Pediatrics

Molluscum contagiosum (MC), which is caused by a DNA virus in the Poxviridae family, is a common viral skin infection that primarily affects children.^1-4 The reported incidence and prevalence of MC exhibit notable geographic variation. Worldwide, annual incidence rates per 1000 individuals range from 3.1 to 25, and prevalence ranges from 0.27% to 34.6%.^2-7

Molluscum contagiosum is diagnosed clinically and typically manifests as smooth, flesh-colored papules measuring 2 to 6 mm in diameter with central umbilication. It can manifest as a single lesion or multiple clustered lesions, or in a disseminated pattern. The primary mode of transmission is through contact with skin, lesions, or contaminated personal items, or via self-inoculation. The majority of cases are asymptomatic, but in some patients, MC may be associated with pruritus, tenderness, erythema, or irritation. When present, secondary bacterial infections can cause localized inflammation and pain.^1,3,4 The pathogenesis hinges on MC virus replication within keratinocytes, disrupting cellular differentiation and keratinization. The virus persists in the host by influencing the immune response through various mechanisms, including interference with signaling pathways, apoptosis inhibition, and antigen presentation disruption.^3,4

Molluscum contagiosum typically follows a self-limiting trajectory, resolving over several months to 2 years.^3,4 The resolution timeframe is intricately linked to variables such as the patient’s immune profile, lesion burden, and treatment approach. For symptomatic lesions, a variety of treatment options have been described, including physical ablation (eg, cryotherapy, curettage) and topical agents such as potassium hydroxide, cantharidin, imiquimod, and salicylic acid.^3,4,8,9

Atopic dermatitis (AD) is a common chronic relapsing inflammatory skin disorder. In the United States, its prevalence ranges from 15% to 30% in children and from 2% to 10% in adults, with ongoing evidence of a growing global incidence.^10-14 While AD can emerge at any age, typical onset is during early childhood. The clinical manifestation of AD includes a spectrum of eczematous features, often accompanied by persistent itching. The pathogenesis is multifactorial, involving a complex interplay of genetic, immunologic, and environmental factors. Key contributors to this multifaceted process encompass a compromised epidermal barrier, alterations in the skin microbiome, and an immune dysregulation promoting a type 2 immune response. Epidermal barrier dysfunction can be attributed to various factors, including diminished ceramide production, altered lipid composition, the release of inflammatory mediators, and mechanical damage from the persistent itch-scratch cycle.^10-13,15 These factors or their interplay may enhance the susceptibility of patients with AD to infections. 

Several studies conducted across various geographic regions examining the relationship between MC and AD have reported variable findings.^2,6,7,16-21 Published studies have reported a prevalence of AD in children with MC ranging from 13.2% to 43%.^2,6,7,16-21 Although some studies suggest a higher rate of atopy in patients with MC, not all research has confirmed this association.^16,21 Dohil et al² reported a greater number of MC lesions in children with AD than those without an atopic background. Silverberg²⁰ reported that in 10% (5/50) of children with MC, the onset of AD was triggered, and in 22% (11/50) MC was associated with flares of pre-existing AD.

In this study, we aimed to assess MC infection rates in children with AD, analyze the epidemiologic aspects and severity differences between atopic children with and without MC infection, and compare data from atopic and nonatopic children with MC.

Methods

In this retrospective cohort study, we analyzed the medical records of pediatric patients diagnosed with MC, AD, or both conditions at an outpatient dermatology practice in Netanya, HaSharon, Israel, from September 2013 to August 2022. Data were collected from the electronic medical records and included patient demographics, the clinical presentation of MC and/or AD at diagnosis, and the duration of both conditions. Only patients with complete data and at least 6 months of follow-up were included. Key epidemiologic characteristics assessed included patient sex, age at the initial visit, and age at the onset of MC and/or AD. Diagnoses of MC and AD were established through clinical examinations conducted by dermatologists. The clinical evaluation of AD encompassed the assessment of body surface area involvement (categorized as <5%, 5%-10%, or >10%). Atopic dermatitis severity was classified as mild, moderate, or severe using the validated Investigator Global Assessment Scale for Atopic Dermatitis.²² Clinical evaluation of MC included assessment of the number of lesions (categorized as ≤4, 5-9, or ≥10), presence of inflammatory lesions, and resolution times for individual lesions (categorized as <1 week, several weeks, or unknown), as well as the overall resolution time for all lesions (categorized as <6 months, 6-12 months, 13-18 months, or >18 months). The temporal relationship between the appearance of MC and AD also was assessed.

Statistical Analysis—Numbers and percentages were used for categorical variables. Continuous variables were represented by mean and standard deviation. Categorical variables were compared using the χ² test, and continuous variables between groups were compared using the Student t test. All statistical tests were 2-sided, with statistical significance defined as P≤.05. Statistical analysis was performed using SPSS software version 28 (IBM).

Results

Study Population—A total of 610 children were included in the study; 263 (43%) were female and 347 (57%) were male. The patients ranged in age from 4 months to 10 years, with a mean (SD) age of 4.87 (1.82) years. Five hundred fifty-six (91%) patients had AD, and 336 (55%) had MC. Within this cohort, 274 (45%) children had AD only, 54 (9%) had MC only, and 282 (46%) had both AD and MC. Regarding the temporal sequence, among the 282 children who had both AD and MC, AD preceded MC in 203 (72%) cases, both conditions were diagnosed concomitantly in 43 (15%) cases, and MC preceded AD in 36 (13%) cases. For cases in which the MC diagnosis followed the diagnosis of AD, the mean (SD) time between each diagnosis was 3.17 (1.5) years.

Comparison of Atopic and Nonatopic Children With MC—Although a higher proportion of males were diagnosed with MC (with or without concurrent AD), the differences in sex distribution between the 2 groups did not reach statistical significance. Among all children with MC, the majority (81.5% [274/336]) were aged 1 to 6 years at presentation. Patients with MC as their sole diagnosis had a similar mean age compared with those with concurrent AD. However, a detailed age subgroup analysis revealed a notable distinction: in the group with MC as the sole diagnosis, the majority (95% [51/54]) were younger than 7 years. In contrast, in the combined MC and AD group, MC manifested across a wider age range, with 21% (58/282) of patients being older than 7 years. In MC cases associated with AD, a notably higher lesion count and increased local inflammatory response were observed compared to those without AD. The time for complete resolution of all MC lesions was substantially prolonged in patients with comorbid AD. Specifically, 93% (50/54) of patients with MC without comorbid AD achieved full resolution within 1 year, whereas 52% (146/282) of patients with comorbid AD required more than 1 year for resolution (eTable 1). 

Comparison of Atopic Children With and Without MC—Sex, age distribution, and disease duration showed no differences between atopic patients with and without MC. Atopic patients with MC exhibited greater body surface area involvement and higher validated Investigator Global Assessment Scale for Atopic Dermatitis scores compared to atopic patients without MC (eTable 2).

Comment

This study examined the relationship between MC and AD in pediatric patients, revealing a notable correlation and yielding valuable epidemiologic and clinical insights. Consistent with previous research, our study demonstrated a high prevalence of AD in children with MC.^2,6,7,16-21 Previous studies indicated AD rates of 13% to 43% in pediatric patients with MC, whereas our study found a higher prevalence (84%), signifying a substantial majority of patients with MC in our cohort had AD. This discrepancy arises from factors such as demographic, genetic, and environmental differences, along with differences in access to medical care, referral practices, and diagnostic approaches across health care systems.¹⁴

Our temporal analysis of MC and AD diagnoses offers important insights. In the majority (72% [203/282]) of cases, the diagnosis of AD preceded MC, supporting previous research suggesting that the underlying pathophysiology of AD heightens susceptibility to MC.^15,17-20 Less frequently, MC was diagnosed before or concurrently with AD, indicating that MC may occasionally trigger or exacerbate milder or undiagnosed AD, as previously proposed.²⁰

A notable finding in our study was the expanded age range for MC onset in patients with AD, encompassing older age groups compared to patients with MC as their sole diagnosis, possibly due to persistent immune dysregulation. To the best of our knowledge, this specific observation has not been systematically reported or documented in prior cohort studies. Visible skin lesions of MC may have a psychological impact on patients, influencing self-consciousness and causing embarrassment and emotional distress. This may be more pronounced in older children, who are more aware of their appearance and social perceptions.^23-25 These considerations should play a role in the management of MC. 

Our study revealed that children with AD and MC displayed higher lesion counts, increased local inflammatory responses, and a more protracted resolution period compared to nonatopic children. In more than 50% of children with AD, MC took more than 1 year for resolution, whereas the majority of those without AD achieved resolution within 1 year. These findings may be attributed to AD-related immune dysregulation, influencing the natural course of MC. Consequently, it suggests that while nonatopic children with MC usually are managed through observation, atopic patients may benefit from an intervention-oriented approach. 

Comparing atopic patients with and without MC showed a heightened occurrence of severe and extensive AD among those with concurrent MC. Several factors could contribute to this observation. On one hand, there could be a direct association between the extent and severity of AD, leading to an elevated susceptibility to MC. Conversely, MC might exacerbate immunologic dysregulation and intensify skin inflammation in atopic individuals.²⁰ Additionally, itching related to both disorders may exacerbate inflammation and compromise the epidermal barrier, facilitating the spread of MC. This interplay suggests that each condition exacerbates the other in a self-reinforcing cycle. The importance of patient and caregiver education is underscored by recognizing these interactions. To manage both conditions effectively, health care providers should counsel patients and caregivers on maintaining proper skin care practices such as gentle cleansing with mild, fragrance-free products, regular moisturization, and avoidance of irritants, encourage them to avoid scratching, and recommend adopting an active treatment approach.

Our study had notable strengths. Firstly, a substantial sample size enhanced the statistical reliability of our findings. Additionally, valuable insights into the epidemiology and clinical aspects of AD and MC were obtained by utilizing real-world data from an outpatient dermatology practice. In our study, clinical evaluations covered body surface area involvement and disease severity for AD while also assessing lesion counts and the presence of inflammatory lesions for MC. This comprehensive approach facilitated a thorough analysis of both conditions. The extended data collection period not only allowed for observation of their clinical course and duration, but also enabled a detailed assessment of their interplay.

Our study also had several limitations. Primarily, its retrospective design relied on the accuracy and comprehensiveness of medical records, which may have introduced bias. The exclusion of some patients due to incomplete data further increased the potential for selection bias. Additionally, this study was conducted in a single outpatient dermatology practice in Israel, resulting in a study population composed predominantly of Jewish patients (94%), with a minority (6%) of Arab patients. Other ethnic groups, including Black, Asian, and Hispanic populations, were not represented. This reflects the country’s demographic composition rather than an intentional selection bias. However, the limited ethnic diversity reduces the generalizability of our findings. Differences in demographics, coding practices, health care utilization (eg, timeliness of seeking care, access to dermatology services), and treatment strategies also may impact the observed prevalence, clinical characteristics, and patient outcomes. Furthermore, while our study highlighted the potential advantages of a proactive treatment approach for atopic children with MC, it did not evaluate specific treatment protocols. Future research should aim to confirm the most efficacious therapeutic strategies for managing MC in atopic individuals and to include a more diverse population to better understand the applicability of findings across various ethnic groups.

Conclusion

Our study found a high prevalence of AD in children with MC and a strong bidirectional relationship between these conditions. Pediatric patients with AD display a broader age range for MC, greater lesion burden, increased local inflammatory responses, prolonged resolution times, and more extensive and severe AD.

Recognizing the interplay between MC and AD is crucial, highlighting the importance of health care providers educating patients and caregivers. Emphasizing skin hygiene, discouraging scratching, and implementing proactive treatment approaches can enhance the outcomes of both conditions. Further research into the underlying mechanisms of this association and effective therapeutic strategies for MC in atopic individuals is warranted.

Acknowledgments—The authors thank Zvi Segal, MD (Tel Hashomer, Israel) for his insightful contribution to the statistical analysis of the results. We would like to express our appreciation to the dedicated team of the dermatology practice in Netanya for the support throughout the performance of the study. Additionally, we thank all study participants and their parents for their participation and contribution to our research.

Molluscum contagiosum (MC), which is caused by a DNA virus in the Poxviridae family, is a common viral skin infection that primarily affects children.^1-4 The reported incidence and prevalence of MC exhibit notable geographic variation. Worldwide, annual incidence rates per 1000 individuals range from 3.1 to 25, and prevalence ranges from 0.27% to 34.6%.^2-7

Molluscum contagiosum is diagnosed clinically and typically manifests as smooth, flesh-colored papules measuring 2 to 6 mm in diameter with central umbilication. It can manifest as a single lesion or multiple clustered lesions, or in a disseminated pattern. The primary mode of transmission is through contact with skin, lesions, or contaminated personal items, or via self-inoculation. The majority of cases are asymptomatic, but in some patients, MC may be associated with pruritus, tenderness, erythema, or irritation. When present, secondary bacterial infections can cause localized inflammation and pain.^1,3,4 The pathogenesis hinges on MC virus replication within keratinocytes, disrupting cellular differentiation and keratinization. The virus persists in the host by influencing the immune response through various mechanisms, including interference with signaling pathways, apoptosis inhibition, and antigen presentation disruption.^3,4

Molluscum contagiosum typically follows a self-limiting trajectory, resolving over several months to 2 years.^3,4 The resolution timeframe is intricately linked to variables such as the patient’s immune profile, lesion burden, and treatment approach. For symptomatic lesions, a variety of treatment options have been described, including physical ablation (eg, cryotherapy, curettage) and topical agents such as potassium hydroxide, cantharidin, imiquimod, and salicylic acid.^3,4,8,9

Atopic dermatitis (AD) is a common chronic relapsing inflammatory skin disorder. In the United States, its prevalence ranges from 15% to 30% in children and from 2% to 10% in adults, with ongoing evidence of a growing global incidence.^10-14 While AD can emerge at any age, typical onset is during early childhood. The clinical manifestation of AD includes a spectrum of eczematous features, often accompanied by persistent itching. The pathogenesis is multifactorial, involving a complex interplay of genetic, immunologic, and environmental factors. Key contributors to this multifaceted process encompass a compromised epidermal barrier, alterations in the skin microbiome, and an immune dysregulation promoting a type 2 immune response. Epidermal barrier dysfunction can be attributed to various factors, including diminished ceramide production, altered lipid composition, the release of inflammatory mediators, and mechanical damage from the persistent itch-scratch cycle.^10-13,15 These factors or their interplay may enhance the susceptibility of patients with AD to infections. 

Several studies conducted across various geographic regions examining the relationship between MC and AD have reported variable findings.^2,6,7,16-21 Published studies have reported a prevalence of AD in children with MC ranging from 13.2% to 43%.^2,6,7,16-21 Although some studies suggest a higher rate of atopy in patients with MC, not all research has confirmed this association.^16,21 Dohil et al² reported a greater number of MC lesions in children with AD than those without an atopic background. Silverberg²⁰ reported that in 10% (5/50) of children with MC, the onset of AD was triggered, and in 22% (11/50) MC was associated with flares of pre-existing AD.

In this study, we aimed to assess MC infection rates in children with AD, analyze the epidemiologic aspects and severity differences between atopic children with and without MC infection, and compare data from atopic and nonatopic children with MC.

Methods

In this retrospective cohort study, we analyzed the medical records of pediatric patients diagnosed with MC, AD, or both conditions at an outpatient dermatology practice in Netanya, HaSharon, Israel, from September 2013 to August 2022. Data were collected from the electronic medical records and included patient demographics, the clinical presentation of MC and/or AD at diagnosis, and the duration of both conditions. Only patients with complete data and at least 6 months of follow-up were included. Key epidemiologic characteristics assessed included patient sex, age at the initial visit, and age at the onset of MC and/or AD. Diagnoses of MC and AD were established through clinical examinations conducted by dermatologists. The clinical evaluation of AD encompassed the assessment of body surface area involvement (categorized as <5%, 5%-10%, or >10%). Atopic dermatitis severity was classified as mild, moderate, or severe using the validated Investigator Global Assessment Scale for Atopic Dermatitis.²² Clinical evaluation of MC included assessment of the number of lesions (categorized as ≤4, 5-9, or ≥10), presence of inflammatory lesions, and resolution times for individual lesions (categorized as <1 week, several weeks, or unknown), as well as the overall resolution time for all lesions (categorized as <6 months, 6-12 months, 13-18 months, or >18 months). The temporal relationship between the appearance of MC and AD also was assessed.

Statistical Analysis—Numbers and percentages were used for categorical variables. Continuous variables were represented by mean and standard deviation. Categorical variables were compared using the χ² test, and continuous variables between groups were compared using the Student t test. All statistical tests were 2-sided, with statistical significance defined as P≤.05. Statistical analysis was performed using SPSS software version 28 (IBM).

Results

Study Population—A total of 610 children were included in the study; 263 (43%) were female and 347 (57%) were male. The patients ranged in age from 4 months to 10 years, with a mean (SD) age of 4.87 (1.82) years. Five hundred fifty-six (91%) patients had AD, and 336 (55%) had MC. Within this cohort, 274 (45%) children had AD only, 54 (9%) had MC only, and 282 (46%) had both AD and MC. Regarding the temporal sequence, among the 282 children who had both AD and MC, AD preceded MC in 203 (72%) cases, both conditions were diagnosed concomitantly in 43 (15%) cases, and MC preceded AD in 36 (13%) cases. For cases in which the MC diagnosis followed the diagnosis of AD, the mean (SD) time between each diagnosis was 3.17 (1.5) years.

Comparison of Atopic and Nonatopic Children With MC—Although a higher proportion of males were diagnosed with MC (with or without concurrent AD), the differences in sex distribution between the 2 groups did not reach statistical significance. Among all children with MC, the majority (81.5% [274/336]) were aged 1 to 6 years at presentation. Patients with MC as their sole diagnosis had a similar mean age compared with those with concurrent AD. However, a detailed age subgroup analysis revealed a notable distinction: in the group with MC as the sole diagnosis, the majority (95% [51/54]) were younger than 7 years. In contrast, in the combined MC and AD group, MC manifested across a wider age range, with 21% (58/282) of patients being older than 7 years. In MC cases associated with AD, a notably higher lesion count and increased local inflammatory response were observed compared to those without AD. The time for complete resolution of all MC lesions was substantially prolonged in patients with comorbid AD. Specifically, 93% (50/54) of patients with MC without comorbid AD achieved full resolution within 1 year, whereas 52% (146/282) of patients with comorbid AD required more than 1 year for resolution (eTable 1). 

Comparison of Atopic Children With and Without MC—Sex, age distribution, and disease duration showed no differences between atopic patients with and without MC. Atopic patients with MC exhibited greater body surface area involvement and higher validated Investigator Global Assessment Scale for Atopic Dermatitis scores compared to atopic patients without MC (eTable 2).

Comment

This study examined the relationship between MC and AD in pediatric patients, revealing a notable correlation and yielding valuable epidemiologic and clinical insights. Consistent with previous research, our study demonstrated a high prevalence of AD in children with MC.^2,6,7,16-21 Previous studies indicated AD rates of 13% to 43% in pediatric patients with MC, whereas our study found a higher prevalence (84%), signifying a substantial majority of patients with MC in our cohort had AD. This discrepancy arises from factors such as demographic, genetic, and environmental differences, along with differences in access to medical care, referral practices, and diagnostic approaches across health care systems.¹⁴

Our temporal analysis of MC and AD diagnoses offers important insights. In the majority (72% [203/282]) of cases, the diagnosis of AD preceded MC, supporting previous research suggesting that the underlying pathophysiology of AD heightens susceptibility to MC.^15,17-20 Less frequently, MC was diagnosed before or concurrently with AD, indicating that MC may occasionally trigger or exacerbate milder or undiagnosed AD, as previously proposed.²⁰

A notable finding in our study was the expanded age range for MC onset in patients with AD, encompassing older age groups compared to patients with MC as their sole diagnosis, possibly due to persistent immune dysregulation. To the best of our knowledge, this specific observation has not been systematically reported or documented in prior cohort studies. Visible skin lesions of MC may have a psychological impact on patients, influencing self-consciousness and causing embarrassment and emotional distress. This may be more pronounced in older children, who are more aware of their appearance and social perceptions.^23-25 These considerations should play a role in the management of MC. 

Our study revealed that children with AD and MC displayed higher lesion counts, increased local inflammatory responses, and a more protracted resolution period compared to nonatopic children. In more than 50% of children with AD, MC took more than 1 year for resolution, whereas the majority of those without AD achieved resolution within 1 year. These findings may be attributed to AD-related immune dysregulation, influencing the natural course of MC. Consequently, it suggests that while nonatopic children with MC usually are managed through observation, atopic patients may benefit from an intervention-oriented approach. 

Comparing atopic patients with and without MC showed a heightened occurrence of severe and extensive AD among those with concurrent MC. Several factors could contribute to this observation. On one hand, there could be a direct association between the extent and severity of AD, leading to an elevated susceptibility to MC. Conversely, MC might exacerbate immunologic dysregulation and intensify skin inflammation in atopic individuals.²⁰ Additionally, itching related to both disorders may exacerbate inflammation and compromise the epidermal barrier, facilitating the spread of MC. This interplay suggests that each condition exacerbates the other in a self-reinforcing cycle. The importance of patient and caregiver education is underscored by recognizing these interactions. To manage both conditions effectively, health care providers should counsel patients and caregivers on maintaining proper skin care practices such as gentle cleansing with mild, fragrance-free products, regular moisturization, and avoidance of irritants, encourage them to avoid scratching, and recommend adopting an active treatment approach.

Our study had notable strengths. Firstly, a substantial sample size enhanced the statistical reliability of our findings. Additionally, valuable insights into the epidemiology and clinical aspects of AD and MC were obtained by utilizing real-world data from an outpatient dermatology practice. In our study, clinical evaluations covered body surface area involvement and disease severity for AD while also assessing lesion counts and the presence of inflammatory lesions for MC. This comprehensive approach facilitated a thorough analysis of both conditions. The extended data collection period not only allowed for observation of their clinical course and duration, but also enabled a detailed assessment of their interplay.

Our study also had several limitations. Primarily, its retrospective design relied on the accuracy and comprehensiveness of medical records, which may have introduced bias. The exclusion of some patients due to incomplete data further increased the potential for selection bias. Additionally, this study was conducted in a single outpatient dermatology practice in Israel, resulting in a study population composed predominantly of Jewish patients (94%), with a minority (6%) of Arab patients. Other ethnic groups, including Black, Asian, and Hispanic populations, were not represented. This reflects the country’s demographic composition rather than an intentional selection bias. However, the limited ethnic diversity reduces the generalizability of our findings. Differences in demographics, coding practices, health care utilization (eg, timeliness of seeking care, access to dermatology services), and treatment strategies also may impact the observed prevalence, clinical characteristics, and patient outcomes. Furthermore, while our study highlighted the potential advantages of a proactive treatment approach for atopic children with MC, it did not evaluate specific treatment protocols. Future research should aim to confirm the most efficacious therapeutic strategies for managing MC in atopic individuals and to include a more diverse population to better understand the applicability of findings across various ethnic groups.

Conclusion

Our study found a high prevalence of AD in children with MC and a strong bidirectional relationship between these conditions. Pediatric patients with AD display a broader age range for MC, greater lesion burden, increased local inflammatory responses, prolonged resolution times, and more extensive and severe AD.

Recognizing the interplay between MC and AD is crucial, highlighting the importance of health care providers educating patients and caregivers. Emphasizing skin hygiene, discouraging scratching, and implementing proactive treatment approaches can enhance the outcomes of both conditions. Further research into the underlying mechanisms of this association and effective therapeutic strategies for MC in atopic individuals is warranted.

Acknowledgments—The authors thank Zvi Segal, MD (Tel Hashomer, Israel) for his insightful contribution to the statistical analysis of the results. We would like to express our appreciation to the dedicated team of the dermatology practice in Netanya for the support throughout the performance of the study. Additionally, we thank all study participants and their parents for their participation and contribution to our research.

Molluscum contagiosum (MC), which is caused by a DNA virus in the Poxviridae family, is a common viral skin infection that primarily affects children.^1-4 The reported incidence and prevalence of MC exhibit notable geographic variation. Worldwide, annual incidence rates per 1000 individuals range from 3.1 to 25, and prevalence ranges from 0.27% to 34.6%.^2-7

Molluscum contagiosum is diagnosed clinically and typically manifests as smooth, flesh-colored papules measuring 2 to 6 mm in diameter with central umbilication. It can manifest as a single lesion or multiple clustered lesions, or in a disseminated pattern. The primary mode of transmission is through contact with skin, lesions, or contaminated personal items, or via self-inoculation. The majority of cases are asymptomatic, but in some patients, MC may be associated with pruritus, tenderness, erythema, or irritation. When present, secondary bacterial infections can cause localized inflammation and pain.^1,3,4 The pathogenesis hinges on MC virus replication within keratinocytes, disrupting cellular differentiation and keratinization. The virus persists in the host by influencing the immune response through various mechanisms, including interference with signaling pathways, apoptosis inhibition, and antigen presentation disruption.^3,4

Molluscum contagiosum typically follows a self-limiting trajectory, resolving over several months to 2 years.^3,4 The resolution timeframe is intricately linked to variables such as the patient’s immune profile, lesion burden, and treatment approach. For symptomatic lesions, a variety of treatment options have been described, including physical ablation (eg, cryotherapy, curettage) and topical agents such as potassium hydroxide, cantharidin, imiquimod, and salicylic acid.^3,4,8,9

Atopic dermatitis (AD) is a common chronic relapsing inflammatory skin disorder. In the United States, its prevalence ranges from 15% to 30% in children and from 2% to 10% in adults, with ongoing evidence of a growing global incidence.^10-14 While AD can emerge at any age, typical onset is during early childhood. The clinical manifestation of AD includes a spectrum of eczematous features, often accompanied by persistent itching. The pathogenesis is multifactorial, involving a complex interplay of genetic, immunologic, and environmental factors. Key contributors to this multifaceted process encompass a compromised epidermal barrier, alterations in the skin microbiome, and an immune dysregulation promoting a type 2 immune response. Epidermal barrier dysfunction can be attributed to various factors, including diminished ceramide production, altered lipid composition, the release of inflammatory mediators, and mechanical damage from the persistent itch-scratch cycle.^10-13,15 These factors or their interplay may enhance the susceptibility of patients with AD to infections. 

