Pediatrics

New cases of COVID-19 in children continued their descent toward normalcy, falling below 100,000 in a week for the first time since early August 2021, according to the American Academy of Pediatrics and the Children’s Hospital Association.

The sixth consecutive week of declines saw just under 69,000 U.S. children test positive for COVID-19 from Feb. 25 to March 3, a drop of almost 46% from the previous week and 94% since the Omicron-fueled peak of 1.15 million during the week of Jan. 14-20, the AAP and CHA said in their weekly COVID report. The total number of child cases is 12.7 million since the pandemic began, with children representing 19% of all cases.

New admissions also stayed on a downward path, as the rate dropped to 0.24 per 100,000 children aged 0-17 years on March 5, a decline of nearly 81% since hitting 1.25 per 100,000 on Jan. 15. The latest 7-day average for daily admissions, 178 per day from Feb. 27 to March 5, was 29% lower than the previous week and almost 81% lower than the peak of 914 per day for Jan. 10-16, the Centers for Disease Control and Prevention reported.

The story is the same for emergency department visits with diagnosed COVID-19, which are reported as a percentage of all ED visits. On March 4, the 7-day average for children aged 0-11 years was 0.8%, compared with a high of 13.9% in mid-January, while 12- to 15-year-olds had dropped from 12.4% to 0.5% and 16- to 17-year-olds went from 12.6% down to 0.5%, the CDC said on its COVID Data Tracker.

Florida’s surgeon general says no to the vaccine

Vaccination, in the meantime, is struggling to maintain a foothold against the current of declining cases. Florida Surgeon General Joseph Ladapo said that “the Florida Department of Health is going to be the first state to officially recommend against the COVID-19 vaccines for healthy children,” NBC News reported March 7. With such a move, “Florida would become the first state to break from the CDC on vaccines for children,” CNN said in its report.

Vaccinations among children aged 5-11 years, which hit 1.6 million in 1 week shortly after emergency use was authorized in early November, declined quickly shorty thereafter and only rose slightly during the Omicron surge. Since mid-January, the number of children receiving an initial dose has declined for seven consecutive weeks and is now lower than ever, based on CDC data compiled by the AAP.

Just over one-third of children aged 5-11 have gotten at least one dose of COVID-19 vaccine, while 26.4% are fully vaccinated. Among children aged 12-17, just over two-thirds (67.8%) have received at least one dose, 57.8% have completed the vaccine regimen, and 21.9% have gotten a booster, the CDC reported.

As of March 2, “about 8.4 million children 12-17 have yet to receive their initial COVID-19 vaccine dose,” the AAP said. About 64,000 children aged 12-17 had received their first dose in the previous week, the group noted, which was the second-lowest weekly total since the vaccine was approved for children aged 12-15 in May of 2021.

New cases of COVID-19 in children continued their descent toward normalcy, falling below 100,000 in a week for the first time since early August 2021, according to the American Academy of Pediatrics and the Children’s Hospital Association.

The sixth consecutive week of declines saw just under 69,000 U.S. children test positive for COVID-19 from Feb. 25 to March 3, a drop of almost 46% from the previous week and 94% since the Omicron-fueled peak of 1.15 million during the week of Jan. 14-20, the AAP and CHA said in their weekly COVID report. The total number of child cases is 12.7 million since the pandemic began, with children representing 19% of all cases.

New admissions also stayed on a downward path, as the rate dropped to 0.24 per 100,000 children aged 0-17 years on March 5, a decline of nearly 81% since hitting 1.25 per 100,000 on Jan. 15. The latest 7-day average for daily admissions, 178 per day from Feb. 27 to March 5, was 29% lower than the previous week and almost 81% lower than the peak of 914 per day for Jan. 10-16, the Centers for Disease Control and Prevention reported.

The story is the same for emergency department visits with diagnosed COVID-19, which are reported as a percentage of all ED visits. On March 4, the 7-day average for children aged 0-11 years was 0.8%, compared with a high of 13.9% in mid-January, while 12- to 15-year-olds had dropped from 12.4% to 0.5% and 16- to 17-year-olds went from 12.6% down to 0.5%, the CDC said on its COVID Data Tracker.

Florida’s surgeon general says no to the vaccine

Vaccination, in the meantime, is struggling to maintain a foothold against the current of declining cases. Florida Surgeon General Joseph Ladapo said that “the Florida Department of Health is going to be the first state to officially recommend against the COVID-19 vaccines for healthy children,” NBC News reported March 7. With such a move, “Florida would become the first state to break from the CDC on vaccines for children,” CNN said in its report.

Vaccinations among children aged 5-11 years, which hit 1.6 million in 1 week shortly after emergency use was authorized in early November, declined quickly shorty thereafter and only rose slightly during the Omicron surge. Since mid-January, the number of children receiving an initial dose has declined for seven consecutive weeks and is now lower than ever, based on CDC data compiled by the AAP.

Just over one-third of children aged 5-11 have gotten at least one dose of COVID-19 vaccine, while 26.4% are fully vaccinated. Among children aged 12-17, just over two-thirds (67.8%) have received at least one dose, 57.8% have completed the vaccine regimen, and 21.9% have gotten a booster, the CDC reported.

As of March 2, “about 8.4 million children 12-17 have yet to receive their initial COVID-19 vaccine dose,” the AAP said. About 64,000 children aged 12-17 had received their first dose in the previous week, the group noted, which was the second-lowest weekly total since the vaccine was approved for children aged 12-15 in May of 2021.

New cases of COVID-19 in children continued their descent toward normalcy, falling below 100,000 in a week for the first time since early August 2021, according to the American Academy of Pediatrics and the Children’s Hospital Association.

The sixth consecutive week of declines saw just under 69,000 U.S. children test positive for COVID-19 from Feb. 25 to March 3, a drop of almost 46% from the previous week and 94% since the Omicron-fueled peak of 1.15 million during the week of Jan. 14-20, the AAP and CHA said in their weekly COVID report. The total number of child cases is 12.7 million since the pandemic began, with children representing 19% of all cases.

New admissions also stayed on a downward path, as the rate dropped to 0.24 per 100,000 children aged 0-17 years on March 5, a decline of nearly 81% since hitting 1.25 per 100,000 on Jan. 15. The latest 7-day average for daily admissions, 178 per day from Feb. 27 to March 5, was 29% lower than the previous week and almost 81% lower than the peak of 914 per day for Jan. 10-16, the Centers for Disease Control and Prevention reported.

The story is the same for emergency department visits with diagnosed COVID-19, which are reported as a percentage of all ED visits. On March 4, the 7-day average for children aged 0-11 years was 0.8%, compared with a high of 13.9% in mid-January, while 12- to 15-year-olds had dropped from 12.4% to 0.5% and 16- to 17-year-olds went from 12.6% down to 0.5%, the CDC said on its COVID Data Tracker.

Florida’s surgeon general says no to the vaccine

Vaccination, in the meantime, is struggling to maintain a foothold against the current of declining cases. Florida Surgeon General Joseph Ladapo said that “the Florida Department of Health is going to be the first state to officially recommend against the COVID-19 vaccines for healthy children,” NBC News reported March 7. With such a move, “Florida would become the first state to break from the CDC on vaccines for children,” CNN said in its report.

Vaccinations among children aged 5-11 years, which hit 1.6 million in 1 week shortly after emergency use was authorized in early November, declined quickly shorty thereafter and only rose slightly during the Omicron surge. Since mid-January, the number of children receiving an initial dose has declined for seven consecutive weeks and is now lower than ever, based on CDC data compiled by the AAP.

Just over one-third of children aged 5-11 have gotten at least one dose of COVID-19 vaccine, while 26.4% are fully vaccinated. Among children aged 12-17, just over two-thirds (67.8%) have received at least one dose, 57.8% have completed the vaccine regimen, and 21.9% have gotten a booster, the CDC reported.

As of March 2, “about 8.4 million children 12-17 have yet to receive their initial COVID-19 vaccine dose,” the AAP said. About 64,000 children aged 12-17 had received their first dose in the previous week, the group noted, which was the second-lowest weekly total since the vaccine was approved for children aged 12-15 in May of 2021.

Researchers have identified markers in saliva that are differentially expressed in children with autism spectrum disorder (ASD) who have gastrointestinal (GI) disturbances.

These findings mark the beginning of an understanding of the biological differences separating kids with ASD with and without GI disturbances, study investigator David Q. Beversdorf, MD, professor of radiology, neurology and psychology, department of psychological sciences, University of Missouri, Columbia, told this news organization.

“The hope is this will lead us in future to markers that help guide targeted precision treatments of gastrointestinal disorders” in children with autism, with the ultimate goal of improving their quality of life, said Dr. Beversdorf.

The study was published online Jan. 20 in Frontiers in Psychiatry.
 

Anxiety a key driver?

GI disorders, particularly constipation, are common in children with ASD. Previous research by Dr. Beversdorf and colleagues suggests that anxiety may be driving the relationship between gut disturbances and autism.

