other congenital neuromotor signs (42%). Results of neuroimaging results, primarily in the form of transfontanelle ultrasonography, were abnormal in 29% of children with normocephaly.
“Infants with a larger birth HC, within the normocephalic range (±2 SDs), had higher overall neurodevelopmental scores on the Bayley-III assessment,” Sarah B. Mulkey, MD, PhD, said in an invited commentary, “whereas infants with a smaller birth HC within the normocephalic range had lower scores in the domains of cognitive and language functions.”
If HC measurements could be combined with early neurologic data such as the results of neuroimaging or a neurological exam, she suggested, it might provide “a practical tool to help determine risk for adverse clinical outcomes in a [Zika virus–]exposed infant at birth that can be widely used in a variety of follow-up settings.”
In nutritional assessments performed for 143 children with normocephaly, 51% had failure to thrive “because of neurologic repercussions leading to poor feeding,” Ms. Cranston and associates wrote, adding that 15 of the 73 (21%) infants with normocephaly and failure to thrive developed secondary microcephaly.
Altogether, 17 of the 162 (10.5%) children with normocephaly developed microcephaly during the follow-up, with the reverse – microcephaly resolving in infants who were microcephalic at birth – occurring in 4 of the 53 (7.5%) affected infants, indicating that “head circumference was not static,” they said.
“The trajectory of head growth is critical,” said Dr. Mulkey of the Prenatal Pediatrics Institute at Children’s National Hospital in Washington. “The neurologic outcome of a child who develops postnatal microcephaly would be very concerning compared with an infant who is born with normocephaly and maintains a steady HC percentile over time.”
HC is just one piece of the puzzle, however, since children with Zika virus syndrome may exhibit “a variety of manifestations and outcomes.” This lack of certainty suggests that “careful monitoring and evaluation of children with suspected exposure is essential for ensuring early detection of possible disabilities and referral to interventional services,” the investigators wrote.
The findings of this study “are both highly statistically significant and clinically significant,”said Kevin T. Powell, MD, PhD, a pediatric hospitalist and clinical ethics consultant living in St. Louis who was not associated with the study.
“While outcomes at birth are dichotomized into those with and without microcephaly, the developmental outcomes measured at 3 years of age are on a spectrum. ... Those with microcephaly tend to be more severely affected, but many infants with small but normal-sized heads are also mild to moderately impacted. The flip side is that 64% of infected babies ended up with average or better development” based on Bayley-III evaluations, said Dr. Powell, who is a member of the Pediatric News editorial advisory board.
The study was funded by grants from the National Institute of Allergy and Infectious Diseases, the National Eye Institute, and the Thrasher Foundation and by awards from Brazil’s National Council of Scientific and Technological Development; Fundação de Amparo à Pesquisa do Estado do Rio de Janeiro. Individual investigators received fees and grants from these and other organizations.
Dr. Mulkey received a contract from the Centers for Disease Control and Prevention for technical expertise for Zika virus studies and received support for Zika studies from the Thrasher Research Fund. Dr. Powell had no relevant financial disclosures.
SOURCE: Cranston JS et al. JAMA Netw Open. 2020 July 7;3(7):e209303.
Microcephaly may be the hallmark of congenital Zika virus syndrome, but neurologic abnormalities also are common in normocephalic children exposed to the virus in utero, according to data from a large pediatric referral center in Rio de Janeiro.
The retrospective analysis demonstrated that there is a “spectrum of clinical manifestations” in children with congenital Zika virus syndrome, including those who “had initially been perceived as developing normally based on [head circumference],” Jessica S. Cranston, a medical student at the University of California, Los Angeles, and associates wrote in JAMA Network Open.
Previous studies have described the poor clinical outcomes in Zika virus–exposed infants with microcephaly, but the current analysis evaluated head circumference (HC) as a continuous variable and stratified outcomes according to the presence or absence of microcephaly, they explained.
In the cohort of 215 children referred to Instituto Fernandes Figueira who had laboratory-confirmed antenatal Zika virus exposure, 53 had microcephaly (cephalic perimeter z score of less than –2 standard deviations) and 162 were normocephalic, the investigators said.