Several studies conducted across various geographic regions examining the relationship between MC and AD have reported variable findings.^2,6,7,16-21 Published studies have reported a prevalence of AD in children with MC ranging from 13.2% to 43%.^2,6,7,16-21 Although some studies suggest a higher rate of atopy in patients with MC, not all research has confirmed this association.^16,21 Dohil et al² reported a greater number of MC lesions in children with AD than those without an atopic background. Silverberg²⁰ reported that in 10% (5/50) of children with MC, the onset of AD was triggered, and in 22% (11/50) MC was associated with flares of pre-existing AD.

In this study, we aimed to assess MC infection rates in children with AD, analyze the epidemiologic aspects and severity differences between atopic children with and without MC infection, and compare data from atopic and nonatopic children with MC.

Methods

In this retrospective cohort study, we analyzed the medical records of pediatric patients diagnosed with MC, AD, or both conditions at an outpatient dermatology practice in Netanya, HaSharon, Israel, from September 2013 to August 2022. Data were collected from the electronic medical records and included patient demographics, the clinical presentation of MC and/or AD at diagnosis, and the duration of both conditions. Only patients with complete data and at least 6 months of follow-up were included. Key epidemiologic characteristics assessed included patient sex, age at the initial visit, and age at the onset of MC and/or AD. Diagnoses of MC and AD were established through clinical examinations conducted by dermatologists. The clinical evaluation of AD encompassed the assessment of body surface area involvement (categorized as <5%, 5%-10%, or >10%). Atopic dermatitis severity was classified as mild, moderate, or severe using the validated Investigator Global Assessment Scale for Atopic Dermatitis.²² Clinical evaluation of MC included assessment of the number of lesions (categorized as ≤4, 5-9, or ≥10), presence of inflammatory lesions, and resolution times for individual lesions (categorized as <1 week, several weeks, or unknown), as well as the overall resolution time for all lesions (categorized as <6 months, 6-12 months, 13-18 months, or >18 months). The temporal relationship between the appearance of MC and AD also was assessed.

Statistical Analysis—Numbers and percentages were used for categorical variables. Continuous variables were represented by mean and standard deviation. Categorical variables were compared using the χ² test, and continuous variables between groups were compared using the Student t test. All statistical tests were 2-sided, with statistical significance defined as P≤.05. Statistical analysis was performed using SPSS software version 28 (IBM).

Results

Study Population—A total of 610 children were included in the study; 263 (43%) were female and 347 (57%) were male. The patients ranged in age from 4 months to 10 years, with a mean (SD) age of 4.87 (1.82) years. Five hundred fifty-six (91%) patients had AD, and 336 (55%) had MC. Within this cohort, 274 (45%) children had AD only, 54 (9%) had MC only, and 282 (46%) had both AD and MC. Regarding the temporal sequence, among the 282 children who had both AD and MC, AD preceded MC in 203 (72%) cases, both conditions were diagnosed concomitantly in 43 (15%) cases, and MC preceded AD in 36 (13%) cases. For cases in which the MC diagnosis followed the diagnosis of AD, the mean (SD) time between each diagnosis was 3.17 (1.5) years.

Comparison of Atopic and Nonatopic Children With MC—Although a higher proportion of males were diagnosed with MC (with or without concurrent AD), the differences in sex distribution between the 2 groups did not reach statistical significance. Among all children with MC, the majority (81.5% [274/336]) were aged 1 to 6 years at presentation. Patients with MC as their sole diagnosis had a similar mean age compared with those with concurrent AD. However, a detailed age subgroup analysis revealed a notable distinction: in the group with MC as the sole diagnosis, the majority (95% [51/54]) were younger than 7 years. In contrast, in the combined MC and AD group, MC manifested across a wider age range, with 21% (58/282) of patients being older than 7 years. In MC cases associated with AD, a notably higher lesion count and increased local inflammatory response were observed compared to those without AD. The time for complete resolution of all MC lesions was substantially prolonged in patients with comorbid AD. Specifically, 93% (50/54) of patients with MC without comorbid AD achieved full resolution within 1 year, whereas 52% (146/282) of patients with comorbid AD required more than 1 year for resolution (eTable 1). 

Comparison of Atopic Children With and Without MC—Sex, age distribution, and disease duration showed no differences between atopic patients with and without MC. Atopic patients with MC exhibited greater body surface area involvement and higher validated Investigator Global Assessment Scale for Atopic Dermatitis scores compared to atopic patients without MC (eTable 2).

Comment

This study examined the relationship between MC and AD in pediatric patients, revealing a notable correlation and yielding valuable epidemiologic and clinical insights. Consistent with previous research, our study demonstrated a high prevalence of AD in children with MC.^2,6,7,16-21 Previous studies indicated AD rates of 13% to 43% in pediatric patients with MC, whereas our study found a higher prevalence (84%), signifying a substantial majority of patients with MC in our cohort had AD. This discrepancy arises from factors such as demographic, genetic, and environmental differences, along with differences in access to medical care, referral practices, and diagnostic approaches across health care systems.¹⁴

Our temporal analysis of MC and AD diagnoses offers important insights. In the majority (72% [203/282]) of cases, the diagnosis of AD preceded MC, supporting previous research suggesting that the underlying pathophysiology of AD heightens susceptibility to MC.^15,17-20 Less frequently, MC was diagnosed before or concurrently with AD, indicating that MC may occasionally trigger or exacerbate milder or undiagnosed AD, as previously proposed.²⁰

A notable finding in our study was the expanded age range for MC onset in patients with AD, encompassing older age groups compared to patients with MC as their sole diagnosis, possibly due to persistent immune dysregulation. To the best of our knowledge, this specific observation has not been systematically reported or documented in prior cohort studies. Visible skin lesions of MC may have a psychological impact on patients, influencing self-consciousness and causing embarrassment and emotional distress. This may be more pronounced in older children, who are more aware of their appearance and social perceptions.^23-25 These considerations should play a role in the management of MC. 

Our study revealed that children with AD and MC displayed higher lesion counts, increased local inflammatory responses, and a more protracted resolution period compared to nonatopic children. In more than 50% of children with AD, MC took more than 1 year for resolution, whereas the majority of those without AD achieved resolution within 1 year. These findings may be attributed to AD-related immune dysregulation, influencing the natural course of MC. Consequently, it suggests that while nonatopic children with MC usually are managed through observation, atopic patients may benefit from an intervention-oriented approach. 

Comparing atopic patients with and without MC showed a heightened occurrence of severe and extensive AD among those with concurrent MC. Several factors could contribute to this observation. On one hand, there could be a direct association between the extent and severity of AD, leading to an elevated susceptibility to MC. Conversely, MC might exacerbate immunologic dysregulation and intensify skin inflammation in atopic individuals.²⁰ Additionally, itching related to both disorders may exacerbate inflammation and compromise the epidermal barrier, facilitating the spread of MC. This interplay suggests that each condition exacerbates the other in a self-reinforcing cycle. The importance of patient and caregiver education is underscored by recognizing these interactions. To manage both conditions effectively, health care providers should counsel patients and caregivers on maintaining proper skin care practices such as gentle cleansing with mild, fragrance-free products, regular moisturization, and avoidance of irritants, encourage them to avoid scratching, and recommend adopting an active treatment approach.

Our study had notable strengths. Firstly, a substantial sample size enhanced the statistical reliability of our findings. Additionally, valuable insights into the epidemiology and clinical aspects of AD and MC were obtained by utilizing real-world data from an outpatient dermatology practice. In our study, clinical evaluations covered body surface area involvement and disease severity for AD while also assessing lesion counts and the presence of inflammatory lesions for MC. This comprehensive approach facilitated a thorough analysis of both conditions. The extended data collection period not only allowed for observation of their clinical course and duration, but also enabled a detailed assessment of their interplay.

Our study also had several limitations. Primarily, its retrospective design relied on the accuracy and comprehensiveness of medical records, which may have introduced bias. The exclusion of some patients due to incomplete data further increased the potential for selection bias. Additionally, this study was conducted in a single outpatient dermatology practice in Israel, resulting in a study population composed predominantly of Jewish patients (94%), with a minority (6%) of Arab patients. Other ethnic groups, including Black, Asian, and Hispanic populations, were not represented. This reflects the country’s demographic composition rather than an intentional selection bias. However, the limited ethnic diversity reduces the generalizability of our findings. Differences in demographics, coding practices, health care utilization (eg, timeliness of seeking care, access to dermatology services), and treatment strategies also may impact the observed prevalence, clinical characteristics, and patient outcomes. Furthermore, while our study highlighted the potential advantages of a proactive treatment approach for atopic children with MC, it did not evaluate specific treatment protocols. Future research should aim to confirm the most efficacious therapeutic strategies for managing MC in atopic individuals and to include a more diverse population to better understand the applicability of findings across various ethnic groups.

Conclusion

Our study found a high prevalence of AD in children with MC and a strong bidirectional relationship between these conditions. Pediatric patients with AD display a broader age range for MC, greater lesion burden, increased local inflammatory responses, prolonged resolution times, and more extensive and severe AD.

Recognizing the interplay between MC and AD is crucial, highlighting the importance of health care providers educating patients and caregivers. Emphasizing skin hygiene, discouraging scratching, and implementing proactive treatment approaches can enhance the outcomes of both conditions. Further research into the underlying mechanisms of this association and effective therapeutic strategies for MC in atopic individuals is warranted.

Acknowledgments—The authors thank Zvi Segal, MD (Tel Hashomer, Israel) for his insightful contribution to the statistical analysis of the results. We would like to express our appreciation to the dedicated team of the dermatology practice in Netanya for the support throughout the performance of the study. Additionally, we thank all study participants and their parents for their participation and contribution to our research.

Cosmetic laser procedures as well as energy-based fat reduction and body-contouring devices are increasingly popular among individuals with skin of color (SOC). Innovations in cosmetic devices and procedures tailored for SOC have allowed for the optimization of outcomes in this patient population. In this article, SOC is defined as darker skin types, including Fitzpatrick skin types (FSTs) IV to VI and ethnic backgrounds such as LatinX, African American, Southeast Asian, Native American, Pacific Islander, Middle Eastern, Asian, and African. Indications for laser treatment include dermatosis papulosa nigrans (DPN), acne scars, skin rejuvenation, and hyperpigmentation. There currently are 6 procedures for nonsurgical fat reduction that are approved by the US Food and Drug Administration (FDA): high-frequency focused ultrasound, cryolipolysis, laser lipolysis, injection lipolysis, radiofrequency lipolysis, and magnetic resonance contouring (Supplementary Table S1).¹

In this review, our initial focus is cosmetic laser ­procedures, encompassing FDA-cleared indications along with the associated risks and benefits in SOC populations. Subsequently, we delve into the realms of energy-based fat reduction and body contouring, offering a comprehensive overview of these noninvasive therapies and addressing considerations for efficacy and safety in these patients.

Dermatosis Papulosa Nigra

In patients with SOC, scissor excision, curettage, or electrodesiccation are the mainstay treatments for removal of DPN (Figure 1). Curettage and electrodesiccation can cause temporary postinflammatory hyperpigmentation (PIH) in these populations, while cryotherapy is not a preferred method in patients with SOC due to the possibility of cryotherapy-induced depigmentation. In a 14-patient split-face study comparing the 532-nm potassium titanyl phosphate (KTP) laser vs electrodesiccation in FSTs IV to VI, the KTP-treated side showed an improvement rate of 96%, while the electrodesiccation side showed an improvement rate of 79%. There was a statistically significant favorable experience for KTP with regard to pain tolerability (P=.002).² Complete resolution of lesions may be seen after 3 to 4 sessions at 4-week intervals. Additionally, the 1064-nm Nd:YAG laser was assessed for treatment of DPN in 2 patients, with 70% to 90% of lesions resolved after a single treatment with no complications.³

Most dermatologists still rely on curettage and electrodesiccation instead of laser therapy to remove DPNs in patients with SOC. The use of the Nd:YAG laser is promising yet expensive for the provider both to purchase and maintain. Electrodesiccation has been used by dermatology practices for decades and can be used without permanent discoloration. To minimize the risk for PIH, we recommend application of a healing ointment such as petroleum jelly or aloe vera gel to the treated lesions as well as lightening agents for PIH and daily use of sunscreen. Overall, providers do not need to purchase an expensive laser device for DPN removal.

Acne Scars

The invention of fractional technology in the early 2000s and its favorable safety profile have changed how dermatologists treat scarring in patients with SOC.^4,5 In fact, nonablative fractional (NAF) resurfacing is a preferred treatment modality for management of acne scars in patients with SOC.⁶ In one study of the 1550-nm erbium-doped fiber laser for treatment of acne scars (3 treatments at intervals of 2-3 weeks) in 10 Japanese patients, clinical improvement was seen in all patients and no severe adverse effects were reported.⁷ In another study, 27 Korean patients with FSTs IV and V were treated with an NAF resurfacing device for acne scars. Excellent results were reported in 30% (8/27) of patients, substantial improvement in 59% (16/27), and moderate improvement in 11% (3/27).⁸ To evaluate outcomes in patients treated with NAF resurfacing, a retrospective review of 961 treatments showed a hyperpigmentation rate of 11.6% in those with FST IV and 33% in FST V.⁹

In one study of the short-pulsed nonablative Nd:YAG laser, 9 patients with FSTs I to V and 2 patients with FSTs IV to V underwent 8 treatments at 2-week intervals. Three blinded observers found a 29% improvement in the Global Acne Scar Severity score, while 89% (8/9) of patients self-reported subjective improvement in their acne scars.¹⁰

The 755-nm picosecond laser and diffractive lens array also have been shown to reduce the appearance of acne scars in patients with SOC, as shown via serial photography in a retrospective study of 56 patients with FSTs IV to VI. Transient hyperpigmentation, erythema, and edema were reported.¹¹

Nonablative laser therapy is preferred for skin rejuvenation in patients with SOC due to a reduced risk for postprocedural hyperpigmentation.¹¹ Ablative resurfacing (eg, CO₂ laser) poses major risks for postprocedural hyperpigmentation, hypopigmentation, and scar formation and therefore should be avoided in these populations.^12,13 A study involving 30 Asian patients (FSTs III-IV) demonstrated that the 1550-nm fractional laser was well tolerated, though higher treatment densities and fluences may lead to temporary adverse effects such as increased redness, swelling, and pain (P<.01).¹⁴ Furthermore, greater density was shown to cause higher levels of redness, hyperpigmentation, and swelling in comparison to higher fluence settings. Of note, patient satisfaction was markedly higher in patients who underwent treatment with higher fluence settings but not in patients with higher densities (P<.05). Postprocedural hyperpigmentation was noted in 6.7% (2/30) of patients studied.¹⁴ In another study, 8 patients with FSTs II to V were treated with either the 1064-nm long-pulsed Nd:YAG laser or the grid fractional monopolar radiofrequency laser.¹⁵ All participants experienced a significant decrease in mean wrinkle count using the Lemperle wrinkle assessment (P<.05). A significant decrease in mean wrinkle assessment score from 3.5 to 3.17 in clinical assessment and a decrease from 3.165 to 2.33 for photographic assessment was noted in patients treated with the grid laser (P<.05). A similar decrease in mean wrinkle assessment score was observed in the Nd:YAG group, with a mean decrease of 3.665 to 2.83 after 2 months for clinical assessment and 3.5 to 2.67 for photographic assessment. Among all patients in the study, 68% (6/8) experienced erythema, 25% (2/8) had a burning sensation, and 25% (2/8) experienced urticaria immediately postprocedure.¹⁵

Nonablative fractional resurfacing is preferred for the management of acne scars in patients with SOC. Adverse effects such as hyperpigmentation typically are transient, and the risk may be minimized with strict photoprotective practices following the procedure. Furthermore, avoidance of topicals containing exfoliants or α-hydroxy acids applied to the treated area following the procedure also may mitigate the risk for postprocedural hyperpigmentation.¹⁶ If hyperpigmentation does occur, use of topical melanogenesis inhibitors such as hydroquinone, kojic acid, or azelaic acid has shown some utility in practice.

Skin Rejuvenation

Nonablative fractional lasers (NAFLs) continue to be popular for treatment of photoaging. One study including 10 Asian patients (FSTs III-V) assessed the 1440-nm diode-based fractional laser for facial rejuvenation.¹⁷ After 4 sessions at 2-week intervals, 80% (8/10) of patients reported decreased skin roughness after both the second and third treatments, while 90% (9/10) had improved texture 1 month after the final procedure. Adverse effects included moderate facial edema and one case of transient hyperpigmentation.¹⁷ Another study reported a significant reduction in pore score (P<.002), with patients noting an overall improvement in skin appearance with minimal erythema, dryness, and flaking following 6 sessions at 2-week intervals using the 1440-nm diode-based fractional laser.¹⁸

The 1550-nm diode fractional laser significantly improved skin pigmentation (P<.001) and texture (P<.001) in 10 patients with FSTs II to IV following 5 sessions at 2- to 3-week intervals, with self-resolving erythema and edema posttreatment (Supplementary Table S2).¹⁹ Overall, NAFLs for the treatment of photoaging are effective with minimal adverse effects (eg, facial edema), which can be reduced with application of cold compression to the face and elevation of the head following treatment as well as the use of additional pillows during overnight sleep.

Laser Treatment for Hyperpigmentation Disorders

Melasma—The FDA recently approved fractional photothermolysis for the treatment of melasma; however, due to the risk for hyperpigmentation given its pathogenesis linked to hyperactive melanocytes, this laser is not considered a first-line therapy for melasma.²⁰ In a split-face, randomized study, 22 patients with FSTs III to V who were diagnosed with either dermal or mixed-type melasma were treated with a low-fluence Q-switched Nd:YAG laser combined with hydroquinone 2% vs hydroquinone 2% alone (Supplementary Table S3).²¹ Each patient was treated weekly for 5 consecutive weeks. The laser-treated side was found to reach an average of 92.5% improvement compared with 19.7% on the hydroquinone-only side. Three of the 22 (13.6%) patients developed mottled hypopigmentation after 5 laser treatments, and 8 (36.4%) developed confetti-type hypopigmentation. Four (18.2%) patients developed rebound hyperpigmentation, and all 22 patients experienced recurrence of melasma by 12 weeks posttreatment.²¹

First-line treatment for melasma involves the application of topical lightening agents such as hydroquinone, azelaic acid, kojic acid, retinoids, or mild topical steroids. Combining laser technology with topical medications can enhance treatment outcomes, particularly yielding positive results for patients with persistent pigmentation concerns. Notably, utilization of 650-microsecond technology with the 1064-nm Nd:YAG laser is considered superior in clinical practice, especially for patients with FSTs IV through VI.

Postinflammatory Hyperpigmentation—A retrospective evaluation of 61 patients with FSTs IV to VI with PIH treated with a 1927-nm NAFL showed a mean improvement of 43.24%, as assessed by 2 dermatologists.²² Additionally, the Nd:YAG 1064-nm 650-microsecond pulse duration laser is an emerging treatment that delivers high and low fluences between 4 J/cm² and 255 J/cm² within a single 650-microsecond pulse duration.²³ The short-pulse duration avoids overheating the skin, mitigating procedural discomfort and the risk for adverse effects commonly seen with the previous generation of low-pulsed lasers. In addition to PIH, this laser has been successfully used to treat pseudofolliculitis barbae.²⁴

Solar Lentigos—In a split-face study treating solar lentigos in Asian patients, 4 treatments with a low-pulsed KTP 532-nm laser were administered with and without a second treatment with a low-pulsed 1064-nm Nd:YAG laser.²⁵ Scoring of a modified pigment severity index and measurement of the melanin index showed that skin treated with the low-pulsed 532-nm laser alone and in combination with the low-pulsed 1064-nm Nd:YAG laser resulted in improvement at 3 months’ follow-up. However, there was no difference between the 2 sides of the face, leading the researchers to conclude that the low-pulsed 532-nm laser appears to be safe and effective for treatment of solar lentigos in Asian patients and does not require the addition of the low-pulsed 1064-nm laser.²⁵  

To avoid hyperpigmentation in patients with SOC, strict photoprotection to the treated areas should be advised. Proper cooling of the laser-treated area is required to minimize PIH, as cooling decreases tissue damage and excessive thermal injury. Test spots should be considered prior to initiation of the full laser treatment. Hydroquinone in a 4% concentration applied daily for 2 weeks preprocedure commonly is employed to reduce the risk for postprocedural hyperpigmentation in clinical practice.^26,27

Skin Tightening and Body Contouring

In general, skin-tightening and body-contouring devices are among the most sought-after procedures. Studies performed in patients with SOC are limited. Herein, we provide background on why these devices are favorable for patients with SOC and our experiences in using them. A summary of these devices can be found in Supplementary Table S4.

Radiofrequency Skin Tightening—Radiofrequency devices are utilized for skin tightening as well as mild fat reduction; they commonly are used on the abdomen, thighs, buttocks, and face.²⁸ People with SOC are more responsive to radiofrequency skin-tightening therapy due to higher baseline collagen content and dermal thickness, more sebaceous activity and skin elasticity, and more melanin content which offers protective thermal buffering.^29,30 As the radiofrequency device emits heat, penetrating deep into the dermis, it generates collagen remodeling and synthesis within 4 to 6 months posttreatment.

Nonsurgical Fat Reduction

Procedures for nonsurgical fat reduction are favorable due to minimal recovery time, manageable cost, and an in-office procedure setting. As noted previously, there are 6 FDA-indicated interventions for nonsurgical fat reduction: ultrasonography, cryolipolysis, laser lipolysis, injection lipolysis, radiofrequency lipolysis, and magnetic resonance contouring.³¹

Ultrasonography—Ultrasound devices designed for body contouring are used for skin tightening and mild fat reduction through the use of acoustic energy.³² These devices can be divided into 2 categories: high frequency and low frequency, with the high-frequency devices being the most popular. High-frequency ultrasound energy produces heat at target sites, which induces necrosis of adipocytes and stimulates collagen remodeling within the tissue matrix.³³ Tissue temperatures above 56°C stimulate adipocyte necrosis while sparing nearby nerves and vessels.²⁸ Because of the short duration of the procedure, the risk for epidermal damage is minimal. Contrary to high-frequency ultrasonography, focus-pulsed ultrasonography employs low-frequency waves to induce the mechanical disruption of adipocytes, which is generally better tolerated due to its nonthermal mechanism. The latter may be advantageous in patients with SOC due to a reduced risk for thermal injury to the epidermis. Multiple treatments often are needed at 3- to 4-week intervals, resulting in gradual improvement observed over 2 to 6 months. One study of microfocused ultrasonography in 25 Asian patients for treatment of face and neck laxity reported that skin laxity was improved or much improved in 84% (21/25) of patients following treatment.³⁴ Adverse effects were reported as mild and transient, resolving within 90 days.³⁴ Ultrasound devices also were shown to improve wrinkles, texture, and overall appearance of the skin in a 71-year-old African American woman 4 months following treatment (Figure 2). These photographs highlight the clinical utility of a microfocused ultrasound skin-tightening treatment in African American patients.

Cryolipolysis—Cryolipolysis is a noninvasive body contouring procedure that employs controlled cooling to induce subcutaneous panniculitis. Through cold-induced apoptosis of adipocytes, this procedure selectively reduces adipose tissue in localized areas such as the flank, abdomen, thighs, buttocks, back, submental area, and upper arms. The temperature used in cryolipolysis is approximately –10°C.³⁵ The lethal temperature for melanocytes is –4 °C, below which melanocyte apoptosis may be induced, resulting in depigmentation. Given the prolonged contact of the skin with a cryolipolysis device for up to 60 minutes during a body-contouring procedure, there is a risk for resultant depigmentation in darker skin types. Controlled studies are needed to fully evaluate the safety and efficacy of cryolipolysis in patients with SOC. One retrospective study of cryolipolysis applied to the abdomen and upper arm of 4122 Asian patients reported a significant (P<.05) reduction in the circumference of the abdomen and the upper-arm areas. No long-term adverse effects were reported.³⁶

Laser Lipolysis—The 1060-nm diode laser for body contouring selectively destroys adipose tissue, resulting in body contouring via thermally induced inflammation. Hyperthermic exposure for 15 minutes selectively elevates adipocyte temperature between 42°C to 47°C, which triggers apoptosis and the eventual clearance of destroyed cells from the interstitial space.³⁷ The selectivity of the 1060-nm wavelength coupled with the device’s contact cooling system preserves the overlying skin and adnexa during the procedure,³⁷ which would minimize epidermal damage that may induce dyspigmentation in patients with SOC. No notable adverse effects or dyspigmentation have been reported using this device.

Injection Lipolysis—Deoxycholic acid is an injectable adipocytolytic for the reduction of submental fat. It nonselectively lyses muscle and other adjacent nonfatty tissue. One study of 50 Indian patients demonstrated a substantial reduction of submental fat in 90% (45/50).³⁸ For each treatment, 5 mL of 30 mg/mL deoxycholic acid was injected. Serial sessions were conducted at 2-month intervals, and most (64% [32/50]) patients required 3 sessions to see a treatment effect. Adverse effects included transient swelling, lumpiness, and tenderness. A phase 2a investigation of the novel injectable small-molecule drug CBL-514 in 43 Asian and White participants found a significant improvement in the reduction in abdominal fat volume (P<.00001) and thickness (P<.0001) relative to baseline at higher doses (unit dose, 2.0 mg/cm² and 1.6 mg/cm²).³⁹ In addition to the adverse effects mentioned previously, pruritus, repeated urticaria, body rash, and fever also were reported.³⁹  

Radiofrequency Lipolysis—Radiofrequency is used for adipolysis through heat-induced apoptosis. To achieve this effect, adipose tissue must sustain a temperature of 42 °C to 45 °C for at least 15 minutes.⁴⁰ In one study, 4 treatments performed at 7-day intervals resulted in a statistically significant reduction in circumference to the treated areas of the inner and outer thighs without any reported adverse effects (P<0.001).⁴¹ Of note, there was 1 cm of distance between the applicator and the skin. The absence of direct contact with the skin is likely to reduce the risk for postprocedural complications in patients with SOC.