Research shows some children with ASD respond well to traditional treatments such as laxatives, while others do not. However, the reasons for this are unclear.

“It would be great to know who those great responders are,” said Dr. Beversdorf. “Subtyping and using biomarkers might be biologically meaningful” because this could identify distinct groups.

The case-control study included 898 children aged 18-73 months recruited from outpatient pediatric clinics affiliated with seven academic medical centers across the United States. The average age of the sample was 44 months and participants were mainly White (76%), non-Hispanic (89%), and male (73%).

The children fell into three neurodevelopmental categories: ASD (n = 503), non-ASD developmental delay (DD, n = 205), and typical development (TD, n = 190).

ASD was diagnosed using standardized assessment tools including the Autism Diagnostic Observation Scale, second edition (ADOS-2). DD participants had delays in gross motor skills, fine motor skills, language, or cognitive development but did not meet criteria for ASD.

Including children with DD could address whether biological markers are specific to autism or to developmental disorders in general, noted Dr. Beversdorf.

TD participants, recruited at the time of their annual well-child visit, did not exhibit developmental delays.
 

Links to GI disturbance, behavior

Researchers subdivided participants into those with GI disturbances (n = 184) and those without these disturbances (n = 714). This was based on medical record review and parental report of disorders such as constipation, reflux, chronic diarrhea or abdominal pain, and food intolerance.

As expected, investigators found more children with ASD reported GI disturbance (22%) than with TD (10%). In children with ASD, rates of constipation (11%) and reflux (6%) were higher than rates among those with TD (3% and 0.5%, respectively).

However, rates of GI disturbances in children with ASD were similar to those with DD.

Investigators used a swab to obtain a saliva sample from participants in a nonfasting state. Saliva is a feasible and often favored source for sampling GI-related biology. Unlike stool microbiome, the saliva microbiome can be repeatedly sampled on demand and has shown resilience to antibiotics.

Researchers examined numerous RNAs, which are “incredibly biologically relevant,” said Dr. Beversdorf.

Investigators compared levels of 1,821 micro-transcriptome features across neurodevelopmental status and the presence or absence of GI disorders.

They also examined micro-transcriptome levels among GI subgroups (constipation, reflux, food intolerance, other GI condition, no GI condition). In addition, they identified RNAs that differed among children taking three common GI medications. These included probiotics, reflux medication, or laxatives.

The investigators found five piwi-interacting RNAs, which are small noncoding RNA molecules and three microbial RNAs in saliva that displayed an interaction between developmental status and GI disturbance. Fifty-seven salivary RNAs differed between GI subgroups, with microRNA differences found between food intolerance and reflux groups being the most common.

The analysis identified 12 microRNAs that displayed relationships with GI disturbance, behavior, and GI medication use.
 

First exploration

However, Dr. Beversdorf cautioned about the medication finding. “I can’t speak confidently about what we see there because with each group you get much, much smaller sample sizes with each individual treatment approach.”

The researchers looked at downstream targets of the 12 microRNAs and found involvement with 13 physiologic pathways. These included long-term depression, metabolism, and digestion pathways.

The metabolism and digestion pathways make sense, but it’s unclear why an addiction-related pathway would be involved, said Dr. Beversdorf. However, he noted children with autism do display obsessive features.

Experts don’t know if RNA changes are a cause of, or a response to, GI problems. “It could be the pain of constipation is triggering, say, these addiction pathway changes,” said Dr. Beversdorf.

The study is the “first exploration” into possible specific targets for treating GI disturbances in autism, said Dr. Beversdorf. “We hope these biomarkers will eventually give us an indication of which patients are going to respond to the individual approach to treating their constipation, their diarrhea, or whatever it is.”

The investigators plan to study whether RNA biomarkers determine which patients respond to different treatments targeting constipation, said Dr. Beversdorf.

A study limitation was that GI disturbances were not assessed by physicians. In addition, the term “GI disturbance” groups together loosely related pathology occurring in the GI tract, although there are important physiologic differences between conditions such as constipation and reflux.

The study received funding from the National Institutes of Health.

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

Researchers have identified markers in saliva that are differentially expressed in children with autism spectrum disorder (ASD) who have gastrointestinal (GI) disturbances.

These findings mark the beginning of an understanding of the biological differences separating kids with ASD with and without GI disturbances, study investigator David Q. Beversdorf, MD, professor of radiology, neurology and psychology, department of psychological sciences, University of Missouri, Columbia, told this news organization.

“The hope is this will lead us in future to markers that help guide targeted precision treatments of gastrointestinal disorders” in children with autism, with the ultimate goal of improving their quality of life, said Dr. Beversdorf.

The study was published online Jan. 20 in Frontiers in Psychiatry.
 

Anxiety a key driver?

GI disorders, particularly constipation, are common in children with ASD. Previous research by Dr. Beversdorf and colleagues suggests that anxiety may be driving the relationship between gut disturbances and autism.

Research shows some children with ASD respond well to traditional treatments such as laxatives, while others do not. However, the reasons for this are unclear.

“It would be great to know who those great responders are,” said Dr. Beversdorf. “Subtyping and using biomarkers might be biologically meaningful” because this could identify distinct groups.

The case-control study included 898 children aged 18-73 months recruited from outpatient pediatric clinics affiliated with seven academic medical centers across the United States. The average age of the sample was 44 months and participants were mainly White (76%), non-Hispanic (89%), and male (73%).

The children fell into three neurodevelopmental categories: ASD (n = 503), non-ASD developmental delay (DD, n = 205), and typical development (TD, n = 190).

ASD was diagnosed using standardized assessment tools including the Autism Diagnostic Observation Scale, second edition (ADOS-2). DD participants had delays in gross motor skills, fine motor skills, language, or cognitive development but did not meet criteria for ASD.

Including children with DD could address whether biological markers are specific to autism or to developmental disorders in general, noted Dr. Beversdorf.

TD participants, recruited at the time of their annual well-child visit, did not exhibit developmental delays.
 

Links to GI disturbance, behavior

Researchers subdivided participants into those with GI disturbances (n = 184) and those without these disturbances (n = 714). This was based on medical record review and parental report of disorders such as constipation, reflux, chronic diarrhea or abdominal pain, and food intolerance.

As expected, investigators found more children with ASD reported GI disturbance (22%) than with TD (10%). In children with ASD, rates of constipation (11%) and reflux (6%) were higher than rates among those with TD (3% and 0.5%, respectively).

However, rates of GI disturbances in children with ASD were similar to those with DD.

Investigators used a swab to obtain a saliva sample from participants in a nonfasting state. Saliva is a feasible and often favored source for sampling GI-related biology. Unlike stool microbiome, the saliva microbiome can be repeatedly sampled on demand and has shown resilience to antibiotics.

Researchers examined numerous RNAs, which are “incredibly biologically relevant,” said Dr. Beversdorf.

Investigators compared levels of 1,821 micro-transcriptome features across neurodevelopmental status and the presence or absence of GI disorders.

They also examined micro-transcriptome levels among GI subgroups (constipation, reflux, food intolerance, other GI condition, no GI condition). In addition, they identified RNAs that differed among children taking three common GI medications. These included probiotics, reflux medication, or laxatives.

The investigators found five piwi-interacting RNAs, which are small noncoding RNA molecules and three microbial RNAs in saliva that displayed an interaction between developmental status and GI disturbance. Fifty-seven salivary RNAs differed between GI subgroups, with microRNA differences found between food intolerance and reflux groups being the most common.

The analysis identified 12 microRNAs that displayed relationships with GI disturbance, behavior, and GI medication use.
 

First exploration

However, Dr. Beversdorf cautioned about the medication finding. “I can’t speak confidently about what we see there because with each group you get much, much smaller sample sizes with each individual treatment approach.”

The researchers looked at downstream targets of the 12 microRNAs and found involvement with 13 physiologic pathways. These included long-term depression, metabolism, and digestion pathways.

The metabolism and digestion pathways make sense, but it’s unclear why an addiction-related pathway would be involved, said Dr. Beversdorf. However, he noted children with autism do display obsessive features.

Experts don’t know if RNA changes are a cause of, or a response to, GI problems. “It could be the pain of constipation is triggering, say, these addiction pathway changes,” said Dr. Beversdorf.

The study is the “first exploration” into possible specific targets for treating GI disturbances in autism, said Dr. Beversdorf. “We hope these biomarkers will eventually give us an indication of which patients are going to respond to the individual approach to treating their constipation, their diarrhea, or whatever it is.”

The investigators plan to study whether RNA biomarkers determine which patients respond to different treatments targeting constipation, said Dr. Beversdorf.

A study limitation was that GI disturbances were not assessed by physicians. In addition, the term “GI disturbance” groups together loosely related pathology occurring in the GI tract, although there are important physiologic differences between conditions such as constipation and reflux.

The study received funding from the National Institutes of Health.

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

Researchers have identified markers in saliva that are differentially expressed in children with autism spectrum disorder (ASD) who have gastrointestinal (GI) disturbances.