The children were evaluated monthly for the first 6 months of life and then every 3 months. Neurodevelopmental evaluation with the Bayley Scales of Infant and Toddler Development, Third Edition, between 6 months and 3 years of age showed that all of those with microcephaly had abnormal neuromotor findings. All but two of the children with microcephaly had abnormal neuroimaging results, and 38 (72%) had failure to thrive, they reported.
Among the children with normocephaly at birth, 68% had abnormal neurologic findings, including hyperreflexia (27%), abnormal tone (39%), and other congenital neuromotor signs (42%). Results of neuroimaging results, primarily in the form of transfontanelle ultrasonography, were abnormal in 29% of children with normocephaly.
“Infants with a larger birth HC, within the normocephalic range (±2 SDs), had higher overall neurodevelopmental scores on the Bayley-III assessment,” Sarah B. Mulkey, MD, PhD, said in an invited commentary, “whereas infants with a smaller birth HC within the normocephalic range had lower scores in the domains of cognitive and language functions.”
If HC measurements could be combined with early neurologic data such as the results of neuroimaging or a neurological exam, she suggested, it might provide “a practical tool to help determine risk for adverse clinical outcomes in a [Zika virus–]exposed infant at birth that can be widely used in a variety of follow-up settings.”
In nutritional assessments performed for 143 children with normocephaly, 51% had failure to thrive “because of neurologic repercussions leading to poor feeding,” Ms. Cranston and associates wrote, adding that 15 of the 73 (21%) infants with normocephaly and failure to thrive developed secondary microcephaly.
Altogether, 17 of the 162 (10.5%) children with normocephaly developed microcephaly during the follow-up, with the reverse – microcephaly resolving in infants who were microcephalic at birth – occurring in 4 of the 53 (7.5%) affected infants, indicating that “head circumference was not static,” they said.
“The trajectory of head growth is critical,” said Dr. Mulkey of the Prenatal Pediatrics Institute at Children’s National Hospital in Washington. “The neurologic outcome of a child who develops postnatal microcephaly would be very concerning compared with an infant who is born with normocephaly and maintains a steady HC percentile over time.”
HC is just one piece of the puzzle, however, since children with Zika virus syndrome may exhibit “a variety of manifestations and outcomes.” This lack of certainty suggests that “careful monitoring and evaluation of children with suspected exposure is essential for ensuring early detection of possible disabilities and referral to interventional services,” the investigators wrote.
The findings of this study “are both highly statistically significant and clinically significant,”said Kevin T. Powell, MD, PhD, a pediatric hospitalist and clinical ethics consultant living in St. Louis who was not associated with the study.
“While outcomes at birth are dichotomized into those with and without microcephaly, the developmental outcomes measured at 3 years of age are on a spectrum. ... Those with microcephaly tend to be more severely affected, but many infants with small but normal-sized heads are also mild to moderately impacted. The flip side is that 64% of infected babies ended up with average or better development” based on Bayley-III evaluations, said Dr. Powell, who is a member of the Pediatric News editorial advisory board.
The study was funded by grants from the National Institute of Allergy and Infectious Diseases, the National Eye Institute, and the Thrasher Foundation and by awards from Brazil’s National Council of Scientific and Technological Development; Fundação de Amparo à Pesquisa do Estado do Rio de Janeiro. Individual investigators received fees and grants from these and other organizations.
Dr. Mulkey received a contract from the Centers for Disease Control and Prevention for technical expertise for Zika virus studies and received support for Zika studies from the Thrasher Research Fund. Dr. Powell had no relevant financial disclosures.
SOURCE: Cranston JS et al. JAMA Netw Open. 2020 July 7;3(7):e209303.
Microcephaly may be the hallmark of congenital Zika virus syndrome, but neurologic abnormalities also are common in normocephalic children exposed to the virus in utero, according to data from a large pediatric referral center in Rio de Janeiro.
The retrospective analysis demonstrated that there is a “spectrum of clinical manifestations” in children with congenital Zika virus syndrome, including those who “had initially been perceived as developing normally based on [head circumference],” Jessica S. Cranston, a medical student at the University of California, Los Angeles, and associates wrote in JAMA Network Open.