Magnetic Resonance Contouring—Magnetic resonance contouring with high-intensity focused electromagnetic technology is an emerging treatment modality for noninvasive body contouring. One distinguishing characteristic from other currently available noninvasive fat-­reduction therapies is that magnetic resonance may improve strength, tone, and muscle thickness.⁴² This modality is FDA approved for contouring of the buttocks and abdomen and employs electromagnetic energy to stimulate approximately 20,000 muscle contractions within a time frame of 30 minutes. Though the mechanisms causing benefits to muscular and adipose tissue have not been elucidated, current findings suggest that the contractions stimulate substantial lipolysis of adipocytes, resulting in the release of large amounts of free fatty acids that cause damage to nearby adipose tissue.⁴³ Multiple treatments are required over time to maintain effect. No major adverse effects have been reported. The likely mechanism of action of magnetic resonance contouring does not appear to pose an increased risk to patients with SOC.

Final Thoughts

One of the major roadblocks in distilling indications along with associated risks and benefits for nonsurgical cosmetic practices for patients with SOC is a void in the primary literature involving these populations. Clinical experience serves to address this deficit in combination with a thorough review of the literature. The 1064-nm Nd:YAG laser has shown clinical utility in the treatment of DPN, melanoma, and acne scars, but it poses financial constraints to the provider in comparison to modalities used for many years. Notably, NAF resurfacing is preferred for the management of acne scars in patients with SOC and continues to gain popularity for the treatment of photoaging. Regarding skin-tightening and body-contouring devices, studies performed in patients with SOC are limited and affected by factors such as small sample sizes, underrepresentation of FSTs IV through VI, short follow-up durations, and a lack of standardized outcome measures. Additionally, few studies assess pigmentary adverse effects or stratify results by skin type, which is critical given the higher risk for PIH in SOC. Ultrasound devices showed clinical utility in improvement of skin laxity, texture, and overall improvement. Patients with SOC respond well to skin-tightening devices due to the increased collagen synthesis. Regarding emerging devices for reduction of adipocytes, deoxycholic acid when injected showed notable improvement in fat reduction but also had adverse effects. As additional studies on cosmetic procedures in SOC emerge, an expansion of treatment options could be offered to this demographic group with confidence, provided proper treatment and follow-up protocols are in place.

Cosmetic laser procedures as well as energy-based fat reduction and body-contouring devices are increasingly popular among individuals with skin of color (SOC). Innovations in cosmetic devices and procedures tailored for SOC have allowed for the optimization of outcomes in this patient population. In this article, SOC is defined as darker skin types, including Fitzpatrick skin types (FSTs) IV to VI and ethnic backgrounds such as LatinX, African American, Southeast Asian, Native American, Pacific Islander, Middle Eastern, Asian, and African. Indications for laser treatment include dermatosis papulosa nigrans (DPN), acne scars, skin rejuvenation, and hyperpigmentation. There currently are 6 procedures for nonsurgical fat reduction that are approved by the US Food and Drug Administration (FDA): high-frequency focused ultrasound, cryolipolysis, laser lipolysis, injection lipolysis, radiofrequency lipolysis, and magnetic resonance contouring (Supplementary Table S1).¹

In this review, our initial focus is cosmetic laser ­procedures, encompassing FDA-cleared indications along with the associated risks and benefits in SOC populations. Subsequently, we delve into the realms of energy-based fat reduction and body contouring, offering a comprehensive overview of these noninvasive therapies and addressing considerations for efficacy and safety in these patients.

Dermatosis Papulosa Nigra

In patients with SOC, scissor excision, curettage, or electrodesiccation are the mainstay treatments for removal of DPN (Figure 1). Curettage and electrodesiccation can cause temporary postinflammatory hyperpigmentation (PIH) in these populations, while cryotherapy is not a preferred method in patients with SOC due to the possibility of cryotherapy-induced depigmentation. In a 14-patient split-face study comparing the 532-nm potassium titanyl phosphate (KTP) laser vs electrodesiccation in FSTs IV to VI, the KTP-treated side showed an improvement rate of 96%, while the electrodesiccation side showed an improvement rate of 79%. There was a statistically significant favorable experience for KTP with regard to pain tolerability (P=.002).² Complete resolution of lesions may be seen after 3 to 4 sessions at 4-week intervals. Additionally, the 1064-nm Nd:YAG laser was assessed for treatment of DPN in 2 patients, with 70% to 90% of lesions resolved after a single treatment with no complications.³

Most dermatologists still rely on curettage and electrodesiccation instead of laser therapy to remove DPNs in patients with SOC. The use of the Nd:YAG laser is promising yet expensive for the provider both to purchase and maintain. Electrodesiccation has been used by dermatology practices for decades and can be used without permanent discoloration. To minimize the risk for PIH, we recommend application of a healing ointment such as petroleum jelly or aloe vera gel to the treated lesions as well as lightening agents for PIH and daily use of sunscreen. Overall, providers do not need to purchase an expensive laser device for DPN removal.

Acne Scars

The invention of fractional technology in the early 2000s and its favorable safety profile have changed how dermatologists treat scarring in patients with SOC.^4,5 In fact, nonablative fractional (NAF) resurfacing is a preferred treatment modality for management of acne scars in patients with SOC.⁶ In one study of the 1550-nm erbium-doped fiber laser for treatment of acne scars (3 treatments at intervals of 2-3 weeks) in 10 Japanese patients, clinical improvement was seen in all patients and no severe adverse effects were reported.⁷ In another study, 27 Korean patients with FSTs IV and V were treated with an NAF resurfacing device for acne scars. Excellent results were reported in 30% (8/27) of patients, substantial improvement in 59% (16/27), and moderate improvement in 11% (3/27).⁸ To evaluate outcomes in patients treated with NAF resurfacing, a retrospective review of 961 treatments showed a hyperpigmentation rate of 11.6% in those with FST IV and 33% in FST V.⁹

In one study of the short-pulsed nonablative Nd:YAG laser, 9 patients with FSTs I to V and 2 patients with FSTs IV to V underwent 8 treatments at 2-week intervals. Three blinded observers found a 29% improvement in the Global Acne Scar Severity score, while 89% (8/9) of patients self-reported subjective improvement in their acne scars.¹⁰

The 755-nm picosecond laser and diffractive lens array also have been shown to reduce the appearance of acne scars in patients with SOC, as shown via serial photography in a retrospective study of 56 patients with FSTs IV to VI. Transient hyperpigmentation, erythema, and edema were reported.¹¹

Nonablative laser therapy is preferred for skin rejuvenation in patients with SOC due to a reduced risk for postprocedural hyperpigmentation.¹¹ Ablative resurfacing (eg, CO₂ laser) poses major risks for postprocedural hyperpigmentation, hypopigmentation, and scar formation and therefore should be avoided in these populations.^12,13 A study involving 30 Asian patients (FSTs III-IV) demonstrated that the 1550-nm fractional laser was well tolerated, though higher treatment densities and fluences may lead to temporary adverse effects such as increased redness, swelling, and pain (P<.01).¹⁴ Furthermore, greater density was shown to cause higher levels of redness, hyperpigmentation, and swelling in comparison to higher fluence settings. Of note, patient satisfaction was markedly higher in patients who underwent treatment with higher fluence settings but not in patients with higher densities (P<.05). Postprocedural hyperpigmentation was noted in 6.7% (2/30) of patients studied.¹⁴ In another study, 8 patients with FSTs II to V were treated with either the 1064-nm long-pulsed Nd:YAG laser or the grid fractional monopolar radiofrequency laser.¹⁵ All participants experienced a significant decrease in mean wrinkle count using the Lemperle wrinkle assessment (P<.05). A significant decrease in mean wrinkle assessment score from 3.5 to 3.17 in clinical assessment and a decrease from 3.165 to 2.33 for photographic assessment was noted in patients treated with the grid laser (P<.05). A similar decrease in mean wrinkle assessment score was observed in the Nd:YAG group, with a mean decrease of 3.665 to 2.83 after 2 months for clinical assessment and 3.5 to 2.67 for photographic assessment. Among all patients in the study, 68% (6/8) experienced erythema, 25% (2/8) had a burning sensation, and 25% (2/8) experienced urticaria immediately postprocedure.¹⁵

Nonablative fractional resurfacing is preferred for the management of acne scars in patients with SOC. Adverse effects such as hyperpigmentation typically are transient, and the risk may be minimized with strict photoprotective practices following the procedure. Furthermore, avoidance of topicals containing exfoliants or α-hydroxy acids applied to the treated area following the procedure also may mitigate the risk for postprocedural hyperpigmentation.¹⁶ If hyperpigmentation does occur, use of topical melanogenesis inhibitors such as hydroquinone, kojic acid, or azelaic acid has shown some utility in practice.

Skin Rejuvenation

Nonablative fractional lasers (NAFLs) continue to be popular for treatment of photoaging. One study including 10 Asian patients (FSTs III-V) assessed the 1440-nm diode-based fractional laser for facial rejuvenation.¹⁷ After 4 sessions at 2-week intervals, 80% (8/10) of patients reported decreased skin roughness after both the second and third treatments, while 90% (9/10) had improved texture 1 month after the final procedure. Adverse effects included moderate facial edema and one case of transient hyperpigmentation.¹⁷ Another study reported a significant reduction in pore score (P<.002), with patients noting an overall improvement in skin appearance with minimal erythema, dryness, and flaking following 6 sessions at 2-week intervals using the 1440-nm diode-based fractional laser.¹⁸

The 1550-nm diode fractional laser significantly improved skin pigmentation (P<.001) and texture (P<.001) in 10 patients with FSTs II to IV following 5 sessions at 2- to 3-week intervals, with self-resolving erythema and edema posttreatment (Supplementary Table S2).¹⁹ Overall, NAFLs for the treatment of photoaging are effective with minimal adverse effects (eg, facial edema), which can be reduced with application of cold compression to the face and elevation of the head following treatment as well as the use of additional pillows during overnight sleep.

Laser Treatment for Hyperpigmentation Disorders

Melasma—The FDA recently approved fractional photothermolysis for the treatment of melasma; however, due to the risk for hyperpigmentation given its pathogenesis linked to hyperactive melanocytes, this laser is not considered a first-line therapy for melasma.²⁰ In a split-face, randomized study, 22 patients with FSTs III to V who were diagnosed with either dermal or mixed-type melasma were treated with a low-fluence Q-switched Nd:YAG laser combined with hydroquinone 2% vs hydroquinone 2% alone (Supplementary Table S3).²¹ Each patient was treated weekly for 5 consecutive weeks. The laser-treated side was found to reach an average of 92.5% improvement compared with 19.7% on the hydroquinone-only side. Three of the 22 (13.6%) patients developed mottled hypopigmentation after 5 laser treatments, and 8 (36.4%) developed confetti-type hypopigmentation. Four (18.2%) patients developed rebound hyperpigmentation, and all 22 patients experienced recurrence of melasma by 12 weeks posttreatment.²¹

First-line treatment for melasma involves the application of topical lightening agents such as hydroquinone, azelaic acid, kojic acid, retinoids, or mild topical steroids. Combining laser technology with topical medications can enhance treatment outcomes, particularly yielding positive results for patients with persistent pigmentation concerns. Notably, utilization of 650-microsecond technology with the 1064-nm Nd:YAG laser is considered superior in clinical practice, especially for patients with FSTs IV through VI.

Postinflammatory Hyperpigmentation—A retrospective evaluation of 61 patients with FSTs IV to VI with PIH treated with a 1927-nm NAFL showed a mean improvement of 43.24%, as assessed by 2 dermatologists.²² Additionally, the Nd:YAG 1064-nm 650-microsecond pulse duration laser is an emerging treatment that delivers high and low fluences between 4 J/cm² and 255 J/cm² within a single 650-microsecond pulse duration.²³ The short-pulse duration avoids overheating the skin, mitigating procedural discomfort and the risk for adverse effects commonly seen with the previous generation of low-pulsed lasers. In addition to PIH, this laser has been successfully used to treat pseudofolliculitis barbae.²⁴

Solar Lentigos—In a split-face study treating solar lentigos in Asian patients, 4 treatments with a low-pulsed KTP 532-nm laser were administered with and without a second treatment with a low-pulsed 1064-nm Nd:YAG laser.²⁵ Scoring of a modified pigment severity index and measurement of the melanin index showed that skin treated with the low-pulsed 532-nm laser alone and in combination with the low-pulsed 1064-nm Nd:YAG laser resulted in improvement at 3 months’ follow-up. However, there was no difference between the 2 sides of the face, leading the researchers to conclude that the low-pulsed 532-nm laser appears to be safe and effective for treatment of solar lentigos in Asian patients and does not require the addition of the low-pulsed 1064-nm laser.²⁵  

To avoid hyperpigmentation in patients with SOC, strict photoprotection to the treated areas should be advised. Proper cooling of the laser-treated area is required to minimize PIH, as cooling decreases tissue damage and excessive thermal injury. Test spots should be considered prior to initiation of the full laser treatment. Hydroquinone in a 4% concentration applied daily for 2 weeks preprocedure commonly is employed to reduce the risk for postprocedural hyperpigmentation in clinical practice.^26,27

Skin Tightening and Body Contouring

In general, skin-tightening and body-contouring devices are among the most sought-after procedures. Studies performed in patients with SOC are limited. Herein, we provide background on why these devices are favorable for patients with SOC and our experiences in using them. A summary of these devices can be found in Supplementary Table S4.

Radiofrequency Skin Tightening—Radiofrequency devices are utilized for skin tightening as well as mild fat reduction; they commonly are used on the abdomen, thighs, buttocks, and face.²⁸ People with SOC are more responsive to radiofrequency skin-tightening therapy due to higher baseline collagen content and dermal thickness, more sebaceous activity and skin elasticity, and more melanin content which offers protective thermal buffering.^29,30 As the radiofrequency device emits heat, penetrating deep into the dermis, it generates collagen remodeling and synthesis within 4 to 6 months posttreatment.

Nonsurgical Fat Reduction

Procedures for nonsurgical fat reduction are favorable due to minimal recovery time, manageable cost, and an in-office procedure setting. As noted previously, there are 6 FDA-indicated interventions for nonsurgical fat reduction: ultrasonography, cryolipolysis, laser lipolysis, injection lipolysis, radiofrequency lipolysis, and magnetic resonance contouring.³¹

Ultrasonography—Ultrasound devices designed for body contouring are used for skin tightening and mild fat reduction through the use of acoustic energy.³² These devices can be divided into 2 categories: high frequency and low frequency, with the high-frequency devices being the most popular. High-frequency ultrasound energy produces heat at target sites, which induces necrosis of adipocytes and stimulates collagen remodeling within the tissue matrix.³³ Tissue temperatures above 56°C stimulate adipocyte necrosis while sparing nearby nerves and vessels.²⁸ Because of the short duration of the procedure, the risk for epidermal damage is minimal. Contrary to high-frequency ultrasonography, focus-pulsed ultrasonography employs low-frequency waves to induce the mechanical disruption of adipocytes, which is generally better tolerated due to its nonthermal mechanism. The latter may be advantageous in patients with SOC due to a reduced risk for thermal injury to the epidermis. Multiple treatments often are needed at 3- to 4-week intervals, resulting in gradual improvement observed over 2 to 6 months. One study of microfocused ultrasonography in 25 Asian patients for treatment of face and neck laxity reported that skin laxity was improved or much improved in 84% (21/25) of patients following treatment.³⁴ Adverse effects were reported as mild and transient, resolving within 90 days.³⁴ Ultrasound devices also were shown to improve wrinkles, texture, and overall appearance of the skin in a 71-year-old African American woman 4 months following treatment (Figure 2). These photographs highlight the clinical utility of a microfocused ultrasound skin-tightening treatment in African American patients.

Cryolipolysis—Cryolipolysis is a noninvasive body contouring procedure that employs controlled cooling to induce subcutaneous panniculitis. Through cold-induced apoptosis of adipocytes, this procedure selectively reduces adipose tissue in localized areas such as the flank, abdomen, thighs, buttocks, back, submental area, and upper arms. The temperature used in cryolipolysis is approximately –10°C.³⁵ The lethal temperature for melanocytes is –4 °C, below which melanocyte apoptosis may be induced, resulting in depigmentation. Given the prolonged contact of the skin with a cryolipolysis device for up to 60 minutes during a body-contouring procedure, there is a risk for resultant depigmentation in darker skin types. Controlled studies are needed to fully evaluate the safety and efficacy of cryolipolysis in patients with SOC. One retrospective study of cryolipolysis applied to the abdomen and upper arm of 4122 Asian patients reported a significant (P<.05) reduction in the circumference of the abdomen and the upper-arm areas. No long-term adverse effects were reported.³⁶

Laser Lipolysis—The 1060-nm diode laser for body contouring selectively destroys adipose tissue, resulting in body contouring via thermally induced inflammation. Hyperthermic exposure for 15 minutes selectively elevates adipocyte temperature between 42°C to 47°C, which triggers apoptosis and the eventual clearance of destroyed cells from the interstitial space.³⁷ The selectivity of the 1060-nm wavelength coupled with the device’s contact cooling system preserves the overlying skin and adnexa during the procedure,³⁷ which would minimize epidermal damage that may induce dyspigmentation in patients with SOC. No notable adverse effects or dyspigmentation have been reported using this device.

Injection Lipolysis—Deoxycholic acid is an injectable adipocytolytic for the reduction of submental fat. It nonselectively lyses muscle and other adjacent nonfatty tissue. One study of 50 Indian patients demonstrated a substantial reduction of submental fat in 90% (45/50).³⁸ For each treatment, 5 mL of 30 mg/mL deoxycholic acid was injected. Serial sessions were conducted at 2-month intervals, and most (64% [32/50]) patients required 3 sessions to see a treatment effect. Adverse effects included transient swelling, lumpiness, and tenderness. A phase 2a investigation of the novel injectable small-molecule drug CBL-514 in 43 Asian and White participants found a significant improvement in the reduction in abdominal fat volume (P<.00001) and thickness (P<.0001) relative to baseline at higher doses (unit dose, 2.0 mg/cm² and 1.6 mg/cm²).³⁹ In addition to the adverse effects mentioned previously, pruritus, repeated urticaria, body rash, and fever also were reported.³⁹  

Radiofrequency Lipolysis—Radiofrequency is used for adipolysis through heat-induced apoptosis. To achieve this effect, adipose tissue must sustain a temperature of 42 °C to 45 °C for at least 15 minutes.⁴⁰ In one study, 4 treatments performed at 7-day intervals resulted in a statistically significant reduction in circumference to the treated areas of the inner and outer thighs without any reported adverse effects (P<0.001).⁴¹ Of note, there was 1 cm of distance between the applicator and the skin. The absence of direct contact with the skin is likely to reduce the risk for postprocedural complications in patients with SOC.

Magnetic Resonance Contouring—Magnetic resonance contouring with high-intensity focused electromagnetic technology is an emerging treatment modality for noninvasive body contouring. One distinguishing characteristic from other currently available noninvasive fat-­reduction therapies is that magnetic resonance may improve strength, tone, and muscle thickness.⁴² This modality is FDA approved for contouring of the buttocks and abdomen and employs electromagnetic energy to stimulate approximately 20,000 muscle contractions within a time frame of 30 minutes. Though the mechanisms causing benefits to muscular and adipose tissue have not been elucidated, current findings suggest that the contractions stimulate substantial lipolysis of adipocytes, resulting in the release of large amounts of free fatty acids that cause damage to nearby adipose tissue.⁴³ Multiple treatments are required over time to maintain effect. No major adverse effects have been reported. The likely mechanism of action of magnetic resonance contouring does not appear to pose an increased risk to patients with SOC.

Final Thoughts

One of the major roadblocks in distilling indications along with associated risks and benefits for nonsurgical cosmetic practices for patients with SOC is a void in the primary literature involving these populations. Clinical experience serves to address this deficit in combination with a thorough review of the literature. The 1064-nm Nd:YAG laser has shown clinical utility in the treatment of DPN, melanoma, and acne scars, but it poses financial constraints to the provider in comparison to modalities used for many years. Notably, NAF resurfacing is preferred for the management of acne scars in patients with SOC and continues to gain popularity for the treatment of photoaging. Regarding skin-tightening and body-contouring devices, studies performed in patients with SOC are limited and affected by factors such as small sample sizes, underrepresentation of FSTs IV through VI, short follow-up durations, and a lack of standardized outcome measures. Additionally, few studies assess pigmentary adverse effects or stratify results by skin type, which is critical given the higher risk for PIH in SOC. Ultrasound devices showed clinical utility in improvement of skin laxity, texture, and overall improvement. Patients with SOC respond well to skin-tightening devices due to the increased collagen synthesis. Regarding emerging devices for reduction of adipocytes, deoxycholic acid when injected showed notable improvement in fat reduction but also had adverse effects. As additional studies on cosmetic procedures in SOC emerge, an expansion of treatment options could be offered to this demographic group with confidence, provided proper treatment and follow-up protocols are in place.

Cosmetic laser procedures as well as energy-based fat reduction and body-contouring devices are increasingly popular among individuals with skin of color (SOC). Innovations in cosmetic devices and procedures tailored for SOC have allowed for the optimization of outcomes in this patient population. In this article, SOC is defined as darker skin types, including Fitzpatrick skin types (FSTs) IV to VI and ethnic backgrounds such as LatinX, African American, Southeast Asian, Native American, Pacific Islander, Middle Eastern, Asian, and African. Indications for laser treatment include dermatosis papulosa nigrans (DPN), acne scars, skin rejuvenation, and hyperpigmentation. There currently are 6 procedures for nonsurgical fat reduction that are approved by the US Food and Drug Administration (FDA): high-frequency focused ultrasound, cryolipolysis, laser lipolysis, injection lipolysis, radiofrequency lipolysis, and magnetic resonance contouring (Supplementary Table S1).¹

In this review, our initial focus is cosmetic laser ­procedures, encompassing FDA-cleared indications along with the associated risks and benefits in SOC populations. Subsequently, we delve into the realms of energy-based fat reduction and body contouring, offering a comprehensive overview of these noninvasive therapies and addressing considerations for efficacy and safety in these patients.

Dermatosis Papulosa Nigra

In patients with SOC, scissor excision, curettage, or electrodesiccation are the mainstay treatments for removal of DPN (Figure 1). Curettage and electrodesiccation can cause temporary postinflammatory hyperpigmentation (PIH) in these populations, while cryotherapy is not a preferred method in patients with SOC due to the possibility of cryotherapy-induced depigmentation. In a 14-patient split-face study comparing the 532-nm potassium titanyl phosphate (KTP) laser vs electrodesiccation in FSTs IV to VI, the KTP-treated side showed an improvement rate of 96%, while the electrodesiccation side showed an improvement rate of 79%. There was a statistically significant favorable experience for KTP with regard to pain tolerability (P=.002).² Complete resolution of lesions may be seen after 3 to 4 sessions at 4-week intervals. Additionally, the 1064-nm Nd:YAG laser was assessed for treatment of DPN in 2 patients, with 70% to 90% of lesions resolved after a single treatment with no complications.³

Most dermatologists still rely on curettage and electrodesiccation instead of laser therapy to remove DPNs in patients with SOC. The use of the Nd:YAG laser is promising yet expensive for the provider both to purchase and maintain. Electrodesiccation has been used by dermatology practices for decades and can be used without permanent discoloration. To minimize the risk for PIH, we recommend application of a healing ointment such as petroleum jelly or aloe vera gel to the treated lesions as well as lightening agents for PIH and daily use of sunscreen. Overall, providers do not need to purchase an expensive laser device for DPN removal.

Acne Scars

The invention of fractional technology in the early 2000s and its favorable safety profile have changed how dermatologists treat scarring in patients with SOC.^4,5 In fact, nonablative fractional (NAF) resurfacing is a preferred treatment modality for management of acne scars in patients with SOC.⁶ In one study of the 1550-nm erbium-doped fiber laser for treatment of acne scars (3 treatments at intervals of 2-3 weeks) in 10 Japanese patients, clinical improvement was seen in all patients and no severe adverse effects were reported.⁷ In another study, 27 Korean patients with FSTs IV and V were treated with an NAF resurfacing device for acne scars. Excellent results were reported in 30% (8/27) of patients, substantial improvement in 59% (16/27), and moderate improvement in 11% (3/27).⁸ To evaluate outcomes in patients treated with NAF resurfacing, a retrospective review of 961 treatments showed a hyperpigmentation rate of 11.6% in those with FST IV and 33% in FST V.⁹

In one study of the short-pulsed nonablative Nd:YAG laser, 9 patients with FSTs I to V and 2 patients with FSTs IV to V underwent 8 treatments at 2-week intervals. Three blinded observers found a 29% improvement in the Global Acne Scar Severity score, while 89% (8/9) of patients self-reported subjective improvement in their acne scars.¹⁰

The 755-nm picosecond laser and diffractive lens array also have been shown to reduce the appearance of acne scars in patients with SOC, as shown via serial photography in a retrospective study of 56 patients with FSTs IV to VI. Transient hyperpigmentation, erythema, and edema were reported.¹¹

Nonablative laser therapy is preferred for skin rejuvenation in patients with SOC due to a reduced risk for postprocedural hyperpigmentation.¹¹ Ablative resurfacing (eg, CO₂ laser) poses major risks for postprocedural hyperpigmentation, hypopigmentation, and scar formation and therefore should be avoided in these populations.^12,13 A study involving 30 Asian patients (FSTs III-IV) demonstrated that the 1550-nm fractional laser was well tolerated, though higher treatment densities and fluences may lead to temporary adverse effects such as increased redness, swelling, and pain (P<.01).¹⁴ Furthermore, greater density was shown to cause higher levels of redness, hyperpigmentation, and swelling in comparison to higher fluence settings. Of note, patient satisfaction was markedly higher in patients who underwent treatment with higher fluence settings but not in patients with higher densities (P<.05). Postprocedural hyperpigmentation was noted in 6.7% (2/30) of patients studied.¹⁴ In another study, 8 patients with FSTs II to V were treated with either the 1064-nm long-pulsed Nd:YAG laser or the grid fractional monopolar radiofrequency laser.¹⁵ All participants experienced a significant decrease in mean wrinkle count using the Lemperle wrinkle assessment (P<.05). A significant decrease in mean wrinkle assessment score from 3.5 to 3.17 in clinical assessment and a decrease from 3.165 to 2.33 for photographic assessment was noted in patients treated with the grid laser (P<.05). A similar decrease in mean wrinkle assessment score was observed in the Nd:YAG group, with a mean decrease of 3.665 to 2.83 after 2 months for clinical assessment and 3.5 to 2.67 for photographic assessment. Among all patients in the study, 68% (6/8) experienced erythema, 25% (2/8) had a burning sensation, and 25% (2/8) experienced urticaria immediately postprocedure.¹⁵

Nonablative fractional resurfacing is preferred for the management of acne scars in patients with SOC. Adverse effects such as hyperpigmentation typically are transient, and the risk may be minimized with strict photoprotective practices following the procedure. Furthermore, avoidance of topicals containing exfoliants or α-hydroxy acids applied to the treated area following the procedure also may mitigate the risk for postprocedural hyperpigmentation.¹⁶ If hyperpigmentation does occur, use of topical melanogenesis inhibitors such as hydroquinone, kojic acid, or azelaic acid has shown some utility in practice.