These findings mark the beginning of an understanding of the biological differences separating kids with ASD with and without GI disturbances, study investigator David Q. Beversdorf, MD, professor of radiology, neurology and psychology, department of psychological sciences, University of Missouri, Columbia, told this news organization.

“The hope is this will lead us in future to markers that help guide targeted precision treatments of gastrointestinal disorders” in children with autism, with the ultimate goal of improving their quality of life, said Dr. Beversdorf.

The study was published online Jan. 20 in Frontiers in Psychiatry.
 

Anxiety a key driver?

GI disorders, particularly constipation, are common in children with ASD. Previous research by Dr. Beversdorf and colleagues suggests that anxiety may be driving the relationship between gut disturbances and autism.

Research shows some children with ASD respond well to traditional treatments such as laxatives, while others do not. However, the reasons for this are unclear.

“It would be great to know who those great responders are,” said Dr. Beversdorf. “Subtyping and using biomarkers might be biologically meaningful” because this could identify distinct groups.

The case-control study included 898 children aged 18-73 months recruited from outpatient pediatric clinics affiliated with seven academic medical centers across the United States. The average age of the sample was 44 months and participants were mainly White (76%), non-Hispanic (89%), and male (73%).

The children fell into three neurodevelopmental categories: ASD (n = 503), non-ASD developmental delay (DD, n = 205), and typical development (TD, n = 190).

ASD was diagnosed using standardized assessment tools including the Autism Diagnostic Observation Scale, second edition (ADOS-2). DD participants had delays in gross motor skills, fine motor skills, language, or cognitive development but did not meet criteria for ASD.

Including children with DD could address whether biological markers are specific to autism or to developmental disorders in general, noted Dr. Beversdorf.

TD participants, recruited at the time of their annual well-child visit, did not exhibit developmental delays.
 

Links to GI disturbance, behavior

Researchers subdivided participants into those with GI disturbances (n = 184) and those without these disturbances (n = 714). This was based on medical record review and parental report of disorders such as constipation, reflux, chronic diarrhea or abdominal pain, and food intolerance.

As expected, investigators found more children with ASD reported GI disturbance (22%) than with TD (10%). In children with ASD, rates of constipation (11%) and reflux (6%) were higher than rates among those with TD (3% and 0.5%, respectively).

However, rates of GI disturbances in children with ASD were similar to those with DD.

Investigators used a swab to obtain a saliva sample from participants in a nonfasting state. Saliva is a feasible and often favored source for sampling GI-related biology. Unlike stool microbiome, the saliva microbiome can be repeatedly sampled on demand and has shown resilience to antibiotics.

Researchers examined numerous RNAs, which are “incredibly biologically relevant,” said Dr. Beversdorf.

Investigators compared levels of 1,821 micro-transcriptome features across neurodevelopmental status and the presence or absence of GI disorders.

They also examined micro-transcriptome levels among GI subgroups (constipation, reflux, food intolerance, other GI condition, no GI condition). In addition, they identified RNAs that differed among children taking three common GI medications. These included probiotics, reflux medication, or laxatives.

The investigators found five piwi-interacting RNAs, which are small noncoding RNA molecules and three microbial RNAs in saliva that displayed an interaction between developmental status and GI disturbance. Fifty-seven salivary RNAs differed between GI subgroups, with microRNA differences found between food intolerance and reflux groups being the most common.

The analysis identified 12 microRNAs that displayed relationships with GI disturbance, behavior, and GI medication use.
 

First exploration

However, Dr. Beversdorf cautioned about the medication finding. “I can’t speak confidently about what we see there because with each group you get much, much smaller sample sizes with each individual treatment approach.”

The researchers looked at downstream targets of the 12 microRNAs and found involvement with 13 physiologic pathways. These included long-term depression, metabolism, and digestion pathways.

The metabolism and digestion pathways make sense, but it’s unclear why an addiction-related pathway would be involved, said Dr. Beversdorf. However, he noted children with autism do display obsessive features.

Experts don’t know if RNA changes are a cause of, or a response to, GI problems. “It could be the pain of constipation is triggering, say, these addiction pathway changes,” said Dr. Beversdorf.

The study is the “first exploration” into possible specific targets for treating GI disturbances in autism, said Dr. Beversdorf. “We hope these biomarkers will eventually give us an indication of which patients are going to respond to the individual approach to treating their constipation, their diarrhea, or whatever it is.”

The investigators plan to study whether RNA biomarkers determine which patients respond to different treatments targeting constipation, said Dr. Beversdorf.

A study limitation was that GI disturbances were not assessed by physicians. In addition, the term “GI disturbance” groups together loosely related pathology occurring in the GI tract, although there are important physiologic differences between conditions such as constipation and reflux.

The study received funding from the National Institutes of Health.

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

Atopic dermatitis (AD) is an inflammatory skin disease characterized by skin barrier disruption, skin inflammation, and pruritus.¹ It is a common and often chronic skin condition associated with the development of food allergies, asthma, and allergic rhinitis, known as the atopic march.² Atopic dermatitis is estimated to affect 10% to 25% of children, most with onset before 5 years of age, and up to 7% of adults worldwide.³ Most patients improve with time, but multiple disease trajectories are possible. Several studies have demonstrated that fewer than 4% of children develop the classic atopic march—AD followed by food allergies, asthma, and finally allergic rhinitis—with recent evidence pointing to a more complex heterogeneous progression of disease and allergic comorbidities often occurring together.^4,5 The prevalence of AD has been increasing globally over the last 30 years,⁶ with a marked increase in developed countries.^6,7 It is well accepted that AD is based on an interplay between genetic predisposition and environmental factors,⁸ but many suspect that the rapid rise in prevalence cannot be attributed to genetic factors alone.⁹ The precipitant triggers for AD remain an area of intense investigation, with ongoing debate between the “inside out” and “outside in” hypotheses; these revolve around whether abnormalities in the immune system trigger barrier dysfunction or barrier dysfunction triggers immune programming to atopy.⁸ Ongoing research related to genetic predisposition of AD has identified candidate genes implicated in both impaired skin barrier function and altered immune system pathways, further supporting that both theories may contribute to disease pathogenesis. 

The increasing prevalence of AD, with increasing disease burden within socioeconomically advantaged countries, raises the possibility of early modifiable environmental factors that may contribute to the disease process.¹⁰ Many studies point to the influence of the 21st century lifestyle and Western diet as primary contributing factors.^9,11 However, it is not clear how these factors may influence the development of allergic atopic disease. Several studies have suggested that nonheritable influences in utero can alter fetus immune function and influence the subsequent development of allergic disease.^12,13 Although many studies have examined environmental factors contributing to the development of AD in infancy and childhood, less is understood about the influence of prenatal factors. Currently, in utero exposure to tobacco smoke, phthalates, and maternal distress have been potentially implicated in the development of AD.^14,15 Several studies have examined the role of maternal diet and nutrition on the development of AD in offspring; however, formal recommendations and robust trial data are lacking. In this article, we examine the existing literature surrounding maternal diet on the development of AD in infancy and childhood.

Allergen Avoidance 

Extrapolating from the food allergy literature, it was once suggested that allergen avoidance in early childhood had a protective effect on the subsequent development of allergies; however, more recent research has found that early exposure to common food allergens, such as peanuts or eggs, may actually reduce a child’s risk for developing these allergies later in life.¹⁶ Among infants at high risk for food allergy, sustained consumption of peanut products beginning in the first 11 months of life resulted in an 81% lower rate of peanut allergy at 60 months of age than the rate among children who avoided peanuts.¹⁷ Given the results that antigen avoidance during infancy/childhood does not protect against the development of allergies and may actually be counterproductive, it is not surprising that research studying antigen avoidance during pregnancy on the development of AD also has demonstrated limited efficacy. A systematic review of 5 trials on maternal dietary antigen avoidance (N=952) suggested no protective effects of avoiding antigenic foods during pregnancy on the development of AD in the first 18 months of life.¹⁸ Another meta-analysis evaluating 12 intervention trials looked at the effects of maternal allergenic food avoidance during pregnancy or lactation and found no reduced risk for subsequent development of allergic disease, including AD.¹⁹ The American Academy of Pediatrics 2019 consensus statement does not support maternal dietary restrictions in pregnancy for the prevention of atopic disease and makes note that the data remain limited, which complicates drawing any firm conclusions.²⁰