Previous studies have described the poor clinical outcomes in Zika virus–exposed infants with microcephaly, but the current analysis evaluated head circumference (HC) as a continuous variable and stratified outcomes according to the presence or absence of microcephaly, they explained.
In the cohort of 215 children referred to Instituto Fernandes Figueira who had laboratory-confirmed antenatal Zika virus exposure, 53 had microcephaly (cephalic perimeter z score of less than –2 standard deviations) and 162 were normocephalic, the investigators said.
The children were evaluated monthly for the first 6 months of life and then every 3 months. Neurodevelopmental evaluation with the Bayley Scales of Infant and Toddler Development, Third Edition, between 6 months and 3 years of age showed that all of those with microcephaly had abnormal neuromotor findings. All but two of the children with microcephaly had abnormal neuroimaging results, and 38 (72%) had failure to thrive, they reported.
Among the children with normocephaly at birth, 68% had abnormal neurologic findings, including hyperreflexia (27%), abnormal tone (39%), and other congenital neuromotor signs (42%). Results of neuroimaging results, primarily in the form of transfontanelle ultrasonography, were abnormal in 29% of children with normocephaly.
“Infants with a larger birth HC, within the normocephalic range (±2 SDs), had higher overall neurodevelopmental scores on the Bayley-III assessment,” Sarah B. Mulkey, MD, PhD, said in an invited commentary, “whereas infants with a smaller birth HC within the normocephalic range had lower scores in the domains of cognitive and language functions.”
If HC measurements could be combined with early neurologic data such as the results of neuroimaging or a neurological exam, she suggested, it might provide “a practical tool to help determine risk for adverse clinical outcomes in a [Zika virus–]exposed infant at birth that can be widely used in a variety of follow-up settings.”
In nutritional assessments performed for 143 children with normocephaly, 51% had failure to thrive “because of neurologic repercussions leading to poor feeding,” Ms. Cranston and associates wrote, adding that 15 of the 73 (21%) infants with normocephaly and failure to thrive developed secondary microcephaly.
Altogether, 17 of the 162 (10.5%) children with normocephaly developed microcephaly during the follow-up, with the reverse – microcephaly resolving in infants who were microcephalic at birth – occurring in 4 of the 53 (7.5%) affected infants, indicating that “head circumference was not static,” they said.
“The trajectory of head growth is critical,” said Dr. Mulkey of the Prenatal Pediatrics Institute at Children’s National Hospital in Washington. “The neurologic outcome of a child who develops postnatal microcephaly would be very concerning compared with an infant who is born with normocephaly and maintains a steady HC percentile over time.”
HC is just one piece of the puzzle, however, since children with Zika virus syndrome may exhibit “a variety of manifestations and outcomes.” This lack of certainty suggests that “careful monitoring and evaluation of children with suspected exposure is essential for ensuring early detection of possible disabilities and referral to interventional services,” the investigators wrote.
The findings of this study “are both highly statistically significant and clinically significant,”said Kevin T. Powell, MD, PhD, a pediatric hospitalist and clinical ethics consultant living in St. Louis who was not associated with the study.
“While outcomes at birth are dichotomized into those with and without microcephaly, the developmental outcomes measured at 3 years of age are on a spectrum. ... Those with microcephaly tend to be more severely affected, but many infants with small but normal-sized heads are also mild to moderately impacted. The flip side is that 64% of infected babies ended up with average or better development” based on Bayley-III evaluations, said Dr. Powell, who is a member of the Pediatric News editorial advisory board.
The study was funded by grants from the National Institute of Allergy and Infectious Diseases, the National Eye Institute, and the Thrasher Foundation and by awards from Brazil’s National Council of Scientific and Technological Development; Fundação de Amparo à Pesquisa do Estado do Rio de Janeiro. Individual investigators received fees and grants from these and other organizations.
Dr. Mulkey received a contract from the Centers for Disease Control and Prevention for technical expertise for Zika virus studies and received support for Zika studies from the Thrasher Research Fund. Dr. Powell had no relevant financial disclosures.
SOURCE: Cranston JS et al. JAMA Netw Open. 2020 July 7;3(7):e209303.
FROM JAMA NETWORK OPEN