Skin Rejuvenation

Nonablative fractional lasers (NAFLs) continue to be popular for treatment of photoaging. One study including 10 Asian patients (FSTs III-V) assessed the 1440-nm diode-based fractional laser for facial rejuvenation.¹⁷ After 4 sessions at 2-week intervals, 80% (8/10) of patients reported decreased skin roughness after both the second and third treatments, while 90% (9/10) had improved texture 1 month after the final procedure. Adverse effects included moderate facial edema and one case of transient hyperpigmentation.¹⁷ Another study reported a significant reduction in pore score (P<.002), with patients noting an overall improvement in skin appearance with minimal erythema, dryness, and flaking following 6 sessions at 2-week intervals using the 1440-nm diode-based fractional laser.¹⁸

The 1550-nm diode fractional laser significantly improved skin pigmentation (P<.001) and texture (P<.001) in 10 patients with FSTs II to IV following 5 sessions at 2- to 3-week intervals, with self-resolving erythema and edema posttreatment (Supplementary Table S2).¹⁹ Overall, NAFLs for the treatment of photoaging are effective with minimal adverse effects (eg, facial edema), which can be reduced with application of cold compression to the face and elevation of the head following treatment as well as the use of additional pillows during overnight sleep.

Laser Treatment for Hyperpigmentation Disorders

Melasma—The FDA recently approved fractional photothermolysis for the treatment of melasma; however, due to the risk for hyperpigmentation given its pathogenesis linked to hyperactive melanocytes, this laser is not considered a first-line therapy for melasma.²⁰ In a split-face, randomized study, 22 patients with FSTs III to V who were diagnosed with either dermal or mixed-type melasma were treated with a low-fluence Q-switched Nd:YAG laser combined with hydroquinone 2% vs hydroquinone 2% alone (Supplementary Table S3).²¹ Each patient was treated weekly for 5 consecutive weeks. The laser-treated side was found to reach an average of 92.5% improvement compared with 19.7% on the hydroquinone-only side. Three of the 22 (13.6%) patients developed mottled hypopigmentation after 5 laser treatments, and 8 (36.4%) developed confetti-type hypopigmentation. Four (18.2%) patients developed rebound hyperpigmentation, and all 22 patients experienced recurrence of melasma by 12 weeks posttreatment.²¹

First-line treatment for melasma involves the application of topical lightening agents such as hydroquinone, azelaic acid, kojic acid, retinoids, or mild topical steroids. Combining laser technology with topical medications can enhance treatment outcomes, particularly yielding positive results for patients with persistent pigmentation concerns. Notably, utilization of 650-microsecond technology with the 1064-nm Nd:YAG laser is considered superior in clinical practice, especially for patients with FSTs IV through VI.

Postinflammatory Hyperpigmentation—A retrospective evaluation of 61 patients with FSTs IV to VI with PIH treated with a 1927-nm NAFL showed a mean improvement of 43.24%, as assessed by 2 dermatologists.²² Additionally, the Nd:YAG 1064-nm 650-microsecond pulse duration laser is an emerging treatment that delivers high and low fluences between 4 J/cm² and 255 J/cm² within a single 650-microsecond pulse duration.²³ The short-pulse duration avoids overheating the skin, mitigating procedural discomfort and the risk for adverse effects commonly seen with the previous generation of low-pulsed lasers. In addition to PIH, this laser has been successfully used to treat pseudofolliculitis barbae.²⁴

Solar Lentigos—In a split-face study treating solar lentigos in Asian patients, 4 treatments with a low-pulsed KTP 532-nm laser were administered with and without a second treatment with a low-pulsed 1064-nm Nd:YAG laser.²⁵ Scoring of a modified pigment severity index and measurement of the melanin index showed that skin treated with the low-pulsed 532-nm laser alone and in combination with the low-pulsed 1064-nm Nd:YAG laser resulted in improvement at 3 months’ follow-up. However, there was no difference between the 2 sides of the face, leading the researchers to conclude that the low-pulsed 532-nm laser appears to be safe and effective for treatment of solar lentigos in Asian patients and does not require the addition of the low-pulsed 1064-nm laser.²⁵  

To avoid hyperpigmentation in patients with SOC, strict photoprotection to the treated areas should be advised. Proper cooling of the laser-treated area is required to minimize PIH, as cooling decreases tissue damage and excessive thermal injury. Test spots should be considered prior to initiation of the full laser treatment. Hydroquinone in a 4% concentration applied daily for 2 weeks preprocedure commonly is employed to reduce the risk for postprocedural hyperpigmentation in clinical practice.^26,27

Skin Tightening and Body Contouring

In general, skin-tightening and body-contouring devices are among the most sought-after procedures. Studies performed in patients with SOC are limited. Herein, we provide background on why these devices are favorable for patients with SOC and our experiences in using them. A summary of these devices can be found in Supplementary Table S4.

Radiofrequency Skin Tightening—Radiofrequency devices are utilized for skin tightening as well as mild fat reduction; they commonly are used on the abdomen, thighs, buttocks, and face.²⁸ People with SOC are more responsive to radiofrequency skin-tightening therapy due to higher baseline collagen content and dermal thickness, more sebaceous activity and skin elasticity, and more melanin content which offers protective thermal buffering.^29,30 As the radiofrequency device emits heat, penetrating deep into the dermis, it generates collagen remodeling and synthesis within 4 to 6 months posttreatment.

Nonsurgical Fat Reduction

Procedures for nonsurgical fat reduction are favorable due to minimal recovery time, manageable cost, and an in-office procedure setting. As noted previously, there are 6 FDA-indicated interventions for nonsurgical fat reduction: ultrasonography, cryolipolysis, laser lipolysis, injection lipolysis, radiofrequency lipolysis, and magnetic resonance contouring.³¹

Ultrasonography—Ultrasound devices designed for body contouring are used for skin tightening and mild fat reduction through the use of acoustic energy.³² These devices can be divided into 2 categories: high frequency and low frequency, with the high-frequency devices being the most popular. High-frequency ultrasound energy produces heat at target sites, which induces necrosis of adipocytes and stimulates collagen remodeling within the tissue matrix.³³ Tissue temperatures above 56°C stimulate adipocyte necrosis while sparing nearby nerves and vessels.²⁸ Because of the short duration of the procedure, the risk for epidermal damage is minimal. Contrary to high-frequency ultrasonography, focus-pulsed ultrasonography employs low-frequency waves to induce the mechanical disruption of adipocytes, which is generally better tolerated due to its nonthermal mechanism. The latter may be advantageous in patients with SOC due to a reduced risk for thermal injury to the epidermis. Multiple treatments often are needed at 3- to 4-week intervals, resulting in gradual improvement observed over 2 to 6 months. One study of microfocused ultrasonography in 25 Asian patients for treatment of face and neck laxity reported that skin laxity was improved or much improved in 84% (21/25) of patients following treatment.³⁴ Adverse effects were reported as mild and transient, resolving within 90 days.³⁴ Ultrasound devices also were shown to improve wrinkles, texture, and overall appearance of the skin in a 71-year-old African American woman 4 months following treatment (Figure 2). These photographs highlight the clinical utility of a microfocused ultrasound skin-tightening treatment in African American patients.

Cryolipolysis—Cryolipolysis is a noninvasive body contouring procedure that employs controlled cooling to induce subcutaneous panniculitis. Through cold-induced apoptosis of adipocytes, this procedure selectively reduces adipose tissue in localized areas such as the flank, abdomen, thighs, buttocks, back, submental area, and upper arms. The temperature used in cryolipolysis is approximately –10°C.³⁵ The lethal temperature for melanocytes is –4 °C, below which melanocyte apoptosis may be induced, resulting in depigmentation. Given the prolonged contact of the skin with a cryolipolysis device for up to 60 minutes during a body-contouring procedure, there is a risk for resultant depigmentation in darker skin types. Controlled studies are needed to fully evaluate the safety and efficacy of cryolipolysis in patients with SOC. One retrospective study of cryolipolysis applied to the abdomen and upper arm of 4122 Asian patients reported a significant (P<.05) reduction in the circumference of the abdomen and the upper-arm areas. No long-term adverse effects were reported.³⁶

Laser Lipolysis—The 1060-nm diode laser for body contouring selectively destroys adipose tissue, resulting in body contouring via thermally induced inflammation. Hyperthermic exposure for 15 minutes selectively elevates adipocyte temperature between 42°C to 47°C, which triggers apoptosis and the eventual clearance of destroyed cells from the interstitial space.³⁷ The selectivity of the 1060-nm wavelength coupled with the device’s contact cooling system preserves the overlying skin and adnexa during the procedure,³⁷ which would minimize epidermal damage that may induce dyspigmentation in patients with SOC. No notable adverse effects or dyspigmentation have been reported using this device.

Injection Lipolysis—Deoxycholic acid is an injectable adipocytolytic for the reduction of submental fat. It nonselectively lyses muscle and other adjacent nonfatty tissue. One study of 50 Indian patients demonstrated a substantial reduction of submental fat in 90% (45/50).³⁸ For each treatment, 5 mL of 30 mg/mL deoxycholic acid was injected. Serial sessions were conducted at 2-month intervals, and most (64% [32/50]) patients required 3 sessions to see a treatment effect. Adverse effects included transient swelling, lumpiness, and tenderness. A phase 2a investigation of the novel injectable small-molecule drug CBL-514 in 43 Asian and White participants found a significant improvement in the reduction in abdominal fat volume (P<.00001) and thickness (P<.0001) relative to baseline at higher doses (unit dose, 2.0 mg/cm² and 1.6 mg/cm²).³⁹ In addition to the adverse effects mentioned previously, pruritus, repeated urticaria, body rash, and fever also were reported.³⁹  

Radiofrequency Lipolysis—Radiofrequency is used for adipolysis through heat-induced apoptosis. To achieve this effect, adipose tissue must sustain a temperature of 42 °C to 45 °C for at least 15 minutes.⁴⁰ In one study, 4 treatments performed at 7-day intervals resulted in a statistically significant reduction in circumference to the treated areas of the inner and outer thighs without any reported adverse effects (P<0.001).⁴¹ Of note, there was 1 cm of distance between the applicator and the skin. The absence of direct contact with the skin is likely to reduce the risk for postprocedural complications in patients with SOC.

Magnetic Resonance Contouring—Magnetic resonance contouring with high-intensity focused electromagnetic technology is an emerging treatment modality for noninvasive body contouring. One distinguishing characteristic from other currently available noninvasive fat-­reduction therapies is that magnetic resonance may improve strength, tone, and muscle thickness.⁴² This modality is FDA approved for contouring of the buttocks and abdomen and employs electromagnetic energy to stimulate approximately 20,000 muscle contractions within a time frame of 30 minutes. Though the mechanisms causing benefits to muscular and adipose tissue have not been elucidated, current findings suggest that the contractions stimulate substantial lipolysis of adipocytes, resulting in the release of large amounts of free fatty acids that cause damage to nearby adipose tissue.⁴³ Multiple treatments are required over time to maintain effect. No major adverse effects have been reported. The likely mechanism of action of magnetic resonance contouring does not appear to pose an increased risk to patients with SOC.

Final Thoughts

One of the major roadblocks in distilling indications along with associated risks and benefits for nonsurgical cosmetic practices for patients with SOC is a void in the primary literature involving these populations. Clinical experience serves to address this deficit in combination with a thorough review of the literature. The 1064-nm Nd:YAG laser has shown clinical utility in the treatment of DPN, melanoma, and acne scars, but it poses financial constraints to the provider in comparison to modalities used for many years. Notably, NAF resurfacing is preferred for the management of acne scars in patients with SOC and continues to gain popularity for the treatment of photoaging. Regarding skin-tightening and body-contouring devices, studies performed in patients with SOC are limited and affected by factors such as small sample sizes, underrepresentation of FSTs IV through VI, short follow-up durations, and a lack of standardized outcome measures. Additionally, few studies assess pigmentary adverse effects or stratify results by skin type, which is critical given the higher risk for PIH in SOC. Ultrasound devices showed clinical utility in improvement of skin laxity, texture, and overall improvement. Patients with SOC respond well to skin-tightening devices due to the increased collagen synthesis. Regarding emerging devices for reduction of adipocytes, deoxycholic acid when injected showed notable improvement in fat reduction but also had adverse effects. As additional studies on cosmetic procedures in SOC emerge, an expansion of treatment options could be offered to this demographic group with confidence, provided proper treatment and follow-up protocols are in place.

A young boy with a habit of screaming when he didn’t get his way is among the patients Joannie Yeh, MD, a primary care physician at Nemours Children’s Health in Media, Pennsylvania, has helped in her practice.

Yeh taught the boy to stretch out his hands into the shape of a starfish, then trace around the edges of his fingers while breathing slowly and deeply. His parents later reported that after using the strategy at home, their son was no longer taking his rage out on his younger siblings.

Interventions like breathing exercises are just a few techniques Yeh hopes more primary care clinicians will teach young patients as mental health issues among this population soar to a national state of emergency, major medical groups say. But many children go without treatment because of shortages of mental health clinicians and long wait-lists for appointments.

“Knowledge of different types of interventions allows pediatricians to offer more options to families — more than just medication alone,” Yeh said. “There are some strategies, like cognitive behavioral therapy, that a therapist is equipped to deliver, but we can help explain them or teach simple skills that borrow from principles of higher-level techniques and can help patients and families while they wait to see a therapist.”

The use of techniques that are based on mindfulness, cognitive behavioral therapy, and psychotherapy are especially helpful to pediatricians after a child’s answers on a screener indicate they may be struggling with anxiety, depression, or attention-deficit/hyperactivity disorder (ADHD), said Theresa Nguyen, MD, chair of pediatrics at Greater Baltimore Medical Center, Baltimore.

“It kind of sucks if you come in worried and then your doctor says, ‘Okay, let me send you to a psychiatrist who you can’t see for 6 months; let me send you to a therapist who’s going to take a couple of weeks to get in with,’” Nguyen said.

Yeh said over the past few years she has cared for more youth coming in as follow-ups after an emergency department visit for a mental health episode.

“Oftentimes, this is the first time we become aware that the child is struggling,” Yeh said. “We are seeing issues like intentional medication overdose, referrals after other self-harm actions, or even the discovery of a note indicating the intention to do harm to self.”

Suicide deaths among 10- to 14-year-olds tripled between 2007 and 2018 and held steady through 2021, with rates climbing even among children as young as 8 years, according to a research in JAMA Network Open. Meanwhile, one in five high school students seriously contemplated suicide in 2023 (27% girls, 14% boys).

 

Mental Health Strategies for Kids in Primary Care

While pediatricians cannot replace a mental health professional, they have the unique advantage of maintaining a long-term relationship with patients. Experts said clinicians should take an active role in supporting the mental health of patients through a variety of evidence-based strategies.

Changing Thought Patterns 

Cognitive-behavioral therapy (CBT) involves identifying and challenging automatic negative thoughts, which can affect a child’s emotional state and lead to behaviors like withdrawal or lashing out.

Yeh recommended asking a child about what is bothering them, pointing out unhelpful and negative thoughts, and then offering a different, positive one instead.

She also often draws a picture of the CBT chart, which is a visual representation of how feelings lead to thoughts, and then behaviors.

“I draw this diagram because it helps give the patients a visual understanding of how their feelings and emotions are connected,” Yeh said.

 

Tools to Tolerate Stressful Situations

Simple tools like breathing exercises, body scanning, and physical exercise can help children better tolerate distress.

Pediatricians can also recommend families use guided meditations, which have been shown to lower anxiety and increase positive social behavior, said Mollie Grow, MD, an associate professor of pediatrics at the University of Washington Medicine and Seattle Children’s Hospital, both in Seattle.

But a child might first need to get negative energy out before they can become calm.

“So I’m like, ‘okay, let’s do actual physical exercise. Give me 10 jumping jacks.’ No one’s nervous after those jumping jacks,” Nguyen said. “When you’ve already been triggered, your nerves have gotten going, and you’re starting to spiral, you can’t slow yourself down enough to do a breathing exercise.”

Nguyen also said that cold water quickly calms the nervous system.

“I’ll run cold water in the office and have them put their hand in it until it’s almost frozen,” and the child or teen is able to think more clearly, Nguyen said. “It’s a real physiological response. It works.”

 

The Origin of a Feeling 

Explaining how symptoms of anxiety, depression, or ADHD work can help children and teens better understand that what they are experiencing is normal and better cope, Yeh said.

Clinicians might teach patients about how shallow breathing — a symptom of anxiety — is a result of the brain scanning for danger, and how slowing breathing tricks the brain into feeling safe again.

 

Barriers Abound

The use of these interventions in pediatric settings is not yet widespread, Grow said.

But starting in July 2025, the Accreditation Council for Graduate Medical Education will require pediatric residencies to include 4 weeks of mental health training. How that requirement is fulfilled will be up to residencies, said Brian Alverson, MD, pediatric program director and vice-chair of education at Nemours Children’s Hospital in Wilmington, Delaware.

Even with training, many pediatricians lack the time to address mental health issues during an office visit, said Carlos Lerner, MD, a professor of clinical pediatrics at University of California, Los Angeles Health. And despite low or sometimes no reimbursement for discussing these issues with patients, “the reality is we end up doing it anyway.”

Treating issues like anxiety and depression “is a daily, constant part of the care that I provide for my patients,” said Lerner. “Whether the pandemic or social media exacerbated it, we are absolutely seeing a rise in mental health issues.”

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

A young boy with a habit of screaming when he didn’t get his way is among the patients Joannie Yeh, MD, a primary care physician at Nemours Children’s Health in Media, Pennsylvania, has helped in her practice.

Yeh taught the boy to stretch out his hands into the shape of a starfish, then trace around the edges of his fingers while breathing slowly and deeply. His parents later reported that after using the strategy at home, their son was no longer taking his rage out on his younger siblings.

Interventions like breathing exercises are just a few techniques Yeh hopes more primary care clinicians will teach young patients as mental health issues among this population soar to a national state of emergency, major medical groups say. But many children go without treatment because of shortages of mental health clinicians and long wait-lists for appointments.

“Knowledge of different types of interventions allows pediatricians to offer more options to families — more than just medication alone,” Yeh said. “There are some strategies, like cognitive behavioral therapy, that a therapist is equipped to deliver, but we can help explain them or teach simple skills that borrow from principles of higher-level techniques and can help patients and families while they wait to see a therapist.”

The use of techniques that are based on mindfulness, cognitive behavioral therapy, and psychotherapy are especially helpful to pediatricians after a child’s answers on a screener indicate they may be struggling with anxiety, depression, or attention-deficit/hyperactivity disorder (ADHD), said Theresa Nguyen, MD, chair of pediatrics at Greater Baltimore Medical Center, Baltimore.

“It kind of sucks if you come in worried and then your doctor says, ‘Okay, let me send you to a psychiatrist who you can’t see for 6 months; let me send you to a therapist who’s going to take a couple of weeks to get in with,’” Nguyen said.

Yeh said over the past few years she has cared for more youth coming in as follow-ups after an emergency department visit for a mental health episode.

“Oftentimes, this is the first time we become aware that the child is struggling,” Yeh said. “We are seeing issues like intentional medication overdose, referrals after other self-harm actions, or even the discovery of a note indicating the intention to do harm to self.”

Suicide deaths among 10- to 14-year-olds tripled between 2007 and 2018 and held steady through 2021, with rates climbing even among children as young as 8 years, according to a research in JAMA Network Open. Meanwhile, one in five high school students seriously contemplated suicide in 2023 (27% girls, 14% boys).

 

Mental Health Strategies for Kids in Primary Care

While pediatricians cannot replace a mental health professional, they have the unique advantage of maintaining a long-term relationship with patients. Experts said clinicians should take an active role in supporting the mental health of patients through a variety of evidence-based strategies.

Changing Thought Patterns 

Cognitive-behavioral therapy (CBT) involves identifying and challenging automatic negative thoughts, which can affect a child’s emotional state and lead to behaviors like withdrawal or lashing out.

Yeh recommended asking a child about what is bothering them, pointing out unhelpful and negative thoughts, and then offering a different, positive one instead.

She also often draws a picture of the CBT chart, which is a visual representation of how feelings lead to thoughts, and then behaviors.

“I draw this diagram because it helps give the patients a visual understanding of how their feelings and emotions are connected,” Yeh said.

 

Tools to Tolerate Stressful Situations

Simple tools like breathing exercises, body scanning, and physical exercise can help children better tolerate distress.

Pediatricians can also recommend families use guided meditations, which have been shown to lower anxiety and increase positive social behavior, said Mollie Grow, MD, an associate professor of pediatrics at the University of Washington Medicine and Seattle Children’s Hospital, both in Seattle.

But a child might first need to get negative energy out before they can become calm.

“So I’m like, ‘okay, let’s do actual physical exercise. Give me 10 jumping jacks.’ No one’s nervous after those jumping jacks,” Nguyen said. “When you’ve already been triggered, your nerves have gotten going, and you’re starting to spiral, you can’t slow yourself down enough to do a breathing exercise.”

Nguyen also said that cold water quickly calms the nervous system.

“I’ll run cold water in the office and have them put their hand in it until it’s almost frozen,” and the child or teen is able to think more clearly, Nguyen said. “It’s a real physiological response. It works.”

 

The Origin of a Feeling 

Explaining how symptoms of anxiety, depression, or ADHD work can help children and teens better understand that what they are experiencing is normal and better cope, Yeh said.

Clinicians might teach patients about how shallow breathing — a symptom of anxiety — is a result of the brain scanning for danger, and how slowing breathing tricks the brain into feeling safe again.

 

Barriers Abound

The use of these interventions in pediatric settings is not yet widespread, Grow said.

But starting in July 2025, the Accreditation Council for Graduate Medical Education will require pediatric residencies to include 4 weeks of mental health training. How that requirement is fulfilled will be up to residencies, said Brian Alverson, MD, pediatric program director and vice-chair of education at Nemours Children’s Hospital in Wilmington, Delaware.

Even with training, many pediatricians lack the time to address mental health issues during an office visit, said Carlos Lerner, MD, a professor of clinical pediatrics at University of California, Los Angeles Health. And despite low or sometimes no reimbursement for discussing these issues with patients, “the reality is we end up doing it anyway.”

Treating issues like anxiety and depression “is a daily, constant part of the care that I provide for my patients,” said Lerner. “Whether the pandemic or social media exacerbated it, we are absolutely seeing a rise in mental health issues.”

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

A young boy with a habit of screaming when he didn’t get his way is among the patients Joannie Yeh, MD, a primary care physician at Nemours Children’s Health in Media, Pennsylvania, has helped in her practice.

Yeh taught the boy to stretch out his hands into the shape of a starfish, then trace around the edges of his fingers while breathing slowly and deeply. His parents later reported that after using the strategy at home, their son was no longer taking his rage out on his younger siblings.

Interventions like breathing exercises are just a few techniques Yeh hopes more primary care clinicians will teach young patients as mental health issues among this population soar to a national state of emergency, major medical groups say. But many children go without treatment because of shortages of mental health clinicians and long wait-lists for appointments.

“Knowledge of different types of interventions allows pediatricians to offer more options to families — more than just medication alone,” Yeh said. “There are some strategies, like cognitive behavioral therapy, that a therapist is equipped to deliver, but we can help explain them or teach simple skills that borrow from principles of higher-level techniques and can help patients and families while they wait to see a therapist.”

The use of techniques that are based on mindfulness, cognitive behavioral therapy, and psychotherapy are especially helpful to pediatricians after a child’s answers on a screener indicate they may be struggling with anxiety, depression, or attention-deficit/hyperactivity disorder (ADHD), said Theresa Nguyen, MD, chair of pediatrics at Greater Baltimore Medical Center, Baltimore.

“It kind of sucks if you come in worried and then your doctor says, ‘Okay, let me send you to a psychiatrist who you can’t see for 6 months; let me send you to a therapist who’s going to take a couple of weeks to get in with,’” Nguyen said.

Yeh said over the past few years she has cared for more youth coming in as follow-ups after an emergency department visit for a mental health episode.

“Oftentimes, this is the first time we become aware that the child is struggling,” Yeh said. “We are seeing issues like intentional medication overdose, referrals after other self-harm actions, or even the discovery of a note indicating the intention to do harm to self.”

Suicide deaths among 10- to 14-year-olds tripled between 2007 and 2018 and held steady through 2021, with rates climbing even among children as young as 8 years, according to a research in JAMA Network Open. Meanwhile, one in five high school students seriously contemplated suicide in 2023 (27% girls, 14% boys).

 

Mental Health Strategies for Kids in Primary Care

While pediatricians cannot replace a mental health professional, they have the unique advantage of maintaining a long-term relationship with patients. Experts said clinicians should take an active role in supporting the mental health of patients through a variety of evidence-based strategies.

Changing Thought Patterns 

Cognitive-behavioral therapy (CBT) involves identifying and challenging automatic negative thoughts, which can affect a child’s emotional state and lead to behaviors like withdrawal or lashing out.

Yeh recommended asking a child about what is bothering them, pointing out unhelpful and negative thoughts, and then offering a different, positive one instead.

She also often draws a picture of the CBT chart, which is a visual representation of how feelings lead to thoughts, and then behaviors.

“I draw this diagram because it helps give the patients a visual understanding of how their feelings and emotions are connected,” Yeh said.

 

Tools to Tolerate Stressful Situations

Simple tools like breathing exercises, body scanning, and physical exercise can help children better tolerate distress.

Pediatricians can also recommend families use guided meditations, which have been shown to lower anxiety and increase positive social behavior, said Mollie Grow, MD, an associate professor of pediatrics at the University of Washington Medicine and Seattle Children’s Hospital, both in Seattle.

But a child might first need to get negative energy out before they can become calm.