Probiotic Supplementation 

One of the most investigated dietary supplements for the prevention of atopic disease is probiotics, with possible benefits noted in both the prenatal and postnatal periods. Baquerizo Nole et al²¹ examined several studies looking at the various benefits of probiotics in AD, which included inhibition of the helper T cell (T_H2) response, stimulation of the T_H1 response, upregulation of regulatory T cells, acceleration of skin and mucosal barrier function, increase in intestinal microflora diversity, suppression of toxic fermentation products in the intestinal lumen from increased production of short-chain fatty acids, and inhibition of Staphylococcus aureus attachment on epidermal keratinocytes. It is unclear how this may affect infants prenatally; however, transfer of maternal intestinal microflora during delivery and shortly thereafter has demonstrated that probiotic strains remain detectable in the infant’s stool up to 6 months after delivery, even if the mother has discontinued use.²² A 2008 meta-analysis of 10 double-bind, randomized, controlled trials (N=1880) looking at the use of maternal prenatal and postnatal probiotic supplementation in the prevention of pediatric AD found a relative risk (RR) ratio of 0.69 (95% CI, 0.57-0.83) using a fixed effects model and RR ratio of 0.66 (95% CI, 0.49-0.89) using a random effects model. After exclusion of one study that evaluated the effect of postnatal probiotic supplementation only, the RR ratio decreased to 0.61 for both the fixed effects and random effects models.²³ A systematic review by Panduru et al²⁴ noted similar findings with a subgroup meta-analysis of 11 studies of prenatal supplementation followed by postnatal supplementation of probiotics, which demonstrated a protective effect on the development of AD (odds ratio [OR]=0.61, P<.001). Postnatal supplementation alone (4 studies) did not have the same association (OR=0.95, P<.82).²⁴ A 2012 meta-analysis by Doege et al²⁵ evaluated 7 randomized, double-blinded, placebo-controlled trials that assessed probiotic supplementation during pregnancy (without incorporation of postnatal supplementation) and found a significant risk reduction of 5.7% (P=.022) for AD in children aged 2 to 7 years. Interestingly, this was only significant for Lactobacillus and not for other bacterial strains, even if a mixture of strains included Lactobacillus. However, Panduru et al²⁴ found both maternal Lactobacillus supplementation alone (8 studies) and in combination with Bifidobacterium (9 studies) was protective against AD development in children (OR=0.70, P=.004; OR=0.62, P<.001). A more recent 2015 meta-analysis of 17 studies (N=4755) evaluating the use of maternal probiotic supplementation in pregnancy and/or through the infant’s first 3 months of life found a significantly lower RR (0.78 [95% CI, 0.69-0.89], P=.0003) for the development of AD in infants treated with probiotics and found this risk to be even further decreased when a mixture of probiotics including both Lactobacillus and Bifidobacterium was used (RR=0.54 [95% CI, 0.43-0.68], P<.00001).²⁶

Antioxidants

The Westernization of many developing countries’ diets—diets high in saturated fats, protein, sucrose, salt, and processed foods and low in fresh fruits and green vegetables—has led to a reduced intake of antioxidants and an increase in susceptibility to oxidative damage.^27,28 One hypothesis suggests that a reduction in nutritional antioxidants and subsequent oxidative damage leads to airway inflammation that may contribute to an increased prevalence of asthma.²⁷ In vitro data suggest that antioxidant deficiency may influence the differentiation of helper T cells to a T_H2 phenotype, which can increase susceptibility to the development of asthma and allergies.²⁹ Vitamin E specifically has been shown to inhibit IL-4 gene expression, which drives type 2 immunity and decreases expression of multiple genes that regulate epidermal barrier function, subsequently increasing susceptibility to allergic inflammation and AD.^29,30 Regardless of the proposed mechanisms for antioxidant deficiency increasing susceptibility to allergic disease, studies evaluating the benefits of antioxidant intake during pregnancy in relation to AD have not been promising. Several studies have found no association between prenatal vitamin E intake and the risk for AD development in infants and children.^31,32 Another study found a statistically significant inverse relationship between vitamin E intake in mothers with a history of atopy and the development of AD in their children at 2 years of age but not at 1 year of age (P-trend=.024).³³ It has been suggested that varying vitamin E isoforms may contribute to the discrepant results previously discussed, with the γ-tocopherol isoform (found frequently in Westernized diets)³⁴ as a driver of inflammation in murine models.³⁵ West et al³¹ noted an association between vitamin C intake and development of “any allergic disease”—AD, IgE-mediated food allergy, or asthma—with a crude OR of 0.48 (95% CI, 0.25-0.93). However, the P-trend and adjusted OR were not statistically significant. The investigators found no association between maternal intake of beta-carotene, vitamin E, or zinc, but they did find copper supplementation to be protective on the development of AD at 1 year of age (P-trend=0.03). Interestingly, when the data for total antioxidant intake—vitamin C, vitamin E, zinc, beta-carotene, and copper from both diet and supplementation—were combined and analyzed, no statistically significant associations for any of the antioxidants were found.³¹ Another study of 763 Japanese mother-child pairs found a reduced risk for AD at 16 to 24 months of age with high maternal intake of beta-carotene but found no statistically significant exposure-response associations with other antioxidants, including alpha-carotene, vitamin C, or zinc from dietary intake alone.³² These results were substantiated by 2 meta-analyses evaluating a total of 93 combined intervention trials and cohorts where no association was found between vitamin or mineral intake during pregnancy and/or during infancy and the development of AD.^19,36 

Fatty Acids 

Other dietary changes that are associated with an increased prevalence of atopic diseases in children include excess consumption of omega-6 (n-6) long-chain polyunsaturated fatty acids (LC-PUFA) and insufficient omega-3 (n-3) LC-PUFA consumption.³⁷ Given prior evidence that allergic immune responses in infants may be primed before birth,³⁸ researchers have questioned whether the anti-inflammatory properties of n-3 LC-PUFA when supplemented during pregnancy may have immunomodulatory effects on infants that could alter their predisposition to develop allergic disease, including AD.³⁹ A systematic review and meta-analysis of randomized controlled trials found a statistically significant RR of 0.53 (95% CI, 0.35-0.81; P=.004) for the incidence of AD at 12 months of age with maternal supplementation of n-3 LC-PUFA.⁹ Another trial of 145 pregnant women randomized to supplementation with fish oil vs placebo starting at gestational week 25 and continuing through 3.5 months of breastfeeding found a reduced cumulative incidence of AD in the intervention group compared to controls at 2 years of age, with a statistically significant crude OR of 0.33 (95% CI, 0.11-0.97; P=.04).⁴⁰ However, the adjusted OR was not statistically significant. In addition, they found that mothers and infants with higher proportions of docosahexaenoic acid and eicosapentaenoic acid in plasma phospholipids have been noted to have a lower prevalence of IgE-associated disease in a dose-dependent manner (P<.05 and P<.05, respectively).⁴⁰ In another trial of 98 pregnant women randomized to fish oil supplementation or placebo from 20 weeks’ gestation to delivery found no difference in the frequency of AD but did note that infants in the exposure group had significantly less severe AD compared to controls (OR=0.09 [95% CI, 0.1-0.94]; P=.045).³⁹ A prospective birth cohort study of 2641 children evaluated dietary composition during the last 4 weeks of pregnancy and found that consumption of foods rich in n-6 LC-PUFAs (eg, margarine, vegetable oil) increased the risk for developing AD, while foods rich in n-3 LC-PUFAs (eg, fish) decreased the risk for developing AD in offspring at 2 years of age. All P values for margarine, vegetable oil, and fish were statistically significant on logistic regression at P<.05.⁴¹ A longitudinal analysis of follow-up data from a randomized controlled trial looking at maternal prenatal n-3 LC-PUFA intake and the development of allergic disease (including AD) found no differences in the development of disease at 1-, 3-, or 6-year follow-up.⁴² Despite several studies demonstrating a possible benefit of omega-3 fatty acid intake on the development of AD in offspring, the longitudinal analysis by Best et al⁴² reminds us that long-term follow-up is critical in establishing benefit of any intervention given the heterogeneous and progressive nature of the atopic march and AD. 

Specific Diets 

Several studies have evaluated the role of dietary patterns and their influence on atopic disease. Studies evaluating dietary patterns or supplement intake can be challenging, as data often are derived from questionnaires with bias in response to families with higher socioeconomic status.⁹ Further, analysis of any one food group does not account for the potential interplay between nutrients.⁴³ Studies should focus more on dietary patterns vs individual foods to assess true risk.^43,44 Given these limitations, study results on diet should be carefully scrutinized; however, there are still some positive findings that deserve further investigation. Chatzi et al⁴⁴ followed 460 children for 6.5 years and found a protective effect for the development of atopy in the offspring of women who had high adherence to the Mediterranean diet (OR 0.55 [95% CI, 0.31-0.97]). Another cohort study evaluating the effects of the Mediterranean diet and risk for AD in the first year of life in 2516 mother-child pairs from Spain and Greece found no statistically significant association with consumption of the Mediterranean diet and AD. The investigators also evaluated intake of fruits, nuts, vegetables, meats, processed meats, dairy products, and cereal and found no statistically significant protective benefit.⁴⁵ Another systematic review of more than 90 observational studies identified no significant relationship between prenatal dietary exposures of fruits, vegetables, nuts, fat, fatty acids, eggs, cereal, milk, alcohol, tea, or coffee and risk for allergic disease in offspring, including AD.¹⁹