“So I’m like, ‘okay, let’s do actual physical exercise. Give me 10 jumping jacks.’ No one’s nervous after those jumping jacks,” Nguyen said. “When you’ve already been triggered, your nerves have gotten going, and you’re starting to spiral, you can’t slow yourself down enough to do a breathing exercise.”

Nguyen also said that cold water quickly calms the nervous system.

“I’ll run cold water in the office and have them put their hand in it until it’s almost frozen,” and the child or teen is able to think more clearly, Nguyen said. “It’s a real physiological response. It works.”

 

The Origin of a Feeling 

Explaining how symptoms of anxiety, depression, or ADHD work can help children and teens better understand that what they are experiencing is normal and better cope, Yeh said.

Clinicians might teach patients about how shallow breathing — a symptom of anxiety — is a result of the brain scanning for danger, and how slowing breathing tricks the brain into feeling safe again.

 

Barriers Abound

The use of these interventions in pediatric settings is not yet widespread, Grow said.

But starting in July 2025, the Accreditation Council for Graduate Medical Education will require pediatric residencies to include 4 weeks of mental health training. How that requirement is fulfilled will be up to residencies, said Brian Alverson, MD, pediatric program director and vice-chair of education at Nemours Children’s Hospital in Wilmington, Delaware.

Even with training, many pediatricians lack the time to address mental health issues during an office visit, said Carlos Lerner, MD, a professor of clinical pediatrics at University of California, Los Angeles Health. And despite low or sometimes no reimbursement for discussing these issues with patients, “the reality is we end up doing it anyway.”

Treating issues like anxiety and depression “is a daily, constant part of the care that I provide for my patients,” said Lerner. “Whether the pandemic or social media exacerbated it, we are absolutely seeing a rise in mental health issues.”

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

Recently one of my keep-up-to-date apps alerted me to a study in Pediatric Dermatology on sleep and atopic dermatitis. When I chased down the abstract it was a shoulder-shrugging-so-what encounter. The authors reported that having a child with atopic dermatitis decreased the odds of a parent getting 7 hours of sleep a night and increased the odds that the parent was also taking sleep-aiding medications. The authors felt their data was meaningful enough to publish based on the size and the cross-sectional nature of their sample. However, anyone who has worked with families with atopic dermatitis shouldn’t be surprised at their findings.

Curious about what other investigators had discovered about the anecdotally obvious relationship between sleep and atopic dermatitis, I dug until I found a rather thorough discussion of the literature published in The Journal of Clinical Immunology Practice. These authors from the University of Rochester Medical School in New York begin by pointing out that, although 47%-80% of children with atopic dermatitis and 33%-90% of adults with atopic dermatitis have disturbed sleep, “literature on this topic remains sparse with most studies evaluating sleep as a secondary outcome using subjective measures.” They further note that sleep is one of the three most problematic symptoms for children with atopic dermatitis and their families. 

 

Characterizing the Sleep Loss

Difficulty falling asleep, frequent and long waking, and excessive daytime sleepiness are the most common symptoms reported. In the few sleep laboratory studies that have been done there has been no significant decrease in sleep duration, which is a bit of a surprise. However, as expected, sleep-onset latency, more wake time after sleep onset, sleep fragmentation, and decreased sleep efficiency have been observed in the atopic dermatitis patients. In other studies of younger children, female gender and lower socioeconomic status seem to be associated with poor sleep quality.

Most studies found that in general the prevalence and severity of sleep disturbances increases with the severity of the disease. As the disease flares, increased bedtime resistance, nocturnal wakings and daytime sleepiness become more likely. These parentally reported associations have also been confirmed by sleep laboratory observations. 

The sleep disturbances quickly become a family affair with 60% of siblings and parents reporting disturbed sleep. When the child with atopic dermatitis is having a flareup, nearly 90% of their parents report losing up to 2.5 hours of sleep. Not surprisingly sleep disturbances have been associated with behavioral and emotional problems including decreased happiness, poor cognitive performance, hyperactivity, and inattention. Mothers seem to bear the brunt of the problem and interpersonal conflicts and exhaustion are unfortunately not uncommon.

 

Probing the Causes

So why are atopic dermatitis patients and their families so prone to the ill effects of disturbed sleep? Although you might think it should be obvious, this review of the “sparse” literature doesn’t provide a satisfying answer. However, the authors provide three possible explanations.

The one with the least supporting evidence is circadian variations in the products of inflammation such as cytokines and their effect on melatonin production. The explanation which I think most of us have already considered is that pruritus disrupts sleep. This is the often-quoted itch-scratch feedback cycle which can release inflammatory mediators (“pruritogens”). However, the investigators have found that many studies report “conflicting results or only weak correlations.”

The third alternative posed by the authors is by far the most appealing and hinges on the assumption that, as with many other chronic conditions, atopic dermatitis renders the patient vulnerable to insomnia. “Nocturnal scratching disrupts sleep and sets the stage for cognitive and behavioral factors that reinforce insomnia as a conditioned response.” In other words, even after the “co-concurring condition” resolves insomnia related sleep behaviors continue. The investigators point to a study supporting this explanation which found that, even after a child’s skin cleared, his/her sleep arousals failed to return to normal suggesting that learned behavior patterns might be playing a role.

It may be a stretch to suggest that poor sleep hygiene might in and of itself cause atopic dermatitis, but it can’t be ruled out. At a minimum the current research suggests that there is a bidirectional relationship between sleep disturbances and atopic dermatitis. 

 

Next Steps

The authors of this study urge that we be more creative in using already-existing portable and relatively low-cost sleep monitoring technology to better define this relationship. While that is a worthwhile avenue for research, I think we who see children (both primary care providers and dermatologists) now have enough evidence to move managing the sleep hygiene of our atopic dermatitis patients to the front burner, along with moisturizers and topical medications, without needing to do costly and time-consuming studies.

This means taking a thorough sleep history. If, in the rare cases where the child’s sleep habits are normal, the parents should be warned that falling off the sleep wagon is likely to exacerbate the child’s skin. If the history reveals an inefficient and dysfunctional bedtime routine or other symptoms of insomnia, advise the parents on how it can be improved. Then follow up at each visit if there has been no improvement. Sleep management can be time-consuming as well but it should be part of every primary care pediatrician’s toolbox. For the dermatologist who doesn’t feel comfortable managing sleep problems, a consultation with a pediatrician or a sleep specialist is in order.

The adult with atopic dermatitis is a somewhat different animal and a formal sleep study may be indicated. Cognitive-behavioral therapy might be helpful for adult population but the investigators could find no trials of its use in patients with atopic dermatitis.

Convincing the parents of an atopic dermatitis patient that their family’s disturbed sleep may not only be the result of his/her itchy skin but may be a preexisting compounding problem may not be an easy sell. I hope if you can be open to the strong possibility that disordered sleep is not just the effect but in some ways may be a likely contributor to your patients’ atopic dermatitis, you may become more effective in managing the disease.

Dr. Wilkoff practiced primary care pediatrics in Brunswick, Maine, for nearly 40 years. He has authored several books on behavioral pediatrics, including “How to Say No to Your Toddler.” Other than a Littman stethoscope he accepted as a first-year medical student in 1966, Dr. Wilkoff reports having nothing to disclose. Email him at pdnews@mdedge.com.

Recently one of my keep-up-to-date apps alerted me to a study in Pediatric Dermatology on sleep and atopic dermatitis. When I chased down the abstract it was a shoulder-shrugging-so-what encounter. The authors reported that having a child with atopic dermatitis decreased the odds of a parent getting 7 hours of sleep a night and increased the odds that the parent was also taking sleep-aiding medications. The authors felt their data was meaningful enough to publish based on the size and the cross-sectional nature of their sample. However, anyone who has worked with families with atopic dermatitis shouldn’t be surprised at their findings.

Curious about what other investigators had discovered about the anecdotally obvious relationship between sleep and atopic dermatitis, I dug until I found a rather thorough discussion of the literature published in The Journal of Clinical Immunology Practice. These authors from the University of Rochester Medical School in New York begin by pointing out that, although 47%-80% of children with atopic dermatitis and 33%-90% of adults with atopic dermatitis have disturbed sleep, “literature on this topic remains sparse with most studies evaluating sleep as a secondary outcome using subjective measures.” They further note that sleep is one of the three most problematic symptoms for children with atopic dermatitis and their families. 

 

Characterizing the Sleep Loss

Difficulty falling asleep, frequent and long waking, and excessive daytime sleepiness are the most common symptoms reported. In the few sleep laboratory studies that have been done there has been no significant decrease in sleep duration, which is a bit of a surprise. However, as expected, sleep-onset latency, more wake time after sleep onset, sleep fragmentation, and decreased sleep efficiency have been observed in the atopic dermatitis patients. In other studies of younger children, female gender and lower socioeconomic status seem to be associated with poor sleep quality.

Most studies found that in general the prevalence and severity of sleep disturbances increases with the severity of the disease. As the disease flares, increased bedtime resistance, nocturnal wakings and daytime sleepiness become more likely. These parentally reported associations have also been confirmed by sleep laboratory observations. 

The sleep disturbances quickly become a family affair with 60% of siblings and parents reporting disturbed sleep. When the child with atopic dermatitis is having a flareup, nearly 90% of their parents report losing up to 2.5 hours of sleep. Not surprisingly sleep disturbances have been associated with behavioral and emotional problems including decreased happiness, poor cognitive performance, hyperactivity, and inattention. Mothers seem to bear the brunt of the problem and interpersonal conflicts and exhaustion are unfortunately not uncommon.

 

Probing the Causes

So why are atopic dermatitis patients and their families so prone to the ill effects of disturbed sleep? Although you might think it should be obvious, this review of the “sparse” literature doesn’t provide a satisfying answer. However, the authors provide three possible explanations.

The one with the least supporting evidence is circadian variations in the products of inflammation such as cytokines and their effect on melatonin production. The explanation which I think most of us have already considered is that pruritus disrupts sleep. This is the often-quoted itch-scratch feedback cycle which can release inflammatory mediators (“pruritogens”). However, the investigators have found that many studies report “conflicting results or only weak correlations.”

The third alternative posed by the authors is by far the most appealing and hinges on the assumption that, as with many other chronic conditions, atopic dermatitis renders the patient vulnerable to insomnia. “Nocturnal scratching disrupts sleep and sets the stage for cognitive and behavioral factors that reinforce insomnia as a conditioned response.” In other words, even after the “co-concurring condition” resolves insomnia related sleep behaviors continue. The investigators point to a study supporting this explanation which found that, even after a child’s skin cleared, his/her sleep arousals failed to return to normal suggesting that learned behavior patterns might be playing a role.

It may be a stretch to suggest that poor sleep hygiene might in and of itself cause atopic dermatitis, but it can’t be ruled out. At a minimum the current research suggests that there is a bidirectional relationship between sleep disturbances and atopic dermatitis. 

 

Next Steps

The authors of this study urge that we be more creative in using already-existing portable and relatively low-cost sleep monitoring technology to better define this relationship. While that is a worthwhile avenue for research, I think we who see children (both primary care providers and dermatologists) now have enough evidence to move managing the sleep hygiene of our atopic dermatitis patients to the front burner, along with moisturizers and topical medications, without needing to do costly and time-consuming studies.

This means taking a thorough sleep history. If, in the rare cases where the child’s sleep habits are normal, the parents should be warned that falling off the sleep wagon is likely to exacerbate the child’s skin. If the history reveals an inefficient and dysfunctional bedtime routine or other symptoms of insomnia, advise the parents on how it can be improved. Then follow up at each visit if there has been no improvement. Sleep management can be time-consuming as well but it should be part of every primary care pediatrician’s toolbox. For the dermatologist who doesn’t feel comfortable managing sleep problems, a consultation with a pediatrician or a sleep specialist is in order.

The adult with atopic dermatitis is a somewhat different animal and a formal sleep study may be indicated. Cognitive-behavioral therapy might be helpful for adult population but the investigators could find no trials of its use in patients with atopic dermatitis.

Convincing the parents of an atopic dermatitis patient that their family’s disturbed sleep may not only be the result of his/her itchy skin but may be a preexisting compounding problem may not be an easy sell. I hope if you can be open to the strong possibility that disordered sleep is not just the effect but in some ways may be a likely contributor to your patients’ atopic dermatitis, you may become more effective in managing the disease.

Dr. Wilkoff practiced primary care pediatrics in Brunswick, Maine, for nearly 40 years. He has authored several books on behavioral pediatrics, including “How to Say No to Your Toddler.” Other than a Littman stethoscope he accepted as a first-year medical student in 1966, Dr. Wilkoff reports having nothing to disclose. Email him at pdnews@mdedge.com.

Recently one of my keep-up-to-date apps alerted me to a study in Pediatric Dermatology on sleep and atopic dermatitis. When I chased down the abstract it was a shoulder-shrugging-so-what encounter. The authors reported that having a child with atopic dermatitis decreased the odds of a parent getting 7 hours of sleep a night and increased the odds that the parent was also taking sleep-aiding medications. The authors felt their data was meaningful enough to publish based on the size and the cross-sectional nature of their sample. However, anyone who has worked with families with atopic dermatitis shouldn’t be surprised at their findings.

Curious about what other investigators had discovered about the anecdotally obvious relationship between sleep and atopic dermatitis, I dug until I found a rather thorough discussion of the literature published in The Journal of Clinical Immunology Practice. These authors from the University of Rochester Medical School in New York begin by pointing out that, although 47%-80% of children with atopic dermatitis and 33%-90% of adults with atopic dermatitis have disturbed sleep, “literature on this topic remains sparse with most studies evaluating sleep as a secondary outcome using subjective measures.” They further note that sleep is one of the three most problematic symptoms for children with atopic dermatitis and their families. 

 

Characterizing the Sleep Loss

Difficulty falling asleep, frequent and long waking, and excessive daytime sleepiness are the most common symptoms reported. In the few sleep laboratory studies that have been done there has been no significant decrease in sleep duration, which is a bit of a surprise. However, as expected, sleep-onset latency, more wake time after sleep onset, sleep fragmentation, and decreased sleep efficiency have been observed in the atopic dermatitis patients. In other studies of younger children, female gender and lower socioeconomic status seem to be associated with poor sleep quality.

Most studies found that in general the prevalence and severity of sleep disturbances increases with the severity of the disease. As the disease flares, increased bedtime resistance, nocturnal wakings and daytime sleepiness become more likely. These parentally reported associations have also been confirmed by sleep laboratory observations. 

The sleep disturbances quickly become a family affair with 60% of siblings and parents reporting disturbed sleep. When the child with atopic dermatitis is having a flareup, nearly 90% of their parents report losing up to 2.5 hours of sleep. Not surprisingly sleep disturbances have been associated with behavioral and emotional problems including decreased happiness, poor cognitive performance, hyperactivity, and inattention. Mothers seem to bear the brunt of the problem and interpersonal conflicts and exhaustion are unfortunately not uncommon.

 

Probing the Causes

So why are atopic dermatitis patients and their families so prone to the ill effects of disturbed sleep? Although you might think it should be obvious, this review of the “sparse” literature doesn’t provide a satisfying answer. However, the authors provide three possible explanations.

The one with the least supporting evidence is circadian variations in the products of inflammation such as cytokines and their effect on melatonin production. The explanation which I think most of us have already considered is that pruritus disrupts sleep. This is the often-quoted itch-scratch feedback cycle which can release inflammatory mediators (“pruritogens”). However, the investigators have found that many studies report “conflicting results or only weak correlations.”

The third alternative posed by the authors is by far the most appealing and hinges on the assumption that, as with many other chronic conditions, atopic dermatitis renders the patient vulnerable to insomnia. “Nocturnal scratching disrupts sleep and sets the stage for cognitive and behavioral factors that reinforce insomnia as a conditioned response.” In other words, even after the “co-concurring condition” resolves insomnia related sleep behaviors continue. The investigators point to a study supporting this explanation which found that, even after a child’s skin cleared, his/her sleep arousals failed to return to normal suggesting that learned behavior patterns might be playing a role.

It may be a stretch to suggest that poor sleep hygiene might in and of itself cause atopic dermatitis, but it can’t be ruled out. At a minimum the current research suggests that there is a bidirectional relationship between sleep disturbances and atopic dermatitis. 

 

Next Steps

The authors of this study urge that we be more creative in using already-existing portable and relatively low-cost sleep monitoring technology to better define this relationship. While that is a worthwhile avenue for research, I think we who see children (both primary care providers and dermatologists) now have enough evidence to move managing the sleep hygiene of our atopic dermatitis patients to the front burner, along with moisturizers and topical medications, without needing to do costly and time-consuming studies.

This means taking a thorough sleep history. If, in the rare cases where the child’s sleep habits are normal, the parents should be warned that falling off the sleep wagon is likely to exacerbate the child’s skin. If the history reveals an inefficient and dysfunctional bedtime routine or other symptoms of insomnia, advise the parents on how it can be improved. Then follow up at each visit if there has been no improvement. Sleep management can be time-consuming as well but it should be part of every primary care pediatrician’s toolbox. For the dermatologist who doesn’t feel comfortable managing sleep problems, a consultation with a pediatrician or a sleep specialist is in order.

The adult with atopic dermatitis is a somewhat different animal and a formal sleep study may be indicated. Cognitive-behavioral therapy might be helpful for adult population but the investigators could find no trials of its use in patients with atopic dermatitis.

Convincing the parents of an atopic dermatitis patient that their family’s disturbed sleep may not only be the result of his/her itchy skin but may be a preexisting compounding problem may not be an easy sell. I hope if you can be open to the strong possibility that disordered sleep is not just the effect but in some ways may be a likely contributor to your patients’ atopic dermatitis, you may become more effective in managing the disease.

Dr. Wilkoff practiced primary care pediatrics in Brunswick, Maine, for nearly 40 years. He has authored several books on behavioral pediatrics, including “How to Say No to Your Toddler.” Other than a Littman stethoscope he accepted as a first-year medical student in 1966, Dr. Wilkoff reports having nothing to disclose. Email him at pdnews@mdedge.com.

Children who were severely ill with multisystem inflammatory syndrome in children (MIS-C) related to COVID-19 infection appear to show excellent cardiovascular and noncardiovascular outcomes by 6 months, according to data published in JAMA Pediatrics.

MIS-C is a life-threatening complication of COVID-19 infection and data on outcomes are limited, wrote the authors, led by Dongngan T. Truong, MD, MSSI, with Children’s Healthcare of Atlanta Cardiology, Emory University School of Medicine in Atlanta, Georgia. These 6-month results are from the Long-Term Outcomes After the Multisystem Inflammatory Syndrome in Children (MUSIC) study, sponsored by the National Heart, Lung, and Blood Institute.

Researchers found in this cohort study of 1204 participants that by 6 months after hospital discharge, 99% had normalization of left ventricular systolic function, and 92.3% had normalized coronary artery dimensions. More than 95% reported being more than 90% back to baseline health.

Patient-Reported Outcomes Measurement Information Systems (PROMIS) Global Health scores were at least equivalent to prepandemic population normative values. PROMIS Global Health parent/guardian proxy median T scores for fatigue, global health, and pain interference improved significantly from 2 weeks to 6 months: fatigue, 56.1 vs 48.9; global health, 48.8 vs 51.3; pain interference, 53.0 vs 43.3 (P < .001).

The most common symptoms reported at 2 weeks were fatigue (15.9%) and low stamina/energy (9.2%); both decreased to 3.4% and 3.3%, respectively, by 6 months. The most common cardiovascular symptom at 2 weeks was palpitations (1.5%), which decreased to 0.6%.

 

Chest Pain Increased Over Time

Reports of chest pain, however, reportedly increased over time, with 1.3% reporting chest pain at rest at 2 weeks and 2.2% at 6 months. Although gastrointestinal symptoms were common during the acute MIS-C, only 5.3% of respondents reported those symptoms at 2 weeks.

Children in the cohort had a median age of 9 years, and 60% were men. They self-identified with the following races and ethnicities: American Indian or Alaska Native (0.1%), Asian (3.3%), Black (27.0%), Hawaiian Native or Other Pacific Islander (0.2%), Hispanic or Latino (26.9%), multiracial (2.7%), White (31.2%), other (1.0%), and unknown or refused to specify (7.6%). Authors wrote that the cohort was followed-up to 2 years after illness onset and long-term results are not yet known.

 

Time to Exhale

David J. Goldberg, MD, with the Cardiac Center, Children’s Hospital of Philadelphia, Pennsylvania, and colleagues, wrote in an accompanying editorial that “the decreased frequency of the disease along (with) the reassuring reports on midterm outcomes can allow the pediatric community a moment of collective exhale.”

The editorialists note that of those who initially presented with myocardial dysfunction, all but one patient evaluated had a normal ejection fraction at follow-up. Energy, sleep, appetite, cognition, and mood also normalized by midterm.

“The results of the MUSIC study add to the emerging midterm outcomes data suggesting a near-complete cardiovascular recovery in the overwhelming majority of patients who develop MIS-C,” Goldberg and colleagues wrote. “Despite initial concerns, driven by the severity of acute presentation at diagnosis and longer-term questions that remain (for example, does coronary microvascular dysfunction persist even after normalization of coronary artery z score?), these data suggest an encouraging outlook for the long-term health of affected children.”

The Centers for Disease Control and Prevention and other agencies have reported a declining overall incidence of MIS-C and highlighted the protective value of vaccination. 

The editorialists add, however, that while the drop in MIS-C cases is encouraging, cases are still reported, especially amid high viral activity periods, “and nearly half of affected children continue to require intensive care in the acute phase of illness.”

Truong reported grants from the National Institutes of Health and serving as coprincipal investigator for Pfizer for research on COVID-19 vaccine-associated myocarditis funded by Pfizer and occurring through the framework of the National Heart, Lung, and Blood Institute’s Pediatric Heart Network outside the submitted work. One coauthor reported grants from Pfizer and Boston Scientific outside the submitted work. One coauthor reported receiving grants from Additional Ventures Foundation outside the submitted work. One coauthor reported receiving consultant fees from Amryt Pharma, Chiesi, Esperion, and Ultragenyx outside the submitted work. A coauthor reported receiving consultant fees from Larimar Therapeutics for mitochondrial therapies outside the submitted work. One coauthor reported being an employee of Takeda Pharmaceuticals since July 2023. One editorialist reported grants from Childhood Arthritis and Rheumatology Research Alliance and the Arthritis Foundation, Academy Health, and the Gordon and Betty Moore Foundation during the conduct of the study.

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

Children who were severely ill with multisystem inflammatory syndrome in children (MIS-C) related to COVID-19 infection appear to show excellent cardiovascular and noncardiovascular outcomes by 6 months, according to data published in JAMA Pediatrics.

MIS-C is a life-threatening complication of COVID-19 infection and data on outcomes are limited, wrote the authors, led by Dongngan T. Truong, MD, MSSI, with Children’s Healthcare of Atlanta Cardiology, Emory University School of Medicine in Atlanta, Georgia. These 6-month results are from the Long-Term Outcomes After the Multisystem Inflammatory Syndrome in Children (MUSIC) study, sponsored by the National Heart, Lung, and Blood Institute.

Researchers found in this cohort study of 1204 participants that by 6 months after hospital discharge, 99% had normalization of left ventricular systolic function, and 92.3% had normalized coronary artery dimensions. More than 95% reported being more than 90% back to baseline health.

Patient-Reported Outcomes Measurement Information Systems (PROMIS) Global Health scores were at least equivalent to prepandemic population normative values. PROMIS Global Health parent/guardian proxy median T scores for fatigue, global health, and pain interference improved significantly from 2 weeks to 6 months: fatigue, 56.1 vs 48.9; global health, 48.8 vs 51.3; pain interference, 53.0 vs 43.3 (P < .001).

The most common symptoms reported at 2 weeks were fatigue (15.9%) and low stamina/energy (9.2%); both decreased to 3.4% and 3.3%, respectively, by 6 months. The most common cardiovascular symptom at 2 weeks was palpitations (1.5%), which decreased to 0.6%.

 

Chest Pain Increased Over Time

Reports of chest pain, however, reportedly increased over time, with 1.3% reporting chest pain at rest at 2 weeks and 2.2% at 6 months. Although gastrointestinal symptoms were common during the acute MIS-C, only 5.3% of respondents reported those symptoms at 2 weeks.

Children in the cohort had a median age of 9 years, and 60% were men. They self-identified with the following races and ethnicities: American Indian or Alaska Native (0.1%), Asian (3.3%), Black (27.0%), Hawaiian Native or Other Pacific Islander (0.2%), Hispanic or Latino (26.9%), multiracial (2.7%), White (31.2%), other (1.0%), and unknown or refused to specify (7.6%). Authors wrote that the cohort was followed-up to 2 years after illness onset and long-term results are not yet known.

 

Time to Exhale

David J. Goldberg, MD, with the Cardiac Center, Children’s Hospital of Philadelphia, Pennsylvania, and colleagues, wrote in an accompanying editorial that “the decreased frequency of the disease along (with) the reassuring reports on midterm outcomes can allow the pediatric community a moment of collective exhale.”

The editorialists note that of those who initially presented with myocardial dysfunction, all but one patient evaluated had a normal ejection fraction at follow-up. Energy, sleep, appetite, cognition, and mood also normalized by midterm.

“The results of the MUSIC study add to the emerging midterm outcomes data suggesting a near-complete cardiovascular recovery in the overwhelming majority of patients who develop MIS-C,” Goldberg and colleagues wrote. “Despite initial concerns, driven by the severity of acute presentation at diagnosis and longer-term questions that remain (for example, does coronary microvascular dysfunction persist even after normalization of coronary artery z score?), these data suggest an encouraging outlook for the long-term health of affected children.”

The Centers for Disease Control and Prevention and other agencies have reported a declining overall incidence of MIS-C and highlighted the protective value of vaccination. 

The editorialists add, however, that while the drop in MIS-C cases is encouraging, cases are still reported, especially amid high viral activity periods, “and nearly half of affected children continue to require intensive care in the acute phase of illness.”

Truong reported grants from the National Institutes of Health and serving as coprincipal investigator for Pfizer for research on COVID-19 vaccine-associated myocarditis funded by Pfizer and occurring through the framework of the National Heart, Lung, and Blood Institute’s Pediatric Heart Network outside the submitted work. One coauthor reported grants from Pfizer and Boston Scientific outside the submitted work. One coauthor reported receiving grants from Additional Ventures Foundation outside the submitted work. One coauthor reported receiving consultant fees from Amryt Pharma, Chiesi, Esperion, and Ultragenyx outside the submitted work. A coauthor reported receiving consultant fees from Larimar Therapeutics for mitochondrial therapies outside the submitted work. One coauthor reported being an employee of Takeda Pharmaceuticals since July 2023. One editorialist reported grants from Childhood Arthritis and Rheumatology Research Alliance and the Arthritis Foundation, Academy Health, and the Gordon and Betty Moore Foundation during the conduct of the study.

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

Children who were severely ill with multisystem inflammatory syndrome in children (MIS-C) related to COVID-19 infection appear to show excellent cardiovascular and noncardiovascular outcomes by 6 months, according to data published in JAMA Pediatrics.

MIS-C is a life-threatening complication of COVID-19 infection and data on outcomes are limited, wrote the authors, led by Dongngan T. Truong, MD, MSSI, with Children’s Healthcare of Atlanta Cardiology, Emory University School of Medicine in Atlanta, Georgia. These 6-month results are from the Long-Term Outcomes After the Multisystem Inflammatory Syndrome in Children (MUSIC) study, sponsored by the National Heart, Lung, and Blood Institute.

Researchers found in this cohort study of 1204 participants that by 6 months after hospital discharge, 99% had normalization of left ventricular systolic function, and 92.3% had normalized coronary artery dimensions. More than 95% reported being more than 90% back to baseline health.

Patient-Reported Outcomes Measurement Information Systems (PROMIS) Global Health scores were at least equivalent to prepandemic population normative values. PROMIS Global Health parent/guardian proxy median T scores for fatigue, global health, and pain interference improved significantly from 2 weeks to 6 months: fatigue, 56.1 vs 48.9; global health, 48.8 vs 51.3; pain interference, 53.0 vs 43.3 (P < .001).

The most common symptoms reported at 2 weeks were fatigue (15.9%) and low stamina/energy (9.2%); both decreased to 3.4% and 3.3%, respectively, by 6 months. The most common cardiovascular symptom at 2 weeks was palpitations (1.5%), which decreased to 0.6%.

 

Chest Pain Increased Over Time

Reports of chest pain, however, reportedly increased over time, with 1.3% reporting chest pain at rest at 2 weeks and 2.2% at 6 months. Although gastrointestinal symptoms were common during the acute MIS-C, only 5.3% of respondents reported those symptoms at 2 weeks.

Children in the cohort had a median age of 9 years, and 60% were men. They self-identified with the following races and ethnicities: American Indian or Alaska Native (0.1%), Asian (3.3%), Black (27.0%), Hawaiian Native or Other Pacific Islander (0.2%), Hispanic or Latino (26.9%), multiracial (2.7%), White (31.2%), other (1.0%), and unknown or refused to specify (7.6%). Authors wrote that the cohort was followed-up to 2 years after illness onset and long-term results are not yet known.

 

Time to Exhale

David J. Goldberg, MD, with the Cardiac Center, Children’s Hospital of Philadelphia, Pennsylvania, and colleagues, wrote in an accompanying editorial that “the decreased frequency of the disease along (with) the reassuring reports on midterm outcomes can allow the pediatric community a moment of collective exhale.”

The editorialists note that of those who initially presented with myocardial dysfunction, all but one patient evaluated had a normal ejection fraction at follow-up. Energy, sleep, appetite, cognition, and mood also normalized by midterm.

“The results of the MUSIC study add to the emerging midterm outcomes data suggesting a near-complete cardiovascular recovery in the overwhelming majority of patients who develop MIS-C,” Goldberg and colleagues wrote. “Despite initial concerns, driven by the severity of acute presentation at diagnosis and longer-term questions that remain (for example, does coronary microvascular dysfunction persist even after normalization of coronary artery z score?), these data suggest an encouraging outlook for the long-term health of affected children.”

The Centers for Disease Control and Prevention and other agencies have reported a declining overall incidence of MIS-C and highlighted the protective value of vaccination. 

The editorialists add, however, that while the drop in MIS-C cases is encouraging, cases are still reported, especially amid high viral activity periods, “and nearly half of affected children continue to require intensive care in the acute phase of illness.”

Truong reported grants from the National Institutes of Health and serving as coprincipal investigator for Pfizer for research on COVID-19 vaccine-associated myocarditis funded by Pfizer and occurring through the framework of the National Heart, Lung, and Blood Institute’s Pediatric Heart Network outside the submitted work. One coauthor reported grants from Pfizer and Boston Scientific outside the submitted work. One coauthor reported receiving grants from Additional Ventures Foundation outside the submitted work. One coauthor reported receiving consultant fees from Amryt Pharma, Chiesi, Esperion, and Ultragenyx outside the submitted work. A coauthor reported receiving consultant fees from Larimar Therapeutics for mitochondrial therapies outside the submitted work. One coauthor reported being an employee of Takeda Pharmaceuticals since July 2023. One editorialist reported grants from Childhood Arthritis and Rheumatology Research Alliance and the Arthritis Foundation, Academy Health, and the Gordon and Betty Moore Foundation during the conduct of the study.

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

It is no secret that we have a daycare problem in this country. Twenty percent of families spend more than $36,000 for child care annually. Three quarters of a single parent’s income is spent on infant care. The result is that more than $122 billion is syphoned out of our economy in lost productivity and income.

How we got into this situation is less clear. Women who once were stay-at-home moms have moved into the workplace. Families are more mobile and grandparents who had been a source of childcare may live hours away. And, when they are nearby grandparents may themselves been forced to remain employed for economic reasons.

 

Despite the increase demand the market has failed to respond with more daycare providers because with a median hourly wage of less than $15.00 it is difficult to attract applicants from a pool of potential employees that is already in great demand.

And, let’s be honest, long hours cooped up inside with infants and toddlers isn’t the right job for everyone. For the most successful, although maybe not financially, providing daycare is truly a labor of love. There are high school and community college courses taught on child development and day care management. Experienced providers can be a source of tips-of-the trade to those just starting out. But, when there are three infants crying, two diapers to be changed, and a toddler heading toward a tantrum, two experienced providers may not be enough to calm the turbulent waters. 

A recent article in my local newspaper provided stark evidence of how serious our daycare situation has become. Although the daycare owner denies the allegation, the Department of Health and Human Service told the parents that the investigation currently supports their complaints that the children had been given melatonin gummies without their permission. Final action is pending but it is likely the daycare will lose its license. Not surprisingly the parents have already removed their children.

Curious about whether this situation was an isolated event, it didn’t take Google too long to find evidence of other daycares in which children had been given sleep-related medications without their parents’ permission. In May 2024 a daycare provider and three of her employees in Manchester, New Hampshire, were arrested and charged with endangering the welfare of a child after allegedly spiking their charges food with melatonin. Lest you think drugging infants in daycare is just a New England thing, my research found a news story dating back to 2003 that reported on several cases in which daycare providers had been administering diphenhydramine without parents permission. In one instance there was a fatal outcome. While melatonin does not pose a health risk on a par with diphenhydramine, the issue is the fact that the parents were not consulted.

I suspect that these two incidents in Maine and New Hampshire are not isolated events and melatonin has replaced diphenhydramine as the daycare provider’s “little helper” nationwide. It’s not clear how we as pediatricians can help police this practice, other than suggesting to parents that they initiate dialogues about napping strategies with their daycare providers. Not with an accusatory tone but more of a sharing about what tricks each party uses to make napping happen. It may be that the daycare provider has some valuable and sound advice that the parents can adapt to their home situation. However, if the daycare provider’s explanation for why the child naps well doesn’t sound right or the child is unusually drowsy after daycare visits they should share their concerns with us a pediatric health care advisors. 

 

Dr Wilkoff practiced primary care pediatrics in Brunswick, Maine, for nearly 40 years. He has authored several books on behavioral pediatrics, including “How to Say No to Your Toddler.” Other than a Littman stethoscope he accepted as a first-year medical student in 1966, Dr. Wilkoff reports having nothing to disclose. Email him at pdnews@mdedge.com.

It is no secret that we have a daycare problem in this country. Twenty percent of families spend more than $36,000 for child care annually. Three quarters of a single parent’s income is spent on infant care. The result is that more than $122 billion is syphoned out of our economy in lost productivity and income.

How we got into this situation is less clear. Women who once were stay-at-home moms have moved into the workplace. Families are more mobile and grandparents who had been a source of childcare may live hours away. And, when they are nearby grandparents may themselves been forced to remain employed for economic reasons.

 

Despite the increase demand the market has failed to respond with more daycare providers because with a median hourly wage of less than $15.00 it is difficult to attract applicants from a pool of potential employees that is already in great demand.

And, let’s be honest, long hours cooped up inside with infants and toddlers isn’t the right job for everyone. For the most successful, although maybe not financially, providing daycare is truly a labor of love. There are high school and community college courses taught on child development and day care management. Experienced providers can be a source of tips-of-the trade to those just starting out. But, when there are three infants crying, two diapers to be changed, and a toddler heading toward a tantrum, two experienced providers may not be enough to calm the turbulent waters. 

A recent article in my local newspaper provided stark evidence of how serious our daycare situation has become. Although the daycare owner denies the allegation, the Department of Health and Human Service told the parents that the investigation currently supports their complaints that the children had been given melatonin gummies without their permission. Final action is pending but it is likely the daycare will lose its license. Not surprisingly the parents have already removed their children.

Curious about whether this situation was an isolated event, it didn’t take Google too long to find evidence of other daycares in which children had been given sleep-related medications without their parents’ permission. In May 2024 a daycare provider and three of her employees in Manchester, New Hampshire, were arrested and charged with endangering the welfare of a child after allegedly spiking their charges food with melatonin. Lest you think drugging infants in daycare is just a New England thing, my research found a news story dating back to 2003 that reported on several cases in which daycare providers had been administering diphenhydramine without parents permission. In one instance there was a fatal outcome. While melatonin does not pose a health risk on a par with diphenhydramine, the issue is the fact that the parents were not consulted.

I suspect that these two incidents in Maine and New Hampshire are not isolated events and melatonin has replaced diphenhydramine as the daycare provider’s “little helper” nationwide. It’s not clear how we as pediatricians can help police this practice, other than suggesting to parents that they initiate dialogues about napping strategies with their daycare providers. Not with an accusatory tone but more of a sharing about what tricks each party uses to make napping happen. It may be that the daycare provider has some valuable and sound advice that the parents can adapt to their home situation. However, if the daycare provider’s explanation for why the child naps well doesn’t sound right or the child is unusually drowsy after daycare visits they should share their concerns with us a pediatric health care advisors. 

 

Dr Wilkoff practiced primary care pediatrics in Brunswick, Maine, for nearly 40 years. He has authored several books on behavioral pediatrics, including “How to Say No to Your Toddler.” Other than a Littman stethoscope he accepted as a first-year medical student in 1966, Dr. Wilkoff reports having nothing to disclose. Email him at pdnews@mdedge.com.

It is no secret that we have a daycare problem in this country. Twenty percent of families spend more than $36,000 for child care annually. Three quarters of a single parent’s income is spent on infant care. The result is that more than $122 billion is syphoned out of our economy in lost productivity and income.

How we got into this situation is less clear. Women who once were stay-at-home moms have moved into the workplace. Families are more mobile and grandparents who had been a source of childcare may live hours away. And, when they are nearby grandparents may themselves been forced to remain employed for economic reasons.

 

Despite the increase demand the market has failed to respond with more daycare providers because with a median hourly wage of less than $15.00 it is difficult to attract applicants from a pool of potential employees that is already in great demand.

And, let’s be honest, long hours cooped up inside with infants and toddlers isn’t the right job for everyone. For the most successful, although maybe not financially, providing daycare is truly a labor of love. There are high school and community college courses taught on child development and day care management. Experienced providers can be a source of tips-of-the trade to those just starting out. But, when there are three infants crying, two diapers to be changed, and a toddler heading toward a tantrum, two experienced providers may not be enough to calm the turbulent waters. 

A recent article in my local newspaper provided stark evidence of how serious our daycare situation has become. Although the daycare owner denies the allegation, the Department of Health and Human Service told the parents that the investigation currently supports their complaints that the children had been given melatonin gummies without their permission. Final action is pending but it is likely the daycare will lose its license. Not surprisingly the parents have already removed their children.

Curious about whether this situation was an isolated event, it didn’t take Google too long to find evidence of other daycares in which children had been given sleep-related medications without their parents’ permission. In May 2024 a daycare provider and three of her employees in Manchester, New Hampshire, were arrested and charged with endangering the welfare of a child after allegedly spiking their charges food with melatonin. Lest you think drugging infants in daycare is just a New England thing, my research found a news story dating back to 2003 that reported on several cases in which daycare providers had been administering diphenhydramine without parents permission. In one instance there was a fatal outcome. While melatonin does not pose a health risk on a par with diphenhydramine, the issue is the fact that the parents were not consulted.

I suspect that these two incidents in Maine and New Hampshire are not isolated events and melatonin has replaced diphenhydramine as the daycare provider’s “little helper” nationwide. It’s not clear how we as pediatricians can help police this practice, other than suggesting to parents that they initiate dialogues about napping strategies with their daycare providers. Not with an accusatory tone but more of a sharing about what tricks each party uses to make napping happen. It may be that the daycare provider has some valuable and sound advice that the parents can adapt to their home situation. However, if the daycare provider’s explanation for why the child naps well doesn’t sound right or the child is unusually drowsy after daycare visits they should share their concerns with us a pediatric health care advisors. 

 

Dr Wilkoff practiced primary care pediatrics in Brunswick, Maine, for nearly 40 years. He has authored several books on behavioral pediatrics, including “How to Say No to Your Toddler.” Other than a Littman stethoscope he accepted as a first-year medical student in 1966, Dr. Wilkoff reports having nothing to disclose. Email him at pdnews@mdedge.com.

TOPLINE:

According to a secondary analysis of the 24-month Myopia Outcome Study of Atropine in Children (MOSAIC) trial, 0.05% atropine eye drops were more effective in controlling myopia progression and axial elongation than placebo eye drops in children despite causing blurred vision and photophobia in some participants.

METHODOLOGY:

• Researchers conducted a secondary analysis of the 3-year results of the MOSAIC trial to investigate the efficacy and safety of different atropine regimens in treatment-naive children aged 6-16 years with a spherical equivalent ≤ −0.50 diopters (D).
• They analyzed data of 199 children in Europe with myopia (mean age, 13.9 years; 60.8% girls) who were randomly assigned to either group 1 (nightly placebo for 2 years followed by 0.05% atropine eye drops for 1 year; n = 66) or group 2 (nightly 0.01% atropine eye drops for 2 years followed by another random assignment to nightly placebo, tapering placebo, or tapering of 0.01% atropine eye drops for 1 year; n = 133).
• The nightly and tapered placebo groups were combined as a single treatment group for the sake of analysis.
• The primary outcome measures included observed changes in the progression of myopia, assessed using cycloplegic spherical equivalent refraction and axial length from month 24 to month 36.

TAKEAWAY:

• Children in the 0.01% atropine then placebo groups showed greater spherical equivalent progression (adjusted difference, –0.13 D; P = .01) and axial elongation (adjusted difference, 0.06 mm; P = .008) than those in the placebo then 0.05% atropine group.
• Children in the placebo then 0.05% atropine group also experienced less axial elongation (P = .04) than those in the 0.01% atropine then tapering 0.01% atropine group.
• Among participants using 0.05% atropine, 15% reported blurred near vision and 8% reported photophobia, whereas 3% reported blurred near vision and 0% reported photophobia in the 0.01% atropine then tapering 0.01% atropine group.
• Despite experiencing adverse events, no participants in the placebo then 0.05% atropine group discontinued treatment, with 92% completing the 36-month visit and 81% adhering to the treatment regimen.

IN PRACTICE:

“Recognizing a 2-year delay in treatment initiation in the group of children originally assigned to placebo, 0.05% atropine eyedrops slowed both myopia progression and axial eye growth over the course of a 1-year period,” the authors of the study wrote.

SOURCE:

This study was led by James Loughman, PhD, of the Centre for Eye Research Ireland, Dublin. It was published online in JAMA Ophthalmology.

LIMITATIONS:

Limitations included smaller sample sizes across treatment groups in year 3 and potential carry-over effects for participants transitioning from 0.01% atropine to placebo or tapered dosing. Because the study lacked an untreated control group, rebound myopia progression could be measured based only on the expected third-year results from the 0.01% atropine then placebo groups. The age of participants during the third year may have affected the ability to detect rebound progression.

DISCLOSURES:

This study was supported partly by a grant from the Health Research Board; Fighting Blindness, Ireland; and Vyluma. Some authors reported receiving grants, nonfinancial support, or consultant fees or having several other ties with Vyluma and other sources.

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

TOPLINE:

According to a secondary analysis of the 24-month Myopia Outcome Study of Atropine in Children (MOSAIC) trial, 0.05% atropine eye drops were more effective in controlling myopia progression and axial elongation than placebo eye drops in children despite causing blurred vision and photophobia in some participants.

METHODOLOGY:

• Researchers conducted a secondary analysis of the 3-year results of the MOSAIC trial to investigate the efficacy and safety of different atropine regimens in treatment-naive children aged 6-16 years with a spherical equivalent ≤ −0.50 diopters (D).
• They analyzed data of 199 children in Europe with myopia (mean age, 13.9 years; 60.8% girls) who were randomly assigned to either group 1 (nightly placebo for 2 years followed by 0.05% atropine eye drops for 1 year; n = 66) or group 2 (nightly 0.01% atropine eye drops for 2 years followed by another random assignment to nightly placebo, tapering placebo, or tapering of 0.01% atropine eye drops for 1 year; n = 133).
• The nightly and tapered placebo groups were combined as a single treatment group for the sake of analysis.
• The primary outcome measures included observed changes in the progression of myopia, assessed using cycloplegic spherical equivalent refraction and axial length from month 24 to month 36.

TAKEAWAY:

• Children in the 0.01% atropine then placebo groups showed greater spherical equivalent progression (adjusted difference, –0.13 D; P = .01) and axial elongation (adjusted difference, 0.06 mm; P = .008) than those in the placebo then 0.05% atropine group.
• Children in the placebo then 0.05% atropine group also experienced less axial elongation (P = .04) than those in the 0.01% atropine then tapering 0.01% atropine group.
• Among participants using 0.05% atropine, 15% reported blurred near vision and 8% reported photophobia, whereas 3% reported blurred near vision and 0% reported photophobia in the 0.01% atropine then tapering 0.01% atropine group.
• Despite experiencing adverse events, no participants in the placebo then 0.05% atropine group discontinued treatment, with 92% completing the 36-month visit and 81% adhering to the treatment regimen.

IN PRACTICE:

“Recognizing a 2-year delay in treatment initiation in the group of children originally assigned to placebo, 0.05% atropine eyedrops slowed both myopia progression and axial eye growth over the course of a 1-year period,” the authors of the study wrote.

SOURCE:

This study was led by James Loughman, PhD, of the Centre for Eye Research Ireland, Dublin. It was published online in JAMA Ophthalmology.

LIMITATIONS:

Limitations included smaller sample sizes across treatment groups in year 3 and potential carry-over effects for participants transitioning from 0.01% atropine to placebo or tapered dosing. Because the study lacked an untreated control group, rebound myopia progression could be measured based only on the expected third-year results from the 0.01% atropine then placebo groups. The age of participants during the third year may have affected the ability to detect rebound progression.

DISCLOSURES:

This study was supported partly by a grant from the Health Research Board; Fighting Blindness, Ireland; and Vyluma. Some authors reported receiving grants, nonfinancial support, or consultant fees or having several other ties with Vyluma and other sources.

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

TOPLINE:

According to a secondary analysis of the 24-month Myopia Outcome Study of Atropine in Children (MOSAIC) trial, 0.05% atropine eye drops were more effective in controlling myopia progression and axial elongation than placebo eye drops in children despite causing blurred vision and photophobia in some participants.

METHODOLOGY:

• Researchers conducted a secondary analysis of the 3-year results of the MOSAIC trial to investigate the efficacy and safety of different atropine regimens in treatment-naive children aged 6-16 years with a spherical equivalent ≤ −0.50 diopters (D).
• They analyzed data of 199 children in Europe with myopia (mean age, 13.9 years; 60.8% girls) who were randomly assigned to either group 1 (nightly placebo for 2 years followed by 0.05% atropine eye drops for 1 year; n = 66) or group 2 (nightly 0.01% atropine eye drops for 2 years followed by another random assignment to nightly placebo, tapering placebo, or tapering of 0.01% atropine eye drops for 1 year; n = 133).
• The nightly and tapered placebo groups were combined as a single treatment group for the sake of analysis.
• The primary outcome measures included observed changes in the progression of myopia, assessed using cycloplegic spherical equivalent refraction and axial length from month 24 to month 36.

TAKEAWAY:

• Children in the 0.01% atropine then placebo groups showed greater spherical equivalent progression (adjusted difference, –0.13 D; P = .01) and axial elongation (adjusted difference, 0.06 mm; P = .008) than those in the placebo then 0.05% atropine group.
• Children in the placebo then 0.05% atropine group also experienced less axial elongation (P = .04) than those in the 0.01% atropine then tapering 0.01% atropine group.
• Among participants using 0.05% atropine, 15% reported blurred near vision and 8% reported photophobia, whereas 3% reported blurred near vision and 0% reported photophobia in the 0.01% atropine then tapering 0.01% atropine group.
• Despite experiencing adverse events, no participants in the placebo then 0.05% atropine group discontinued treatment, with 92% completing the 36-month visit and 81% adhering to the treatment regimen.

IN PRACTICE:

“Recognizing a 2-year delay in treatment initiation in the group of children originally assigned to placebo, 0.05% atropine eyedrops slowed both myopia progression and axial eye growth over the course of a 1-year period,” the authors of the study wrote.

SOURCE:

This study was led by James Loughman, PhD, of the Centre for Eye Research Ireland, Dublin. It was published online in JAMA Ophthalmology.

LIMITATIONS:

Limitations included smaller sample sizes across treatment groups in year 3 and potential carry-over effects for participants transitioning from 0.01% atropine to placebo or tapered dosing. Because the study lacked an untreated control group, rebound myopia progression could be measured based only on the expected third-year results from the 0.01% atropine then placebo groups. The age of participants during the third year may have affected the ability to detect rebound progression.

DISCLOSURES:

This study was supported partly by a grant from the Health Research Board; Fighting Blindness, Ireland; and Vyluma. Some authors reported receiving grants, nonfinancial support, or consultant fees or having several other ties with Vyluma and other sources.

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

The pediatrician’s first patient of the day was an 8-year-old boy, accompanied by both of his parents. It was the boy’s third visit in just over a week for fever and left-sided neck swelling, and the family was understandably anxious for answers.

“The antibiotics don’t seem to be working,” the mother explained. “He still has fever every day, as high as 104, and his neck looks just as swollen.”

A quick review of the chart revealed the boy’s initial diagnosis had been bacterial lymphadenitis, for which amoxicillin-clavulanate had been prescribed. Three days later, given lack of clinical improvement, therapy was transitioned to clindamycin. On examination, the boy was febrile and ill-appearing with a 3-cm by 5-cm tender, non-fluctuant swelling over the left sternocleidomastoid muscle. 

 

The pediatrician ran through a quick mental checklist of diagnostic possibilities for his patient’s continued symptoms. Staphylococcal lymphadenitis still seemed possible. Could the boy be infected with methicillin-resistant Staphylococcus aureus that was also clindamycin resistant? Alternately, perhaps the problem was “source control” and the boy had developed an occult neck abscess that needed to be drained. An ultrasound could help sort that out. Finally, the pediatrician considered less common bacterial causes of lymph node swelling and fever. He placed Bartonella henselae, the cause of cat scratch disease, near the top of his list. “I’ve never seen it,” he told the parents, “But we could also consider tularemia.”

Tularemia is a rare zoonotic infection caused by Francisella tularenis. On average, 200 cases of tularemia are reported in the United States each year, and the incidence of disease is increasing, according to a surveillance report released by the Centers for Disease Control and Prevention in December 2023.¹

Between 2011 and 2022, 2462 tularemia cases were reported in the United States. That translated to an average annual incidence of 0.064 per 100,000 population, an increase of 56% compared with 2001-2010. Forty-seven states reported at least one case of tularemia, although half of all reported cases came from four states — Arkansas (18%), Kansas (11%), Missouri (11%), and Oklahoma (10%). The incidence of tularemia was highest in children ages 5-9 years old, older men, and American Indian or Alaska Natives individuals. Although cases occurred year-round, 78% had symptom onset May through September. 

In the United States, most human cases of tularemia have been arthropod borne, transmitted by the bite of an infected tick or deer fly. Infection also can be spread through contact with infected animals or animal tissue, particularly rabbits, hares, muskrats, prairie dogs, and other rodents, including hamsters. Outbreaks of tularemia have occurred among pet store hamsters, and at least one child in the United States developed tularemia after being bitten by a pet hamster.

Tularemia is almost always associated with fever but other clinical manifestations vary by the type of exposure. Ulceroglandular disease occurs after a tick or deer fly bite or after handling an infected animal. An ulcer develops at the site where the bacteria entered the body, along with enlargement of regional lymph nodes. Less commonly, lymph node swelling can occur without the development of an ulcer. If the bacteria enter through the eye, symptoms include conjunctivitis and swelling of pre-auricular lymph nodes. Eating or drinking contaminated food or water is associated with sore throat, mouth ulcers, tonsillitis, and swelling of lymph glands in the neck. Pneumonic tularemia, the most serious form of the disease, typically happens after inhaling bacteria-containing dust or aerosols and is associated with cough, chest pain, and difficulty breathing. Pneumonic tularemia can develop if other forms of tularemia are untreated, and the bacteria spread to the lung.

Back in the exam room, the pediatrician carefully re-examined the boy’s scalp. A 1-cm poorly healing ulcer on the left occiput added support for the diagnosis of ulceroglandular tularemia, the most common form of the disease in children. Serologic testing ultimately confirmed the diagnosis and the boy’s symptoms resolved with treatment.

Gentamicin administered intravenously or intramuscularly is the drug of choice for the treatment of tularemia in children. Ciprofloxacin is considered an alternative but is not approved by the U.S. Food and Drug Administration for this indication.