A Chinese prospective cohort study evaluated the dietary protein patterns of 713 mother-child pairs and the incidence of infant AD at 6 months of age.⁴⁶ Dietary protein patterns were characterized as predominantly poultry, plant based, dairy and eggs, and red meat and fish. The investigators found a statistically significant reduced risk for AD in mothers who consumed plant-based or dairy and eggs protein patterns when compared to a poultry protein pattern with an adjusted OR of 0.572 (95% CI, 0.330-0.992) and 0.478 (95% CI, 0.274-0.837), respectively. This protective effect was not seen with the red meat and fish protein patterns.⁴⁶ Similar results were seen in a 2020 Canadian study that evaluated the effects of a Western (fats, meats, processed foods, and starchy vegetables), balanced (diverse sources of animal proteins [especially fish], fruits, vegetables, nuts, and seeds), or plant-based (dairy, legumes, vegetables, whole grains, and an aversion to meats) diet in more than 2000 mother-infant pairs from 24 to 28 weeks’ gestation to 1 year of age. The investigators found a lower OR of AD in mothers who followed a mostly plant-based diet compared to other dietary patterns (OR 0.65 [95% CI, 0.55-0.76]; P<.001).¹⁰ Another prospective Japanese study looking at healthy (high intake of green and yellow vegetables, seaweed, mushrooms, white vegetables, pulses, potatoes, fish, sea products, fruit, and shellfish, and low intake of confectioneries and soft drinks), Western (high intake of vegetable oil, salt-containing seasonings, beef, pork, processed meat, eggs, chicken, and white vegetables, and low intake of fruit, soft drinks, and confectioneries), or Japanese (high intake of rice, miso soup, sea products, and fish, and low intake of bread, confectioneries, and dairy products) dietary patterns in 763 mother-child pairs found no association between diet during pregnancy and development of AD in offspring at 16 to 24 months.⁴⁷ Unfortunately, a longitudinal data analysis has not been performed for this study.

Final Thoughts

Atopic dermatitis is a complex, progressive, and heterogeneous disease with both genetic and environmental influences. Studying the effects of diet on the development, progression, or severity of disease can be very difficult due to the heterogeneity of study designs, lack of long-term follow-up, and high potential for residual confounding. Studies evaluating dietary patterns or supplement intake can be equally challenging, as data often are derived from questionnaires with bias in response to families with higher socioeconomic status.⁹ Very few studies have looked specifically at maternal dietary composition and the development of AD alone (without inclusion of asthma or food allergy). Ultimately, the inconsistency of the data makes it difficult to draw conclusions and make formal recommendations for this vulnerable population. Additional evidence from well-powered trials with comparable methodology and objective outcome measures will be imperative to make formal recommendations. In addition, longitudinal follow-up will be essential to determine long-term benefit and influence on the atopic march.

Atopic dermatitis (AD) is an inflammatory skin disease characterized by skin barrier disruption, skin inflammation, and pruritus.¹ It is a common and often chronic skin condition associated with the development of food allergies, asthma, and allergic rhinitis, known as the atopic march.² Atopic dermatitis is estimated to affect 10% to 25% of children, most with onset before 5 years of age, and up to 7% of adults worldwide.³ Most patients improve with time, but multiple disease trajectories are possible. Several studies have demonstrated that fewer than 4% of children develop the classic atopic march—AD followed by food allergies, asthma, and finally allergic rhinitis—with recent evidence pointing to a more complex heterogeneous progression of disease and allergic comorbidities often occurring together.^4,5 The prevalence of AD has been increasing globally over the last 30 years,⁶ with a marked increase in developed countries.^6,7 It is well accepted that AD is based on an interplay between genetic predisposition and environmental factors,⁸ but many suspect that the rapid rise in prevalence cannot be attributed to genetic factors alone.⁹ The precipitant triggers for AD remain an area of intense investigation, with ongoing debate between the “inside out” and “outside in” hypotheses; these revolve around whether abnormalities in the immune system trigger barrier dysfunction or barrier dysfunction triggers immune programming to atopy.⁸ Ongoing research related to genetic predisposition of AD has identified candidate genes implicated in both impaired skin barrier function and altered immune system pathways, further supporting that both theories may contribute to disease pathogenesis. 

The increasing prevalence of AD, with increasing disease burden within socioeconomically advantaged countries, raises the possibility of early modifiable environmental factors that may contribute to the disease process.¹⁰ Many studies point to the influence of the 21st century lifestyle and Western diet as primary contributing factors.^9,11 However, it is not clear how these factors may influence the development of allergic atopic disease. Several studies have suggested that nonheritable influences in utero can alter fetus immune function and influence the subsequent development of allergic disease.^12,13 Although many studies have examined environmental factors contributing to the development of AD in infancy and childhood, less is understood about the influence of prenatal factors. Currently, in utero exposure to tobacco smoke, phthalates, and maternal distress have been potentially implicated in the development of AD.^14,15 Several studies have examined the role of maternal diet and nutrition on the development of AD in offspring; however, formal recommendations and robust trial data are lacking. In this article, we examine the existing literature surrounding maternal diet on the development of AD in infancy and childhood.

Allergen Avoidance 

Extrapolating from the food allergy literature, it was once suggested that allergen avoidance in early childhood had a protective effect on the subsequent development of allergies; however, more recent research has found that early exposure to common food allergens, such as peanuts or eggs, may actually reduce a child’s risk for developing these allergies later in life.¹⁶ Among infants at high risk for food allergy, sustained consumption of peanut products beginning in the first 11 months of life resulted in an 81% lower rate of peanut allergy at 60 months of age than the rate among children who avoided peanuts.¹⁷ Given the results that antigen avoidance during infancy/childhood does not protect against the development of allergies and may actually be counterproductive, it is not surprising that research studying antigen avoidance during pregnancy on the development of AD also has demonstrated limited efficacy. A systematic review of 5 trials on maternal dietary antigen avoidance (N=952) suggested no protective effects of avoiding antigenic foods during pregnancy on the development of AD in the first 18 months of life.¹⁸ Another meta-analysis evaluating 12 intervention trials looked at the effects of maternal allergenic food avoidance during pregnancy or lactation and found no reduced risk for subsequent development of allergic disease, including AD.¹⁹ The American Academy of Pediatrics 2019 consensus statement does not support maternal dietary restrictions in pregnancy for the prevention of atopic disease and makes note that the data remain limited, which complicates drawing any firm conclusions.²⁰

Probiotic Supplementation 

One of the most investigated dietary supplements for the prevention of atopic disease is probiotics, with possible benefits noted in both the prenatal and postnatal periods. Baquerizo Nole et al²¹ examined several studies looking at the various benefits of probiotics in AD, which included inhibition of the helper T cell (T_H2) response, stimulation of the T_H1 response, upregulation of regulatory T cells, acceleration of skin and mucosal barrier function, increase in intestinal microflora diversity, suppression of toxic fermentation products in the intestinal lumen from increased production of short-chain fatty acids, and inhibition of Staphylococcus aureus attachment on epidermal keratinocytes. It is unclear how this may affect infants prenatally; however, transfer of maternal intestinal microflora during delivery and shortly thereafter has demonstrated that probiotic strains remain detectable in the infant’s stool up to 6 months after delivery, even if the mother has discontinued use.²² A 2008 meta-analysis of 10 double-bind, randomized, controlled trials (N=1880) looking at the use of maternal prenatal and postnatal probiotic supplementation in the prevention of pediatric AD found a relative risk (RR) ratio of 0.69 (95% CI, 0.57-0.83) using a fixed effects model and RR ratio of 0.66 (95% CI, 0.49-0.89) using a random effects model. After exclusion of one study that evaluated the effect of postnatal probiotic supplementation only, the RR ratio decreased to 0.61 for both the fixed effects and random effects models.²³ A systematic review by Panduru et al²⁴ noted similar findings with a subgroup meta-analysis of 11 studies of prenatal supplementation followed by postnatal supplementation of probiotics, which demonstrated a protective effect on the development of AD (odds ratio [OR]=0.61, P<.001). Postnatal supplementation alone (4 studies) did not have the same association (OR=0.95, P<.82).²⁴ A 2012 meta-analysis by Doege et al²⁵ evaluated 7 randomized, double-blinded, placebo-controlled trials that assessed probiotic supplementation during pregnancy (without incorporation of postnatal supplementation) and found a significant risk reduction of 5.7% (P=.022) for AD in children aged 2 to 7 years. Interestingly, this was only significant for Lactobacillus and not for other bacterial strains, even if a mixture of strains included Lactobacillus. However, Panduru et al²⁴ found both maternal Lactobacillus supplementation alone (8 studies) and in combination with Bifidobacterium (9 studies) was protective against AD development in children (OR=0.70, P=.004; OR=0.62, P<.001). A more recent 2015 meta-analysis of 17 studies (N=4755) evaluating the use of maternal probiotic supplementation in pregnancy and/or through the infant’s first 3 months of life found a significantly lower RR (0.78 [95% CI, 0.69-0.89], P=.0003) for the development of AD in infants treated with probiotics and found this risk to be even further decreased when a mixture of probiotics including both Lactobacillus and Bifidobacterium was used (RR=0.54 [95% CI, 0.43-0.68], P<.00001).²⁶