The pediatrician reported the case of tularemia to his local health department. Tularemia is a nationally notifiable disease in the United States; state health departments report to the CDC through the National Notifiable Diseases Surveillance System. In turn, public health authorities shared information to prevent tularemia. Steps to prevent tick and deer fly bites include the use of an Environmental Protection Agency–registered insect repellent. Individuals who hunt, trap, or skin animals are encouraged to wear gloves when handling animals —especially rabbits, muskrats, and prairie dogs — and cook game meat thoroughly. Tularemia can be inadvertently aerosolized if an infected animal or carcass is run over with a tractor or lawnmower. Checking for carcasses before mowing may reduce the risk.

 

Bryant is a pediatrician specializing in infectious diseases at the University of Louisville (Ky.) and Norton Children’s Hospital, also in Louisville. She is a member of the AAP’s Committee on Infectious Diseases and one of the lead authors of the AAP’s Recommendations for Prevention and Control of Influenza in Children, 2022-2023. The opinions expressed in this article are her own. Bryant discloses that she has served as an investigator on clinical trials funded by Pfizer, Enanta and Gilead. Email her at pdnews@mdedge.com. (Also kristina.bryant@louisville.edu.) 

Reference

1. Rich SN et al. Tularemia—United States, 2011-2022. MMWR Morb Mortal Wkly Rep 2025;73:1152–1156. doi: 

The pediatrician’s first patient of the day was an 8-year-old boy, accompanied by both of his parents. It was the boy’s third visit in just over a week for fever and left-sided neck swelling, and the family was understandably anxious for answers.

“The antibiotics don’t seem to be working,” the mother explained. “He still has fever every day, as high as 104, and his neck looks just as swollen.”

A quick review of the chart revealed the boy’s initial diagnosis had been bacterial lymphadenitis, for which amoxicillin-clavulanate had been prescribed. Three days later, given lack of clinical improvement, therapy was transitioned to clindamycin. On examination, the boy was febrile and ill-appearing with a 3-cm by 5-cm tender, non-fluctuant swelling over the left sternocleidomastoid muscle. 

 

The pediatrician ran through a quick mental checklist of diagnostic possibilities for his patient’s continued symptoms. Staphylococcal lymphadenitis still seemed possible. Could the boy be infected with methicillin-resistant Staphylococcus aureus that was also clindamycin resistant? Alternately, perhaps the problem was “source control” and the boy had developed an occult neck abscess that needed to be drained. An ultrasound could help sort that out. Finally, the pediatrician considered less common bacterial causes of lymph node swelling and fever. He placed Bartonella henselae, the cause of cat scratch disease, near the top of his list. “I’ve never seen it,” he told the parents, “But we could also consider tularemia.”

Tularemia is a rare zoonotic infection caused by Francisella tularenis. On average, 200 cases of tularemia are reported in the United States each year, and the incidence of disease is increasing, according to a surveillance report released by the Centers for Disease Control and Prevention in December 2023.¹

Between 2011 and 2022, 2462 tularemia cases were reported in the United States. That translated to an average annual incidence of 0.064 per 100,000 population, an increase of 56% compared with 2001-2010. Forty-seven states reported at least one case of tularemia, although half of all reported cases came from four states — Arkansas (18%), Kansas (11%), Missouri (11%), and Oklahoma (10%). The incidence of tularemia was highest in children ages 5-9 years old, older men, and American Indian or Alaska Natives individuals. Although cases occurred year-round, 78% had symptom onset May through September. 

In the United States, most human cases of tularemia have been arthropod borne, transmitted by the bite of an infected tick or deer fly. Infection also can be spread through contact with infected animals or animal tissue, particularly rabbits, hares, muskrats, prairie dogs, and other rodents, including hamsters. Outbreaks of tularemia have occurred among pet store hamsters, and at least one child in the United States developed tularemia after being bitten by a pet hamster.

Tularemia is almost always associated with fever but other clinical manifestations vary by the type of exposure. Ulceroglandular disease occurs after a tick or deer fly bite or after handling an infected animal. An ulcer develops at the site where the bacteria entered the body, along with enlargement of regional lymph nodes. Less commonly, lymph node swelling can occur without the development of an ulcer. If the bacteria enter through the eye, symptoms include conjunctivitis and swelling of pre-auricular lymph nodes. Eating or drinking contaminated food or water is associated with sore throat, mouth ulcers, tonsillitis, and swelling of lymph glands in the neck. Pneumonic tularemia, the most serious form of the disease, typically happens after inhaling bacteria-containing dust or aerosols and is associated with cough, chest pain, and difficulty breathing. Pneumonic tularemia can develop if other forms of tularemia are untreated, and the bacteria spread to the lung.

Back in the exam room, the pediatrician carefully re-examined the boy’s scalp. A 1-cm poorly healing ulcer on the left occiput added support for the diagnosis of ulceroglandular tularemia, the most common form of the disease in children. Serologic testing ultimately confirmed the diagnosis and the boy’s symptoms resolved with treatment.

Gentamicin administered intravenously or intramuscularly is the drug of choice for the treatment of tularemia in children. Ciprofloxacin is considered an alternative but is not approved by the U.S. Food and Drug Administration for this indication.

The pediatrician reported the case of tularemia to his local health department. Tularemia is a nationally notifiable disease in the United States; state health departments report to the CDC through the National Notifiable Diseases Surveillance System. In turn, public health authorities shared information to prevent tularemia. Steps to prevent tick and deer fly bites include the use of an Environmental Protection Agency–registered insect repellent. Individuals who hunt, trap, or skin animals are encouraged to wear gloves when handling animals —especially rabbits, muskrats, and prairie dogs — and cook game meat thoroughly. Tularemia can be inadvertently aerosolized if an infected animal or carcass is run over with a tractor or lawnmower. Checking for carcasses before mowing may reduce the risk.

 

Bryant is a pediatrician specializing in infectious diseases at the University of Louisville (Ky.) and Norton Children’s Hospital, also in Louisville. She is a member of the AAP’s Committee on Infectious Diseases and one of the lead authors of the AAP’s Recommendations for Prevention and Control of Influenza in Children, 2022-2023. The opinions expressed in this article are her own. Bryant discloses that she has served as an investigator on clinical trials funded by Pfizer, Enanta and Gilead. Email her at pdnews@mdedge.com. (Also kristina.bryant@louisville.edu.) 

Reference

1. Rich SN et al. Tularemia—United States, 2011-2022. MMWR Morb Mortal Wkly Rep 2025;73:1152–1156. doi: 

The pediatrician’s first patient of the day was an 8-year-old boy, accompanied by both of his parents. It was the boy’s third visit in just over a week for fever and left-sided neck swelling, and the family was understandably anxious for answers.

“The antibiotics don’t seem to be working,” the mother explained. “He still has fever every day, as high as 104, and his neck looks just as swollen.”

A quick review of the chart revealed the boy’s initial diagnosis had been bacterial lymphadenitis, for which amoxicillin-clavulanate had been prescribed. Three days later, given lack of clinical improvement, therapy was transitioned to clindamycin. On examination, the boy was febrile and ill-appearing with a 3-cm by 5-cm tender, non-fluctuant swelling over the left sternocleidomastoid muscle. 

 

The pediatrician ran through a quick mental checklist of diagnostic possibilities for his patient’s continued symptoms. Staphylococcal lymphadenitis still seemed possible. Could the boy be infected with methicillin-resistant Staphylococcus aureus that was also clindamycin resistant? Alternately, perhaps the problem was “source control” and the boy had developed an occult neck abscess that needed to be drained. An ultrasound could help sort that out. Finally, the pediatrician considered less common bacterial causes of lymph node swelling and fever. He placed Bartonella henselae, the cause of cat scratch disease, near the top of his list. “I’ve never seen it,” he told the parents, “But we could also consider tularemia.”

Tularemia is a rare zoonotic infection caused by Francisella tularenis. On average, 200 cases of tularemia are reported in the United States each year, and the incidence of disease is increasing, according to a surveillance report released by the Centers for Disease Control and Prevention in December 2023.¹

Between 2011 and 2022, 2462 tularemia cases were reported in the United States. That translated to an average annual incidence of 0.064 per 100,000 population, an increase of 56% compared with 2001-2010. Forty-seven states reported at least one case of tularemia, although half of all reported cases came from four states — Arkansas (18%), Kansas (11%), Missouri (11%), and Oklahoma (10%). The incidence of tularemia was highest in children ages 5-9 years old, older men, and American Indian or Alaska Natives individuals. Although cases occurred year-round, 78% had symptom onset May through September. 

In the United States, most human cases of tularemia have been arthropod borne, transmitted by the bite of an infected tick or deer fly. Infection also can be spread through contact with infected animals or animal tissue, particularly rabbits, hares, muskrats, prairie dogs, and other rodents, including hamsters. Outbreaks of tularemia have occurred among pet store hamsters, and at least one child in the United States developed tularemia after being bitten by a pet hamster.

Tularemia is almost always associated with fever but other clinical manifestations vary by the type of exposure. Ulceroglandular disease occurs after a tick or deer fly bite or after handling an infected animal. An ulcer develops at the site where the bacteria entered the body, along with enlargement of regional lymph nodes. Less commonly, lymph node swelling can occur without the development of an ulcer. If the bacteria enter through the eye, symptoms include conjunctivitis and swelling of pre-auricular lymph nodes. Eating or drinking contaminated food or water is associated with sore throat, mouth ulcers, tonsillitis, and swelling of lymph glands in the neck. Pneumonic tularemia, the most serious form of the disease, typically happens after inhaling bacteria-containing dust or aerosols and is associated with cough, chest pain, and difficulty breathing. Pneumonic tularemia can develop if other forms of tularemia are untreated, and the bacteria spread to the lung.

Back in the exam room, the pediatrician carefully re-examined the boy’s scalp. A 1-cm poorly healing ulcer on the left occiput added support for the diagnosis of ulceroglandular tularemia, the most common form of the disease in children. Serologic testing ultimately confirmed the diagnosis and the boy’s symptoms resolved with treatment.

Gentamicin administered intravenously or intramuscularly is the drug of choice for the treatment of tularemia in children. Ciprofloxacin is considered an alternative but is not approved by the U.S. Food and Drug Administration for this indication.

The pediatrician reported the case of tularemia to his local health department. Tularemia is a nationally notifiable disease in the United States; state health departments report to the CDC through the National Notifiable Diseases Surveillance System. In turn, public health authorities shared information to prevent tularemia. Steps to prevent tick and deer fly bites include the use of an Environmental Protection Agency–registered insect repellent. Individuals who hunt, trap, or skin animals are encouraged to wear gloves when handling animals —especially rabbits, muskrats, and prairie dogs — and cook game meat thoroughly. Tularemia can be inadvertently aerosolized if an infected animal or carcass is run over with a tractor or lawnmower. Checking for carcasses before mowing may reduce the risk.

 

Bryant is a pediatrician specializing in infectious diseases at the University of Louisville (Ky.) and Norton Children’s Hospital, also in Louisville. She is a member of the AAP’s Committee on Infectious Diseases and one of the lead authors of the AAP’s Recommendations for Prevention and Control of Influenza in Children, 2022-2023. The opinions expressed in this article are her own. Bryant discloses that she has served as an investigator on clinical trials funded by Pfizer, Enanta and Gilead. Email her at pdnews@mdedge.com. (Also kristina.bryant@louisville.edu.) 

Reference

1. Rich SN et al. Tularemia—United States, 2011-2022. MMWR Morb Mortal Wkly Rep 2025;73:1152–1156. doi: 

Results published from a systematic review and meta-analysis find an inverse association and a dose-response link between fluoride exposure and children’s IQ scores.

Kyla W. Taylor, PhD, with the Division of Translational Toxicology at the National Institutes of Health, Morrisville, North Carolina, led the multicountry study published online in JAMA Pediatrics.

Two accompanying editorials offer two very different perspectives on how to interpret the researchers’ conclusions.
 

Study Results

The authors noted that, of the 74 studies included in the review (64 cross-sectional and 10 cohort studies), most (45) were conducted in China. Other countries included were Canada (3), Denmark (1), India (12), Iran (4), Mexico (4), New Zealand (1), Pakistan (2), Spain (1), and Taiwan (1). “Fifty-two studies were rated high risk of bias, and 22 were rated low risk of bias,” the authors stated.

Researchers found that 64 of the 74 studies reported inverse associations between fluoride exposure measures and children’s IQ scores. Their analysis of 59 studies with group-level measures of fluoride in drinking water, dental fluorosis, or other measures of fluoride exposure showed an inverse relationship between fluoride exposure and IQ (pooled standardized mean difference [SMD], −0.45; 95% CI, −0.57 to −0.33; P < .001). Of those 59 studies, encompassing 20,932 children, 47 had high risk for bias and 12 had low risk for bias.

In 31 studies that reported fluoride measurements in drinking water, a dose-response relationship was found between exposed and reference groups (SMD, –0.15; 95% CI, –0.20 to –0.11; P < .001). That relationship remained inverse when exposed groups were limited to less than 4 mg fluoride/L and less than 2 mg/L. However, the association was not seen at less than 1.5 mg/L.

In 20 studies reporting fluoride measured in urine, there was an inverse dose-response association (SMD, –0.15; 95% CI, –0.23 to –0.07; P < .001). Those inverse relationships held at levels less than 4 mg/L, less than 2 mg/L, and less than 1.5 mg/L fluoride in urine.

For perspective, in the United States, the US Public Health Service in 2015 lowered the recommended concentration of fluoride in drinking water from a range of 0.7-1.2 mg/L to 0.7 mg/L to reduce the risk for dental fluorosis while keeping its protective effect against dental caries. 

When Taylor’s team analyzed 13 studies with individual-level measures, they found an IQ score decrease of 1.63 points (95% CI, –2.33 to –0.93; P < .001) per 1-mg/L increase in urinary fluoride. Among studies with a low risk for bias, they observed an IQ score decrease of 1.14 points (95% CI, –1.68 to –0.61; P < .001). The inverse relationship remained when stratified by factors including risk for bias, sex, age, country, outcome assessment type, exposure timing (prenatal or postnatal), and exposure matrix (urinary fluoride, intake and water fluoride), the authors wrote.

The authors conclude both that inverse relationships and a dose-response association between fluoride measured in urine and drinking water and children’s IQs were found across the literature examined but also that “there were limited data and uncertainty in the dose-response association between fluoride exposure and children’s IQ when fluoride exposure was estimated by drinking water alone at concentrations less than 1.5 mg/L.”

The authors point out that, “To our knowledge, no studies of fluoride exposure and children’s IQ have been performed in the United States and no nationally representative urinary fluoride levels are available, hindering application of these findings to the US population.”
 

Editorial: Time to Reassess Systemic Fluoride

Bruce P. Lanphear, MD, MPH, with Simon Fraser University, Vancouver, British Columbia, Canada, is the lead author on an editorial that suggests these data point to the need to reassess systemic fluoride exposure.

“Their study is the largest and includes the most rigorous series of meta-analyses of fluoride ever conducted,” Lanphear and colleagues wrote. “It is time for health organizations and regulatory bodies to reassess the risks and benefits of fluoride, particularly for pregnant women and infants.”

Lanphear’s team says distinguishing between water fluoride and urinary fluoride levels is important in these results “because regulatory and public health agencies must consider total fluoride intake when assessing risks.”

Taylor and colleagues’ finding that there was no statistically significant association between water fluoride les than 1.5 mg/L and children’s IQ scores in the dose-response meta-analysis doesn’t mean fluoride is not a potential risk for lower IQ scores in fluoridated communities, they wrote. “Water fluoride concentration does not capture the amount of water ingested or other sources of ingested fluoride. In contrast, urinary fluoride is a biological measure of total fluoride exposure, including the dynamic interface between bone fluoride stores and blood fluoride.”
 

Editorial: Be Cautious About the Conclusions

Steven M. Levy, DDS, MPH, cites “major areas of concern” in the meta-analysis in his editorial.

He points to the large majority of studies in the meta-analysis that were at “high risk of bias” (47 high risk vs 12 that were low risk). He also cited information from a further look at the low-risk-of-bias studies included in the supplement.

“The studies with lower risk of bias showed a negligible effect (standardized mean difference [SMD], −0.19; 95% CI, −0.35 to −0.04) with very high heterogeneity (I2 = 87%), and a majority of publications (8 of 12) did not show a negative association between fluoride and childhood IQ,” Levy wrote. 

“Taylor et al do not adequately justify selection or omission of studies or explain or justify the calculated individual effect sizes presented in the main analysis. Also, readers are not told which studies with lower risk of bias are included in the subanalyses for water fluoride levels less than 1.5 mg/L, less than 2.0 mg/L, and less than 4.0 mg/L; therefore, readers cannot independently consider important differences across these studies.”

Levy also states that the magnitudes of the possible IQ differences are unfairly inflated. For the United Staes and most of the world, he points out, the recommended community water fluoridation level is 0.7 mg/L. Therefore, the difference between a community with low fluoride levels (about 0.2 mg/L) and one with optimal levels is about 0.5 mg/L. 

“However, Taylor and colleagues use a difference of 1.0 mg/L in their calculations, artificially doubling the estimated impact on IQ,” Levy wrote.

The meta-analysis should not affect public policy on adding fluoride to community water systems “and the widespread use of fluoride for caries prevention should continue,” Levy concluded.
 

Concerns About Quality of Studies Included

Charlotte Lewis, MD, MPH, associate professor of pediatrics at the University of Washington School of Medicine and part of Seattle Children’s Multidisciplinary Infant Nutrition and Feeding Team, Seattle, who was not involved in the meta-analysis or editorials, said that systemic fluoridation should not change based on these results, citing what she said are problems with methodology.

“There are many concerns about the quality of studies included in this meta-analysis,” Lewis said. “Although the authors claim to have separated out low-bias studies, it is important to note that many of these same studies have substantial methodological flaws.”

She said studies deemed low-bias and included in the meta-analysis “relied on multiple examiners for cognitive testing without consideration for inter-rater variation or reliability measures.” She added that “a number of the studies failed to account for maternal IQ scores, breastfeeding, lead exposure, or other factors that could affect cognitive development, further contributing to biased conclusions.”

Importantly, she said, many of the studies, including one by Rivka Green and colleagues published in JAMA Pediatrics, relied on maternal spot urinary fluoride to assess fetal exposure to fluoride. “This is not a valid way to assess fetal exposure to fluoride and including such studies in this meta-analysis has led to inappropriate conclusions because they are based on studies using a flawed exposure measure.” 

She pointed to recent longitudinal, population-based studies, including one by Jayant V Kumar and colleagues that have found no adverse impact on IQ, or other cognitive tests, of drinking water with low levels of fluoride present, comparable to US community water fluoridation standards. 

“Relative to the small convenience-sample, cross-sectional studies included in this meta-analysis, longitudinal, population-based studies are considered significantly more reliable for establishing cause and effect,” she said.
 

Fluoride Levels Different Globally

Lewis said in some parts of the world fluoride is present in the environment in much higher levels than in fluoridated water in the United States.

“There are known adverse health effects of high fluoride ingestion in these endemic regions found primarily in China, India, and Iran. This points to the importance of dose response. What is beneficial at low levels can be toxic at high levels and that appears to be the case, not surprisingly, for fluoride as well. However, at 0.7 ppm, the level of fluoride in community water fluoridation, we experience fluoride’s beneficial effects when we regularly drink optimally fluoridated water.”

“Water fluoridation is an important public health approach available and beneficial to all, even those unable to afford or access dental care,” she said. “Water fluoridation diminishes oral health disparities, and its removal threatens to worsen disparities and increased suffering from dental disease. I remain confident in the benefits and safety of community water fluoridation.”

Taylor and colleagues reported no relevant financial relationships. Lanphear reported grants from the National Institute of Environmental Health Sciences and the Canadian Institute for Health Research and having served as a nonretained and unpaid expert witness in a federal fluoride suit against the US EPA. Levy reported past grants from the National Institute of Dental and Craniofacial Research related to fluoride, dental caries, dental fluorosis, and bone development. He reported small grant funding from the Centers for Disease Control and Prevention related to fluoride, dental caries, and fluorosis. He consults for the Centers for Disease Control and Prevention and the National Institute of Dental and Craniofacial Research and serves on the National Fluoride Advisory Committee for the American Dental Association.

A version of this article appeared on Medscape.com.

Results published from a systematic review and meta-analysis find an inverse association and a dose-response link between fluoride exposure and children’s IQ scores.

Kyla W. Taylor, PhD, with the Division of Translational Toxicology at the National Institutes of Health, Morrisville, North Carolina, led the multicountry study published online in JAMA Pediatrics.

Two accompanying editorials offer two very different perspectives on how to interpret the researchers’ conclusions.
 

Study Results

The authors noted that, of the 74 studies included in the review (64 cross-sectional and 10 cohort studies), most (45) were conducted in China. Other countries included were Canada (3), Denmark (1), India (12), Iran (4), Mexico (4), New Zealand (1), Pakistan (2), Spain (1), and Taiwan (1). “Fifty-two studies were rated high risk of bias, and 22 were rated low risk of bias,” the authors stated.

Researchers found that 64 of the 74 studies reported inverse associations between fluoride exposure measures and children’s IQ scores. Their analysis of 59 studies with group-level measures of fluoride in drinking water, dental fluorosis, or other measures of fluoride exposure showed an inverse relationship between fluoride exposure and IQ (pooled standardized mean difference [SMD], −0.45; 95% CI, −0.57 to −0.33; P < .001). Of those 59 studies, encompassing 20,932 children, 47 had high risk for bias and 12 had low risk for bias.

In 31 studies that reported fluoride measurements in drinking water, a dose-response relationship was found between exposed and reference groups (SMD, –0.15; 95% CI, –0.20 to –0.11; P < .001). That relationship remained inverse when exposed groups were limited to less than 4 mg fluoride/L and less than 2 mg/L. However, the association was not seen at less than 1.5 mg/L.

In 20 studies reporting fluoride measured in urine, there was an inverse dose-response association (SMD, –0.15; 95% CI, –0.23 to –0.07; P < .001). Those inverse relationships held at levels less than 4 mg/L, less than 2 mg/L, and less than 1.5 mg/L fluoride in urine.

For perspective, in the United States, the US Public Health Service in 2015 lowered the recommended concentration of fluoride in drinking water from a range of 0.7-1.2 mg/L to 0.7 mg/L to reduce the risk for dental fluorosis while keeping its protective effect against dental caries. 

When Taylor’s team analyzed 13 studies with individual-level measures, they found an IQ score decrease of 1.63 points (95% CI, –2.33 to –0.93; P < .001) per 1-mg/L increase in urinary fluoride. Among studies with a low risk for bias, they observed an IQ score decrease of 1.14 points (95% CI, –1.68 to –0.61; P < .001). The inverse relationship remained when stratified by factors including risk for bias, sex, age, country, outcome assessment type, exposure timing (prenatal or postnatal), and exposure matrix (urinary fluoride, intake and water fluoride), the authors wrote.

The authors conclude both that inverse relationships and a dose-response association between fluoride measured in urine and drinking water and children’s IQs were found across the literature examined but also that “there were limited data and uncertainty in the dose-response association between fluoride exposure and children’s IQ when fluoride exposure was estimated by drinking water alone at concentrations less than 1.5 mg/L.”

The authors point out that, “To our knowledge, no studies of fluoride exposure and children’s IQ have been performed in the United States and no nationally representative urinary fluoride levels are available, hindering application of these findings to the US population.”
 

Editorial: Time to Reassess Systemic Fluoride

Bruce P. Lanphear, MD, MPH, with Simon Fraser University, Vancouver, British Columbia, Canada, is the lead author on an editorial that suggests these data point to the need to reassess systemic fluoride exposure.

“Their study is the largest and includes the most rigorous series of meta-analyses of fluoride ever conducted,” Lanphear and colleagues wrote. “It is time for health organizations and regulatory bodies to reassess the risks and benefits of fluoride, particularly for pregnant women and infants.”

Lanphear’s team says distinguishing between water fluoride and urinary fluoride levels is important in these results “because regulatory and public health agencies must consider total fluoride intake when assessing risks.”

Taylor and colleagues’ finding that there was no statistically significant association between water fluoride les than 1.5 mg/L and children’s IQ scores in the dose-response meta-analysis doesn’t mean fluoride is not a potential risk for lower IQ scores in fluoridated communities, they wrote. “Water fluoride concentration does not capture the amount of water ingested or other sources of ingested fluoride. In contrast, urinary fluoride is a biological measure of total fluoride exposure, including the dynamic interface between bone fluoride stores and blood fluoride.”
 

Editorial: Be Cautious About the Conclusions

Steven M. Levy, DDS, MPH, cites “major areas of concern” in the meta-analysis in his editorial.

He points to the large majority of studies in the meta-analysis that were at “high risk of bias” (47 high risk vs 12 that were low risk). He also cited information from a further look at the low-risk-of-bias studies included in the supplement.

“The studies with lower risk of bias showed a negligible effect (standardized mean difference [SMD], −0.19; 95% CI, −0.35 to −0.04) with very high heterogeneity (I2 = 87%), and a majority of publications (8 of 12) did not show a negative association between fluoride and childhood IQ,” Levy wrote. 

“Taylor et al do not adequately justify selection or omission of studies or explain or justify the calculated individual effect sizes presented in the main analysis. Also, readers are not told which studies with lower risk of bias are included in the subanalyses for water fluoride levels less than 1.5 mg/L, less than 2.0 mg/L, and less than 4.0 mg/L; therefore, readers cannot independently consider important differences across these studies.”

Levy also states that the magnitudes of the possible IQ differences are unfairly inflated. For the United Staes and most of the world, he points out, the recommended community water fluoridation level is 0.7 mg/L. Therefore, the difference between a community with low fluoride levels (about 0.2 mg/L) and one with optimal levels is about 0.5 mg/L. 

“However, Taylor and colleagues use a difference of 1.0 mg/L in their calculations, artificially doubling the estimated impact on IQ,” Levy wrote.

The meta-analysis should not affect public policy on adding fluoride to community water systems “and the widespread use of fluoride for caries prevention should continue,” Levy concluded.
 

Concerns About Quality of Studies Included

Charlotte Lewis, MD, MPH, associate professor of pediatrics at the University of Washington School of Medicine and part of Seattle Children’s Multidisciplinary Infant Nutrition and Feeding Team, Seattle, who was not involved in the meta-analysis or editorials, said that systemic fluoridation should not change based on these results, citing what she said are problems with methodology.