Antioxidants

The Westernization of many developing countries’ diets—diets high in saturated fats, protein, sucrose, salt, and processed foods and low in fresh fruits and green vegetables—has led to a reduced intake of antioxidants and an increase in susceptibility to oxidative damage.^27,28 One hypothesis suggests that a reduction in nutritional antioxidants and subsequent oxidative damage leads to airway inflammation that may contribute to an increased prevalence of asthma.²⁷ In vitro data suggest that antioxidant deficiency may influence the differentiation of helper T cells to a T_H2 phenotype, which can increase susceptibility to the development of asthma and allergies.²⁹ Vitamin E specifically has been shown to inhibit IL-4 gene expression, which drives type 2 immunity and decreases expression of multiple genes that regulate epidermal barrier function, subsequently increasing susceptibility to allergic inflammation and AD.^29,30 Regardless of the proposed mechanisms for antioxidant deficiency increasing susceptibility to allergic disease, studies evaluating the benefits of antioxidant intake during pregnancy in relation to AD have not been promising. Several studies have found no association between prenatal vitamin E intake and the risk for AD development in infants and children.^31,32 Another study found a statistically significant inverse relationship between vitamin E intake in mothers with a history of atopy and the development of AD in their children at 2 years of age but not at 1 year of age (P-trend=.024).³³ It has been suggested that varying vitamin E isoforms may contribute to the discrepant results previously discussed, with the γ-tocopherol isoform (found frequently in Westernized diets)³⁴ as a driver of inflammation in murine models.³⁵ West et al³¹ noted an association between vitamin C intake and development of “any allergic disease”—AD, IgE-mediated food allergy, or asthma—with a crude OR of 0.48 (95% CI, 0.25-0.93). However, the P-trend and adjusted OR were not statistically significant. The investigators found no association between maternal intake of beta-carotene, vitamin E, or zinc, but they did find copper supplementation to be protective on the development of AD at 1 year of age (P-trend=0.03). Interestingly, when the data for total antioxidant intake—vitamin C, vitamin E, zinc, beta-carotene, and copper from both diet and supplementation—were combined and analyzed, no statistically significant associations for any of the antioxidants were found.³¹ Another study of 763 Japanese mother-child pairs found a reduced risk for AD at 16 to 24 months of age with high maternal intake of beta-carotene but found no statistically significant exposure-response associations with other antioxidants, including alpha-carotene, vitamin C, or zinc from dietary intake alone.³² These results were substantiated by 2 meta-analyses evaluating a total of 93 combined intervention trials and cohorts where no association was found between vitamin or mineral intake during pregnancy and/or during infancy and the development of AD.^19,36 

Fatty Acids 

Other dietary changes that are associated with an increased prevalence of atopic diseases in children include excess consumption of omega-6 (n-6) long-chain polyunsaturated fatty acids (LC-PUFA) and insufficient omega-3 (n-3) LC-PUFA consumption.³⁷ Given prior evidence that allergic immune responses in infants may be primed before birth,³⁸ researchers have questioned whether the anti-inflammatory properties of n-3 LC-PUFA when supplemented during pregnancy may have immunomodulatory effects on infants that could alter their predisposition to develop allergic disease, including AD.³⁹ A systematic review and meta-analysis of randomized controlled trials found a statistically significant RR of 0.53 (95% CI, 0.35-0.81; P=.004) for the incidence of AD at 12 months of age with maternal supplementation of n-3 LC-PUFA.⁹ Another trial of 145 pregnant women randomized to supplementation with fish oil vs placebo starting at gestational week 25 and continuing through 3.5 months of breastfeeding found a reduced cumulative incidence of AD in the intervention group compared to controls at 2 years of age, with a statistically significant crude OR of 0.33 (95% CI, 0.11-0.97; P=.04).⁴⁰ However, the adjusted OR was not statistically significant. In addition, they found that mothers and infants with higher proportions of docosahexaenoic acid and eicosapentaenoic acid in plasma phospholipids have been noted to have a lower prevalence of IgE-associated disease in a dose-dependent manner (P<.05 and P<.05, respectively).⁴⁰ In another trial of 98 pregnant women randomized to fish oil supplementation or placebo from 20 weeks’ gestation to delivery found no difference in the frequency of AD but did note that infants in the exposure group had significantly less severe AD compared to controls (OR=0.09 [95% CI, 0.1-0.94]; P=.045).³⁹ A prospective birth cohort study of 2641 children evaluated dietary composition during the last 4 weeks of pregnancy and found that consumption of foods rich in n-6 LC-PUFAs (eg, margarine, vegetable oil) increased the risk for developing AD, while foods rich in n-3 LC-PUFAs (eg, fish) decreased the risk for developing AD in offspring at 2 years of age. All P values for margarine, vegetable oil, and fish were statistically significant on logistic regression at P<.05.⁴¹ A longitudinal analysis of follow-up data from a randomized controlled trial looking at maternal prenatal n-3 LC-PUFA intake and the development of allergic disease (including AD) found no differences in the development of disease at 1-, 3-, or 6-year follow-up.⁴² Despite several studies demonstrating a possible benefit of omega-3 fatty acid intake on the development of AD in offspring, the longitudinal analysis by Best et al⁴² reminds us that long-term follow-up is critical in establishing benefit of any intervention given the heterogeneous and progressive nature of the atopic march and AD. 

Specific Diets 

Several studies have evaluated the role of dietary patterns and their influence on atopic disease. Studies evaluating dietary patterns or supplement intake can be challenging, as data often are derived from questionnaires with bias in response to families with higher socioeconomic status.⁹ Further, analysis of any one food group does not account for the potential interplay between nutrients.⁴³ Studies should focus more on dietary patterns vs individual foods to assess true risk.^43,44 Given these limitations, study results on diet should be carefully scrutinized; however, there are still some positive findings that deserve further investigation. Chatzi et al⁴⁴ followed 460 children for 6.5 years and found a protective effect for the development of atopy in the offspring of women who had high adherence to the Mediterranean diet (OR 0.55 [95% CI, 0.31-0.97]). Another cohort study evaluating the effects of the Mediterranean diet and risk for AD in the first year of life in 2516 mother-child pairs from Spain and Greece found no statistically significant association with consumption of the Mediterranean diet and AD. The investigators also evaluated intake of fruits, nuts, vegetables, meats, processed meats, dairy products, and cereal and found no statistically significant protective benefit.⁴⁵ Another systematic review of more than 90 observational studies identified no significant relationship between prenatal dietary exposures of fruits, vegetables, nuts, fat, fatty acids, eggs, cereal, milk, alcohol, tea, or coffee and risk for allergic disease in offspring, including AD.¹⁹

A Chinese prospective cohort study evaluated the dietary protein patterns of 713 mother-child pairs and the incidence of infant AD at 6 months of age.⁴⁶ Dietary protein patterns were characterized as predominantly poultry, plant based, dairy and eggs, and red meat and fish. The investigators found a statistically significant reduced risk for AD in mothers who consumed plant-based or dairy and eggs protein patterns when compared to a poultry protein pattern with an adjusted OR of 0.572 (95% CI, 0.330-0.992) and 0.478 (95% CI, 0.274-0.837), respectively. This protective effect was not seen with the red meat and fish protein patterns.⁴⁶ Similar results were seen in a 2020 Canadian study that evaluated the effects of a Western (fats, meats, processed foods, and starchy vegetables), balanced (diverse sources of animal proteins [especially fish], fruits, vegetables, nuts, and seeds), or plant-based (dairy, legumes, vegetables, whole grains, and an aversion to meats) diet in more than 2000 mother-infant pairs from 24 to 28 weeks’ gestation to 1 year of age. The investigators found a lower OR of AD in mothers who followed a mostly plant-based diet compared to other dietary patterns (OR 0.65 [95% CI, 0.55-0.76]; P<.001).¹⁰ Another prospective Japanese study looking at healthy (high intake of green and yellow vegetables, seaweed, mushrooms, white vegetables, pulses, potatoes, fish, sea products, fruit, and shellfish, and low intake of confectioneries and soft drinks), Western (high intake of vegetable oil, salt-containing seasonings, beef, pork, processed meat, eggs, chicken, and white vegetables, and low intake of fruit, soft drinks, and confectioneries), or Japanese (high intake of rice, miso soup, sea products, and fish, and low intake of bread, confectioneries, and dairy products) dietary patterns in 763 mother-child pairs found no association between diet during pregnancy and development of AD in offspring at 16 to 24 months.⁴⁷ Unfortunately, a longitudinal data analysis has not been performed for this study.

Final Thoughts

Atopic dermatitis is a complex, progressive, and heterogeneous disease with both genetic and environmental influences. Studying the effects of diet on the development, progression, or severity of disease can be very difficult due to the heterogeneity of study designs, lack of long-term follow-up, and high potential for residual confounding. Studies evaluating dietary patterns or supplement intake can be equally challenging, as data often are derived from questionnaires with bias in response to families with higher socioeconomic status.⁹ Very few studies have looked specifically at maternal dietary composition and the development of AD alone (without inclusion of asthma or food allergy). Ultimately, the inconsistency of the data makes it difficult to draw conclusions and make formal recommendations for this vulnerable population. Additional evidence from well-powered trials with comparable methodology and objective outcome measures will be imperative to make formal recommendations. In addition, longitudinal follow-up will be essential to determine long-term benefit and influence on the atopic march.

Atopic dermatitis (AD) is an inflammatory skin disease characterized by skin barrier disruption, skin inflammation, and pruritus.¹ It is a common and often chronic skin condition associated with the development of food allergies, asthma, and allergic rhinitis, known as the atopic march.² Atopic dermatitis is estimated to affect 10% to 25% of children, most with onset before 5 years of age, and up to 7% of adults worldwide.³ Most patients improve with time, but multiple disease trajectories are possible. Several studies have demonstrated that fewer than 4% of children develop the classic atopic march—AD followed by food allergies, asthma, and finally allergic rhinitis—with recent evidence pointing to a more complex heterogeneous progression of disease and allergic comorbidities often occurring together.^4,5 The prevalence of AD has been increasing globally over the last 30 years,⁶ with a marked increase in developed countries.^6,7 It is well accepted that AD is based on an interplay between genetic predisposition and environmental factors,⁸ but many suspect that the rapid rise in prevalence cannot be attributed to genetic factors alone.⁹ The precipitant triggers for AD remain an area of intense investigation, with ongoing debate between the “inside out” and “outside in” hypotheses; these revolve around whether abnormalities in the immune system trigger barrier dysfunction or barrier dysfunction triggers immune programming to atopy.⁸ Ongoing research related to genetic predisposition of AD has identified candidate genes implicated in both impaired skin barrier function and altered immune system pathways, further supporting that both theories may contribute to disease pathogenesis. 

The increasing prevalence of AD, with increasing disease burden within socioeconomically advantaged countries, raises the possibility of early modifiable environmental factors that may contribute to the disease process.¹⁰ Many studies point to the influence of the 21st century lifestyle and Western diet as primary contributing factors.^9,11 However, it is not clear how these factors may influence the development of allergic atopic disease. Several studies have suggested that nonheritable influences in utero can alter fetus immune function and influence the subsequent development of allergic disease.^12,13 Although many studies have examined environmental factors contributing to the development of AD in infancy and childhood, less is understood about the influence of prenatal factors. Currently, in utero exposure to tobacco smoke, phthalates, and maternal distress have been potentially implicated in the development of AD.^14,15 Several studies have examined the role of maternal diet and nutrition on the development of AD in offspring; however, formal recommendations and robust trial data are lacking. In this article, we examine the existing literature surrounding maternal diet on the development of AD in infancy and childhood.

Allergen Avoidance 

Extrapolating from the food allergy literature, it was once suggested that allergen avoidance in early childhood had a protective effect on the subsequent development of allergies; however, more recent research has found that early exposure to common food allergens, such as peanuts or eggs, may actually reduce a child’s risk for developing these allergies later in life.¹⁶ Among infants at high risk for food allergy, sustained consumption of peanut products beginning in the first 11 months of life resulted in an 81% lower rate of peanut allergy at 60 months of age than the rate among children who avoided peanuts.¹⁷ Given the results that antigen avoidance during infancy/childhood does not protect against the development of allergies and may actually be counterproductive, it is not surprising that research studying antigen avoidance during pregnancy on the development of AD also has demonstrated limited efficacy. A systematic review of 5 trials on maternal dietary antigen avoidance (N=952) suggested no protective effects of avoiding antigenic foods during pregnancy on the development of AD in the first 18 months of life.¹⁸ Another meta-analysis evaluating 12 intervention trials looked at the effects of maternal allergenic food avoidance during pregnancy or lactation and found no reduced risk for subsequent development of allergic disease, including AD.¹⁹ The American Academy of Pediatrics 2019 consensus statement does not support maternal dietary restrictions in pregnancy for the prevention of atopic disease and makes note that the data remain limited, which complicates drawing any firm conclusions.²⁰

Probiotic Supplementation 

One of the most investigated dietary supplements for the prevention of atopic disease is probiotics, with possible benefits noted in both the prenatal and postnatal periods. Baquerizo Nole et al²¹ examined several studies looking at the various benefits of probiotics in AD, which included inhibition of the helper T cell (T_H2) response, stimulation of the T_H1 response, upregulation of regulatory T cells, acceleration of skin and mucosal barrier function, increase in intestinal microflora diversity, suppression of toxic fermentation products in the intestinal lumen from increased production of short-chain fatty acids, and inhibition of Staphylococcus aureus attachment on epidermal keratinocytes. It is unclear how this may affect infants prenatally; however, transfer of maternal intestinal microflora during delivery and shortly thereafter has demonstrated that probiotic strains remain detectable in the infant’s stool up to 6 months after delivery, even if the mother has discontinued use.²² A 2008 meta-analysis of 10 double-bind, randomized, controlled trials (N=1880) looking at the use of maternal prenatal and postnatal probiotic supplementation in the prevention of pediatric AD found a relative risk (RR) ratio of 0.69 (95% CI, 0.57-0.83) using a fixed effects model and RR ratio of 0.66 (95% CI, 0.49-0.89) using a random effects model. After exclusion of one study that evaluated the effect of postnatal probiotic supplementation only, the RR ratio decreased to 0.61 for both the fixed effects and random effects models.²³ A systematic review by Panduru et al²⁴ noted similar findings with a subgroup meta-analysis of 11 studies of prenatal supplementation followed by postnatal supplementation of probiotics, which demonstrated a protective effect on the development of AD (odds ratio [OR]=0.61, P<.001). Postnatal supplementation alone (4 studies) did not have the same association (OR=0.95, P<.82).²⁴ A 2012 meta-analysis by Doege et al²⁵ evaluated 7 randomized, double-blinded, placebo-controlled trials that assessed probiotic supplementation during pregnancy (without incorporation of postnatal supplementation) and found a significant risk reduction of 5.7% (P=.022) for AD in children aged 2 to 7 years. Interestingly, this was only significant for Lactobacillus and not for other bacterial strains, even if a mixture of strains included Lactobacillus. However, Panduru et al²⁴ found both maternal Lactobacillus supplementation alone (8 studies) and in combination with Bifidobacterium (9 studies) was protective against AD development in children (OR=0.70, P=.004; OR=0.62, P<.001). A more recent 2015 meta-analysis of 17 studies (N=4755) evaluating the use of maternal probiotic supplementation in pregnancy and/or through the infant’s first 3 months of life found a significantly lower RR (0.78 [95% CI, 0.69-0.89], P=.0003) for the development of AD in infants treated with probiotics and found this risk to be even further decreased when a mixture of probiotics including both Lactobacillus and Bifidobacterium was used (RR=0.54 [95% CI, 0.43-0.68], P<.00001).²⁶

Antioxidants

The Westernization of many developing countries’ diets—diets high in saturated fats, protein, sucrose, salt, and processed foods and low in fresh fruits and green vegetables—has led to a reduced intake of antioxidants and an increase in susceptibility to oxidative damage.^27,28 One hypothesis suggests that a reduction in nutritional antioxidants and subsequent oxidative damage leads to airway inflammation that may contribute to an increased prevalence of asthma.²⁷ In vitro data suggest that antioxidant deficiency may influence the differentiation of helper T cells to a T_H2 phenotype, which can increase susceptibility to the development of asthma and allergies.²⁹ Vitamin E specifically has been shown to inhibit IL-4 gene expression, which drives type 2 immunity and decreases expression of multiple genes that regulate epidermal barrier function, subsequently increasing susceptibility to allergic inflammation and AD.^29,30 Regardless of the proposed mechanisms for antioxidant deficiency increasing susceptibility to allergic disease, studies evaluating the benefits of antioxidant intake during pregnancy in relation to AD have not been promising. Several studies have found no association between prenatal vitamin E intake and the risk for AD development in infants and children.^31,32 Another study found a statistically significant inverse relationship between vitamin E intake in mothers with a history of atopy and the development of AD in their children at 2 years of age but not at 1 year of age (P-trend=.024).³³ It has been suggested that varying vitamin E isoforms may contribute to the discrepant results previously discussed, with the γ-tocopherol isoform (found frequently in Westernized diets)³⁴ as a driver of inflammation in murine models.³⁵ West et al³¹ noted an association between vitamin C intake and development of “any allergic disease”—AD, IgE-mediated food allergy, or asthma—with a crude OR of 0.48 (95% CI, 0.25-0.93). However, the P-trend and adjusted OR were not statistically significant. The investigators found no association between maternal intake of beta-carotene, vitamin E, or zinc, but they did find copper supplementation to be protective on the development of AD at 1 year of age (P-trend=0.03). Interestingly, when the data for total antioxidant intake—vitamin C, vitamin E, zinc, beta-carotene, and copper from both diet and supplementation—were combined and analyzed, no statistically significant associations for any of the antioxidants were found.³¹ Another study of 763 Japanese mother-child pairs found a reduced risk for AD at 16 to 24 months of age with high maternal intake of beta-carotene but found no statistically significant exposure-response associations with other antioxidants, including alpha-carotene, vitamin C, or zinc from dietary intake alone.³² These results were substantiated by 2 meta-analyses evaluating a total of 93 combined intervention trials and cohorts where no association was found between vitamin or mineral intake during pregnancy and/or during infancy and the development of AD.^19,36 