“There are many concerns about the quality of studies included in this meta-analysis,” Lewis said. “Although the authors claim to have separated out low-bias studies, it is important to note that many of these same studies have substantial methodological flaws.”

She said studies deemed low-bias and included in the meta-analysis “relied on multiple examiners for cognitive testing without consideration for inter-rater variation or reliability measures.” She added that “a number of the studies failed to account for maternal IQ scores, breastfeeding, lead exposure, or other factors that could affect cognitive development, further contributing to biased conclusions.”

Importantly, she said, many of the studies, including one by Rivka Green and colleagues published in JAMA Pediatrics, relied on maternal spot urinary fluoride to assess fetal exposure to fluoride. “This is not a valid way to assess fetal exposure to fluoride and including such studies in this meta-analysis has led to inappropriate conclusions because they are based on studies using a flawed exposure measure.” 

She pointed to recent longitudinal, population-based studies, including one by Jayant V Kumar and colleagues that have found no adverse impact on IQ, or other cognitive tests, of drinking water with low levels of fluoride present, comparable to US community water fluoridation standards. 

“Relative to the small convenience-sample, cross-sectional studies included in this meta-analysis, longitudinal, population-based studies are considered significantly more reliable for establishing cause and effect,” she said.
 

Fluoride Levels Different Globally

Lewis said in some parts of the world fluoride is present in the environment in much higher levels than in fluoridated water in the United States.

“There are known adverse health effects of high fluoride ingestion in these endemic regions found primarily in China, India, and Iran. This points to the importance of dose response. What is beneficial at low levels can be toxic at high levels and that appears to be the case, not surprisingly, for fluoride as well. However, at 0.7 ppm, the level of fluoride in community water fluoridation, we experience fluoride’s beneficial effects when we regularly drink optimally fluoridated water.”

“Water fluoridation is an important public health approach available and beneficial to all, even those unable to afford or access dental care,” she said. “Water fluoridation diminishes oral health disparities, and its removal threatens to worsen disparities and increased suffering from dental disease. I remain confident in the benefits and safety of community water fluoridation.”

Taylor and colleagues reported no relevant financial relationships. Lanphear reported grants from the National Institute of Environmental Health Sciences and the Canadian Institute for Health Research and having served as a nonretained and unpaid expert witness in a federal fluoride suit against the US EPA. Levy reported past grants from the National Institute of Dental and Craniofacial Research related to fluoride, dental caries, dental fluorosis, and bone development. He reported small grant funding from the Centers for Disease Control and Prevention related to fluoride, dental caries, and fluorosis. He consults for the Centers for Disease Control and Prevention and the National Institute of Dental and Craniofacial Research and serves on the National Fluoride Advisory Committee for the American Dental Association.

A version of this article appeared on Medscape.com.

Results published from a systematic review and meta-analysis find an inverse association and a dose-response link between fluoride exposure and children’s IQ scores.

Kyla W. Taylor, PhD, with the Division of Translational Toxicology at the National Institutes of Health, Morrisville, North Carolina, led the multicountry study published online in JAMA Pediatrics.

Two accompanying editorials offer two very different perspectives on how to interpret the researchers’ conclusions.
 

Study Results

The authors noted that, of the 74 studies included in the review (64 cross-sectional and 10 cohort studies), most (45) were conducted in China. Other countries included were Canada (3), Denmark (1), India (12), Iran (4), Mexico (4), New Zealand (1), Pakistan (2), Spain (1), and Taiwan (1). “Fifty-two studies were rated high risk of bias, and 22 were rated low risk of bias,” the authors stated.

Researchers found that 64 of the 74 studies reported inverse associations between fluoride exposure measures and children’s IQ scores. Their analysis of 59 studies with group-level measures of fluoride in drinking water, dental fluorosis, or other measures of fluoride exposure showed an inverse relationship between fluoride exposure and IQ (pooled standardized mean difference [SMD], −0.45; 95% CI, −0.57 to −0.33; P < .001). Of those 59 studies, encompassing 20,932 children, 47 had high risk for bias and 12 had low risk for bias.

In 31 studies that reported fluoride measurements in drinking water, a dose-response relationship was found between exposed and reference groups (SMD, –0.15; 95% CI, –0.20 to –0.11; P < .001). That relationship remained inverse when exposed groups were limited to less than 4 mg fluoride/L and less than 2 mg/L. However, the association was not seen at less than 1.5 mg/L.

In 20 studies reporting fluoride measured in urine, there was an inverse dose-response association (SMD, –0.15; 95% CI, –0.23 to –0.07; P < .001). Those inverse relationships held at levels less than 4 mg/L, less than 2 mg/L, and less than 1.5 mg/L fluoride in urine.

For perspective, in the United States, the US Public Health Service in 2015 lowered the recommended concentration of fluoride in drinking water from a range of 0.7-1.2 mg/L to 0.7 mg/L to reduce the risk for dental fluorosis while keeping its protective effect against dental caries. 

When Taylor’s team analyzed 13 studies with individual-level measures, they found an IQ score decrease of 1.63 points (95% CI, –2.33 to –0.93; P < .001) per 1-mg/L increase in urinary fluoride. Among studies with a low risk for bias, they observed an IQ score decrease of 1.14 points (95% CI, –1.68 to –0.61; P < .001). The inverse relationship remained when stratified by factors including risk for bias, sex, age, country, outcome assessment type, exposure timing (prenatal or postnatal), and exposure matrix (urinary fluoride, intake and water fluoride), the authors wrote.

The authors conclude both that inverse relationships and a dose-response association between fluoride measured in urine and drinking water and children’s IQs were found across the literature examined but also that “there were limited data and uncertainty in the dose-response association between fluoride exposure and children’s IQ when fluoride exposure was estimated by drinking water alone at concentrations less than 1.5 mg/L.”

The authors point out that, “To our knowledge, no studies of fluoride exposure and children’s IQ have been performed in the United States and no nationally representative urinary fluoride levels are available, hindering application of these findings to the US population.”
 

Editorial: Time to Reassess Systemic Fluoride

Bruce P. Lanphear, MD, MPH, with Simon Fraser University, Vancouver, British Columbia, Canada, is the lead author on an editorial that suggests these data point to the need to reassess systemic fluoride exposure.

“Their study is the largest and includes the most rigorous series of meta-analyses of fluoride ever conducted,” Lanphear and colleagues wrote. “It is time for health organizations and regulatory bodies to reassess the risks and benefits of fluoride, particularly for pregnant women and infants.”

Lanphear’s team says distinguishing between water fluoride and urinary fluoride levels is important in these results “because regulatory and public health agencies must consider total fluoride intake when assessing risks.”

Taylor and colleagues’ finding that there was no statistically significant association between water fluoride les than 1.5 mg/L and children’s IQ scores in the dose-response meta-analysis doesn’t mean fluoride is not a potential risk for lower IQ scores in fluoridated communities, they wrote. “Water fluoride concentration does not capture the amount of water ingested or other sources of ingested fluoride. In contrast, urinary fluoride is a biological measure of total fluoride exposure, including the dynamic interface between bone fluoride stores and blood fluoride.”
 

Editorial: Be Cautious About the Conclusions

Steven M. Levy, DDS, MPH, cites “major areas of concern” in the meta-analysis in his editorial.

He points to the large majority of studies in the meta-analysis that were at “high risk of bias” (47 high risk vs 12 that were low risk). He also cited information from a further look at the low-risk-of-bias studies included in the supplement.

“The studies with lower risk of bias showed a negligible effect (standardized mean difference [SMD], −0.19; 95% CI, −0.35 to −0.04) with very high heterogeneity (I2 = 87%), and a majority of publications (8 of 12) did not show a negative association between fluoride and childhood IQ,” Levy wrote. 

“Taylor et al do not adequately justify selection or omission of studies or explain or justify the calculated individual effect sizes presented in the main analysis. Also, readers are not told which studies with lower risk of bias are included in the subanalyses for water fluoride levels less than 1.5 mg/L, less than 2.0 mg/L, and less than 4.0 mg/L; therefore, readers cannot independently consider important differences across these studies.”

Levy also states that the magnitudes of the possible IQ differences are unfairly inflated. For the United Staes and most of the world, he points out, the recommended community water fluoridation level is 0.7 mg/L. Therefore, the difference between a community with low fluoride levels (about 0.2 mg/L) and one with optimal levels is about 0.5 mg/L. 

“However, Taylor and colleagues use a difference of 1.0 mg/L in their calculations, artificially doubling the estimated impact on IQ,” Levy wrote.

The meta-analysis should not affect public policy on adding fluoride to community water systems “and the widespread use of fluoride for caries prevention should continue,” Levy concluded.
 

Concerns About Quality of Studies Included

Charlotte Lewis, MD, MPH, associate professor of pediatrics at the University of Washington School of Medicine and part of Seattle Children’s Multidisciplinary Infant Nutrition and Feeding Team, Seattle, who was not involved in the meta-analysis or editorials, said that systemic fluoridation should not change based on these results, citing what she said are problems with methodology.

“There are many concerns about the quality of studies included in this meta-analysis,” Lewis said. “Although the authors claim to have separated out low-bias studies, it is important to note that many of these same studies have substantial methodological flaws.”

She said studies deemed low-bias and included in the meta-analysis “relied on multiple examiners for cognitive testing without consideration for inter-rater variation or reliability measures.” She added that “a number of the studies failed to account for maternal IQ scores, breastfeeding, lead exposure, or other factors that could affect cognitive development, further contributing to biased conclusions.”

Importantly, she said, many of the studies, including one by Rivka Green and colleagues published in JAMA Pediatrics, relied on maternal spot urinary fluoride to assess fetal exposure to fluoride. “This is not a valid way to assess fetal exposure to fluoride and including such studies in this meta-analysis has led to inappropriate conclusions because they are based on studies using a flawed exposure measure.” 

She pointed to recent longitudinal, population-based studies, including one by Jayant V Kumar and colleagues that have found no adverse impact on IQ, or other cognitive tests, of drinking water with low levels of fluoride present, comparable to US community water fluoridation standards. 

“Relative to the small convenience-sample, cross-sectional studies included in this meta-analysis, longitudinal, population-based studies are considered significantly more reliable for establishing cause and effect,” she said.
 

Fluoride Levels Different Globally

Lewis said in some parts of the world fluoride is present in the environment in much higher levels than in fluoridated water in the United States.

“There are known adverse health effects of high fluoride ingestion in these endemic regions found primarily in China, India, and Iran. This points to the importance of dose response. What is beneficial at low levels can be toxic at high levels and that appears to be the case, not surprisingly, for fluoride as well. However, at 0.7 ppm, the level of fluoride in community water fluoridation, we experience fluoride’s beneficial effects when we regularly drink optimally fluoridated water.”

“Water fluoridation is an important public health approach available and beneficial to all, even those unable to afford or access dental care,” she said. “Water fluoridation diminishes oral health disparities, and its removal threatens to worsen disparities and increased suffering from dental disease. I remain confident in the benefits and safety of community water fluoridation.”

Taylor and colleagues reported no relevant financial relationships. Lanphear reported grants from the National Institute of Environmental Health Sciences and the Canadian Institute for Health Research and having served as a nonretained and unpaid expert witness in a federal fluoride suit against the US EPA. Levy reported past grants from the National Institute of Dental and Craniofacial Research related to fluoride, dental caries, dental fluorosis, and bone development. He reported small grant funding from the Centers for Disease Control and Prevention related to fluoride, dental caries, and fluorosis. He consults for the Centers for Disease Control and Prevention and the National Institute of Dental and Craniofacial Research and serves on the National Fluoride Advisory Committee for the American Dental Association.

A version of this article appeared on Medscape.com.

Current management of children and adolescents with long COVID was the focus of various presentations at the 3rd Long COVID Congress in Berlin in November 2024. The congress aimed to facilitate in-depth discussions on recent research projects, diagnostic procedures, and therapeutic approaches to enhance care for long COVID patients. This year, the focus was on research into long COVID in children and adolescents and how to improve their care.

Uta Behrends, MD, head of the Munich Chronic Fatigue Center, Center for Pediatric and Adolescent Medicine at the Technical University of Munich, Germany, and Nicole Toepfner, MD, a pediatrician at the University Hospital in Dresden, Germany, provided an initial overview.

Prevalence Data Are Limited

Data on the incidence and prevalence of the condition in children and adolescents are limited because most studies have primarily examined adults. A 2022 Swiss study estimated that it affects between 2% and 3.5% of children and adolescents who contract COVID-19. A recent study published in JAMA involving 5367 children and adolescents found that 20% of children aged 6-11 years and 14% of adolescents met the researchers’ criteria for long COVID.

Impaired Mental Health

Initial data from the latest wave of the population-based longitudinal COPSY (Corona and Psyche) study showed that compared with their peer group children and adolescents diagnosed with long COVID exhibit significantly higher rates of psychological issues and depressive symptoms. Although no significant differences were found in anxiety levels, study leader Ulrike Ravens-Sieberer, PhD, from the University Medical Center Hamburg-Eppendorf, Germany, told the congress that those with long COVID do also report more frequent somatic or psychological health complaints and lower health-related quality of life than peers.

Addressing Data Gaps

Another study due to launch in January 2025 and run through to 2028 is the COVYOUTH data study, which aims to better understand the nature, frequency, and risk factors of COVID-related sequelae in children and adolescents.

Study centers include Ruhr University Bochum, University Hospital Cologne, the Paul-Ehrlich-Institut, and University Medical Center Hamburg-Eppendorf. Using routine data from statutory health insurance and newly developed case definitions, researchers aim to investigate:

• Psychological stress caused by COVID-19 measures 
• Post-COVID syndrome and myocarditis 
• Adverse effects of COVID-19 vaccinations 

Specialized Diagnostics and Care

The Post-COVID Kids Bavaria project offers specialized diagnostics and care for children and adolescents, including a day clinic, telemedical follow-ups, and an inpatient pain therapy module providing age-appropriate care as close to patients’ homes as possible.

MOVE-COVID is a model project for patient-focused research on long COVID and myalgic encephalomyelitis/chronic fatigue syndrome (ME/CFS) involving university pediatric hospitals in Freiburg, Heidelberg, Tübingen, and Ulm. It also aims to establish a care network across the state of Baden-Württemberg, including the establishment of long COVID outpatient clinics at social pediatric centers in the network hospitals, as well as enhanced telemedical support and standardized diagnostic and treatment protocols. “MOVE-COVID has successfully consolidated competencies and capacities in patient care, health services research, and patient-focused studies across multiple centers,” Behrends said.

Chronic Pain and Fatigue

Post-COVID syndromes in children and adolescents may feature profound fatigue, unrefreshing sleep, post-exertional malaise, cognitive dysfunction, and orthostatic intolerance and overlap with conditions such as ME/CFS. According to the German patient association Fatigatio, Berlin, research and studies for these conditions in children remain limited compared with those in adults. However, the US Centers for Disease Control estimates that around 2% of ME/CFS patients are children or adolescents, with the majority being teenagers.

Two inpatient treatment concepts, SHARK and TIGER, developed by Lea Höfel, PhD, head of the Centre for Pain Therapy for Young People and the Psychological Service at the Children’s Hospital in Garmisch-Partenkirchen, address chronic pain, fatigue, and ME/CFS in young people. These programs integrate structured breaks and flexible access to multiple therapists as needed. The TIGER program focuses on those with post-exertional malaise, while the SHARK program is designed for adolescents without this symptom. Both programs last 4.5-5 weeks and emphasize symptom reduction, education, and energy management.

Preliminary Results

SHARK included 30 participants (7 men; average age, 16 years), of whom 12 had a history of SARS-CoV-2 infection. TIGER involved 100 participants (24 men; average age, 16.7 years), of whom 32 had a SARS-CoV-2 infection as a triggering event. Other triggers included Epstein-Barr virus and other infections.

Preliminary findings from the projects indicate that optimized management with outpatient and follow-up care can yield positive, sometimes lasting effects. No significant differences between SARS-CoV-2 and other triggers emerged, but pain proved more manageable in the SHARK group than in the TIGER group, suggesting they may involve different pathological mechanisms.

Hope for Improved Outcomes

“It’s important to move away from the idea that nothing can be done,” Behrends said. This is a common attitude with children and adolescents displaying these types of symptoms, but it’s simply not true. “Even in pediatrics, we have numerous therapeutic options that may offer relief, from medication to psychosocial interventions,” she concluded.

This story was translated from Medscape’s German edition using several editorial tools, including artificial intelligence, as part of the process. Human editors reviewed this content before publication. A version of this article appeared on Medscape.com.

Current management of children and adolescents with long COVID was the focus of various presentations at the 3rd Long COVID Congress in Berlin in November 2024. The congress aimed to facilitate in-depth discussions on recent research projects, diagnostic procedures, and therapeutic approaches to enhance care for long COVID patients. This year, the focus was on research into long COVID in children and adolescents and how to improve their care.

Uta Behrends, MD, head of the Munich Chronic Fatigue Center, Center for Pediatric and Adolescent Medicine at the Technical University of Munich, Germany, and Nicole Toepfner, MD, a pediatrician at the University Hospital in Dresden, Germany, provided an initial overview.

Prevalence Data Are Limited

Data on the incidence and prevalence of the condition in children and adolescents are limited because most studies have primarily examined adults. A 2022 Swiss study estimated that it affects between 2% and 3.5% of children and adolescents who contract COVID-19. A recent study published in JAMA involving 5367 children and adolescents found that 20% of children aged 6-11 years and 14% of adolescents met the researchers’ criteria for long COVID.

Impaired Mental Health

Initial data from the latest wave of the population-based longitudinal COPSY (Corona and Psyche) study showed that compared with their peer group children and adolescents diagnosed with long COVID exhibit significantly higher rates of psychological issues and depressive symptoms. Although no significant differences were found in anxiety levels, study leader Ulrike Ravens-Sieberer, PhD, from the University Medical Center Hamburg-Eppendorf, Germany, told the congress that those with long COVID do also report more frequent somatic or psychological health complaints and lower health-related quality of life than peers.

Addressing Data Gaps

Another study due to launch in January 2025 and run through to 2028 is the COVYOUTH data study, which aims to better understand the nature, frequency, and risk factors of COVID-related sequelae in children and adolescents.

Study centers include Ruhr University Bochum, University Hospital Cologne, the Paul-Ehrlich-Institut, and University Medical Center Hamburg-Eppendorf. Using routine data from statutory health insurance and newly developed case definitions, researchers aim to investigate:

• Psychological stress caused by COVID-19 measures 
• Post-COVID syndrome and myocarditis 
• Adverse effects of COVID-19 vaccinations 

Specialized Diagnostics and Care

The Post-COVID Kids Bavaria project offers specialized diagnostics and care for children and adolescents, including a day clinic, telemedical follow-ups, and an inpatient pain therapy module providing age-appropriate care as close to patients’ homes as possible.

MOVE-COVID is a model project for patient-focused research on long COVID and myalgic encephalomyelitis/chronic fatigue syndrome (ME/CFS) involving university pediatric hospitals in Freiburg, Heidelberg, Tübingen, and Ulm. It also aims to establish a care network across the state of Baden-Württemberg, including the establishment of long COVID outpatient clinics at social pediatric centers in the network hospitals, as well as enhanced telemedical support and standardized diagnostic and treatment protocols. “MOVE-COVID has successfully consolidated competencies and capacities in patient care, health services research, and patient-focused studies across multiple centers,” Behrends said.

Chronic Pain and Fatigue

Post-COVID syndromes in children and adolescents may feature profound fatigue, unrefreshing sleep, post-exertional malaise, cognitive dysfunction, and orthostatic intolerance and overlap with conditions such as ME/CFS. According to the German patient association Fatigatio, Berlin, research and studies for these conditions in children remain limited compared with those in adults. However, the US Centers for Disease Control estimates that around 2% of ME/CFS patients are children or adolescents, with the majority being teenagers.

Two inpatient treatment concepts, SHARK and TIGER, developed by Lea Höfel, PhD, head of the Centre for Pain Therapy for Young People and the Psychological Service at the Children’s Hospital in Garmisch-Partenkirchen, address chronic pain, fatigue, and ME/CFS in young people. These programs integrate structured breaks and flexible access to multiple therapists as needed. The TIGER program focuses on those with post-exertional malaise, while the SHARK program is designed for adolescents without this symptom. Both programs last 4.5-5 weeks and emphasize symptom reduction, education, and energy management.

Preliminary Results

SHARK included 30 participants (7 men; average age, 16 years), of whom 12 had a history of SARS-CoV-2 infection. TIGER involved 100 participants (24 men; average age, 16.7 years), of whom 32 had a SARS-CoV-2 infection as a triggering event. Other triggers included Epstein-Barr virus and other infections.

Preliminary findings from the projects indicate that optimized management with outpatient and follow-up care can yield positive, sometimes lasting effects. No significant differences between SARS-CoV-2 and other triggers emerged, but pain proved more manageable in the SHARK group than in the TIGER group, suggesting they may involve different pathological mechanisms.

Hope for Improved Outcomes

“It’s important to move away from the idea that nothing can be done,” Behrends said. This is a common attitude with children and adolescents displaying these types of symptoms, but it’s simply not true. “Even in pediatrics, we have numerous therapeutic options that may offer relief, from medication to psychosocial interventions,” she concluded.

This story was translated from Medscape’s German edition using several editorial tools, including artificial intelligence, as part of the process. Human editors reviewed this content before publication. A version of this article appeared on Medscape.com.

Current management of children and adolescents with long COVID was the focus of various presentations at the 3rd Long COVID Congress in Berlin in November 2024. The congress aimed to facilitate in-depth discussions on recent research projects, diagnostic procedures, and therapeutic approaches to enhance care for long COVID patients. This year, the focus was on research into long COVID in children and adolescents and how to improve their care.

Uta Behrends, MD, head of the Munich Chronic Fatigue Center, Center for Pediatric and Adolescent Medicine at the Technical University of Munich, Germany, and Nicole Toepfner, MD, a pediatrician at the University Hospital in Dresden, Germany, provided an initial overview.

Prevalence Data Are Limited

Data on the incidence and prevalence of the condition in children and adolescents are limited because most studies have primarily examined adults. A 2022 Swiss study estimated that it affects between 2% and 3.5% of children and adolescents who contract COVID-19. A recent study published in JAMA involving 5367 children and adolescents found that 20% of children aged 6-11 years and 14% of adolescents met the researchers’ criteria for long COVID.

Impaired Mental Health

Initial data from the latest wave of the population-based longitudinal COPSY (Corona and Psyche) study showed that compared with their peer group children and adolescents diagnosed with long COVID exhibit significantly higher rates of psychological issues and depressive symptoms. Although no significant differences were found in anxiety levels, study leader Ulrike Ravens-Sieberer, PhD, from the University Medical Center Hamburg-Eppendorf, Germany, told the congress that those with long COVID do also report more frequent somatic or psychological health complaints and lower health-related quality of life than peers.

Addressing Data Gaps

Another study due to launch in January 2025 and run through to 2028 is the COVYOUTH data study, which aims to better understand the nature, frequency, and risk factors of COVID-related sequelae in children and adolescents.

Study centers include Ruhr University Bochum, University Hospital Cologne, the Paul-Ehrlich-Institut, and University Medical Center Hamburg-Eppendorf. Using routine data from statutory health insurance and newly developed case definitions, researchers aim to investigate:

• Psychological stress caused by COVID-19 measures 
• Post-COVID syndrome and myocarditis 
• Adverse effects of COVID-19 vaccinations 

Specialized Diagnostics and Care

The Post-COVID Kids Bavaria project offers specialized diagnostics and care for children and adolescents, including a day clinic, telemedical follow-ups, and an inpatient pain therapy module providing age-appropriate care as close to patients’ homes as possible.

MOVE-COVID is a model project for patient-focused research on long COVID and myalgic encephalomyelitis/chronic fatigue syndrome (ME/CFS) involving university pediatric hospitals in Freiburg, Heidelberg, Tübingen, and Ulm. It also aims to establish a care network across the state of Baden-Württemberg, including the establishment of long COVID outpatient clinics at social pediatric centers in the network hospitals, as well as enhanced telemedical support and standardized diagnostic and treatment protocols. “MOVE-COVID has successfully consolidated competencies and capacities in patient care, health services research, and patient-focused studies across multiple centers,” Behrends said.

Chronic Pain and Fatigue

Post-COVID syndromes in children and adolescents may feature profound fatigue, unrefreshing sleep, post-exertional malaise, cognitive dysfunction, and orthostatic intolerance and overlap with conditions such as ME/CFS. According to the German patient association Fatigatio, Berlin, research and studies for these conditions in children remain limited compared with those in adults. However, the US Centers for Disease Control estimates that around 2% of ME/CFS patients are children or adolescents, with the majority being teenagers.

Two inpatient treatment concepts, SHARK and TIGER, developed by Lea Höfel, PhD, head of the Centre for Pain Therapy for Young People and the Psychological Service at the Children’s Hospital in Garmisch-Partenkirchen, address chronic pain, fatigue, and ME/CFS in young people. These programs integrate structured breaks and flexible access to multiple therapists as needed. The TIGER program focuses on those with post-exertional malaise, while the SHARK program is designed for adolescents without this symptom. Both programs last 4.5-5 weeks and emphasize symptom reduction, education, and energy management.

Preliminary Results

SHARK included 30 participants (7 men; average age, 16 years), of whom 12 had a history of SARS-CoV-2 infection. TIGER involved 100 participants (24 men; average age, 16.7 years), of whom 32 had a SARS-CoV-2 infection as a triggering event. Other triggers included Epstein-Barr virus and other infections.

Preliminary findings from the projects indicate that optimized management with outpatient and follow-up care can yield positive, sometimes lasting effects. No significant differences between SARS-CoV-2 and other triggers emerged, but pain proved more manageable in the SHARK group than in the TIGER group, suggesting they may involve different pathological mechanisms.

Hope for Improved Outcomes

“It’s important to move away from the idea that nothing can be done,” Behrends said. This is a common attitude with children and adolescents displaying these types of symptoms, but it’s simply not true. “Even in pediatrics, we have numerous therapeutic options that may offer relief, from medication to psychosocial interventions,” she concluded.

This story was translated from Medscape’s German edition using several editorial tools, including artificial intelligence, as part of the process. Human editors reviewed this content before publication. A version of this article appeared on Medscape.com.