Fatty Acids 

Other dietary changes that are associated with an increased prevalence of atopic diseases in children include excess consumption of omega-6 (n-6) long-chain polyunsaturated fatty acids (LC-PUFA) and insufficient omega-3 (n-3) LC-PUFA consumption.³⁷ Given prior evidence that allergic immune responses in infants may be primed before birth,³⁸ researchers have questioned whether the anti-inflammatory properties of n-3 LC-PUFA when supplemented during pregnancy may have immunomodulatory effects on infants that could alter their predisposition to develop allergic disease, including AD.³⁹ A systematic review and meta-analysis of randomized controlled trials found a statistically significant RR of 0.53 (95% CI, 0.35-0.81; P=.004) for the incidence of AD at 12 months of age with maternal supplementation of n-3 LC-PUFA.⁹ Another trial of 145 pregnant women randomized to supplementation with fish oil vs placebo starting at gestational week 25 and continuing through 3.5 months of breastfeeding found a reduced cumulative incidence of AD in the intervention group compared to controls at 2 years of age, with a statistically significant crude OR of 0.33 (95% CI, 0.11-0.97; P=.04).⁴⁰ However, the adjusted OR was not statistically significant. In addition, they found that mothers and infants with higher proportions of docosahexaenoic acid and eicosapentaenoic acid in plasma phospholipids have been noted to have a lower prevalence of IgE-associated disease in a dose-dependent manner (P<.05 and P<.05, respectively).⁴⁰ In another trial of 98 pregnant women randomized to fish oil supplementation or placebo from 20 weeks’ gestation to delivery found no difference in the frequency of AD but did note that infants in the exposure group had significantly less severe AD compared to controls (OR=0.09 [95% CI, 0.1-0.94]; P=.045).³⁹ A prospective birth cohort study of 2641 children evaluated dietary composition during the last 4 weeks of pregnancy and found that consumption of foods rich in n-6 LC-PUFAs (eg, margarine, vegetable oil) increased the risk for developing AD, while foods rich in n-3 LC-PUFAs (eg, fish) decreased the risk for developing AD in offspring at 2 years of age. All P values for margarine, vegetable oil, and fish were statistically significant on logistic regression at P<.05.⁴¹ A longitudinal analysis of follow-up data from a randomized controlled trial looking at maternal prenatal n-3 LC-PUFA intake and the development of allergic disease (including AD) found no differences in the development of disease at 1-, 3-, or 6-year follow-up.⁴² Despite several studies demonstrating a possible benefit of omega-3 fatty acid intake on the development of AD in offspring, the longitudinal analysis by Best et al⁴² reminds us that long-term follow-up is critical in establishing benefit of any intervention given the heterogeneous and progressive nature of the atopic march and AD. 

Specific Diets 

Several studies have evaluated the role of dietary patterns and their influence on atopic disease. Studies evaluating dietary patterns or supplement intake can be challenging, as data often are derived from questionnaires with bias in response to families with higher socioeconomic status.⁹ Further, analysis of any one food group does not account for the potential interplay between nutrients.⁴³ Studies should focus more on dietary patterns vs individual foods to assess true risk.^43,44 Given these limitations, study results on diet should be carefully scrutinized; however, there are still some positive findings that deserve further investigation. Chatzi et al⁴⁴ followed 460 children for 6.5 years and found a protective effect for the development of atopy in the offspring of women who had high adherence to the Mediterranean diet (OR 0.55 [95% CI, 0.31-0.97]). Another cohort study evaluating the effects of the Mediterranean diet and risk for AD in the first year of life in 2516 mother-child pairs from Spain and Greece found no statistically significant association with consumption of the Mediterranean diet and AD. The investigators also evaluated intake of fruits, nuts, vegetables, meats, processed meats, dairy products, and cereal and found no statistically significant protective benefit.⁴⁵ Another systematic review of more than 90 observational studies identified no significant relationship between prenatal dietary exposures of fruits, vegetables, nuts, fat, fatty acids, eggs, cereal, milk, alcohol, tea, or coffee and risk for allergic disease in offspring, including AD.¹⁹

A Chinese prospective cohort study evaluated the dietary protein patterns of 713 mother-child pairs and the incidence of infant AD at 6 months of age.⁴⁶ Dietary protein patterns were characterized as predominantly poultry, plant based, dairy and eggs, and red meat and fish. The investigators found a statistically significant reduced risk for AD in mothers who consumed plant-based or dairy and eggs protein patterns when compared to a poultry protein pattern with an adjusted OR of 0.572 (95% CI, 0.330-0.992) and 0.478 (95% CI, 0.274-0.837), respectively. This protective effect was not seen with the red meat and fish protein patterns.⁴⁶ Similar results were seen in a 2020 Canadian study that evaluated the effects of a Western (fats, meats, processed foods, and starchy vegetables), balanced (diverse sources of animal proteins [especially fish], fruits, vegetables, nuts, and seeds), or plant-based (dairy, legumes, vegetables, whole grains, and an aversion to meats) diet in more than 2000 mother-infant pairs from 24 to 28 weeks’ gestation to 1 year of age. The investigators found a lower OR of AD in mothers who followed a mostly plant-based diet compared to other dietary patterns (OR 0.65 [95% CI, 0.55-0.76]; P<.001).¹⁰ Another prospective Japanese study looking at healthy (high intake of green and yellow vegetables, seaweed, mushrooms, white vegetables, pulses, potatoes, fish, sea products, fruit, and shellfish, and low intake of confectioneries and soft drinks), Western (high intake of vegetable oil, salt-containing seasonings, beef, pork, processed meat, eggs, chicken, and white vegetables, and low intake of fruit, soft drinks, and confectioneries), or Japanese (high intake of rice, miso soup, sea products, and fish, and low intake of bread, confectioneries, and dairy products) dietary patterns in 763 mother-child pairs found no association between diet during pregnancy and development of AD in offspring at 16 to 24 months.⁴⁷ Unfortunately, a longitudinal data analysis has not been performed for this study.

Final Thoughts

Atopic dermatitis is a complex, progressive, and heterogeneous disease with both genetic and environmental influences. Studying the effects of diet on the development, progression, or severity of disease can be very difficult due to the heterogeneity of study designs, lack of long-term follow-up, and high potential for residual confounding. Studies evaluating dietary patterns or supplement intake can be equally challenging, as data often are derived from questionnaires with bias in response to families with higher socioeconomic status.⁹ Very few studies have looked specifically at maternal dietary composition and the development of AD alone (without inclusion of asthma or food allergy). Ultimately, the inconsistency of the data makes it difficult to draw conclusions and make formal recommendations for this vulnerable population. Additional evidence from well-powered trials with comparable methodology and objective outcome measures will be imperative to make formal recommendations. In addition, longitudinal follow-up will be essential to determine long-term benefit and influence on the atopic march.

A prescription, digital therapeutic shows measurable brain changes that correlate with improved attention control in children with attention-deficit/hyperactivity disorder (ADHD).

Investigators found children who used the video game-based therapy (EndeavorRx) experienced increased brain activity related to attention function, as measured by EEG, which correlated with improvements in objective behavioral measures of attention.

Courtesy University of California, San Francisco

“While the previous multicenter trials show attention improvement for children using EndeavorRx, this is the first study to look at the brain activity in children with a primary concern of ADHD,” principal investigator Elysa Marco, MD, clinical executive for neurodevelopmental medicine at Cortica Healthcare, San Rafael, Calif., said in news release.

“It is exciting to see measurable improvement on the EEGs that correlates with the behavioral benefits,” said Dr. Marco.

The study was recently published online in PLOS ONE. 
 

Measurable changes

As previously reported by this news organization, the Food and Drug Administration approved EndeavorRx in June 2020 as a prescription video game–based therapeutic device for children aged 8-12 years with primarily inattentive or combined-type ADHD, who have a demonstrated attention issue.

“The device is intended for use as part of a therapeutic program that may include clinician-directed therapy, medication, and/or educational programs, which further address symptoms of the disorder,” the FDA said upon approval.

In the current unblinded, single-arm study, the researchers assessed 25 children (aged 8-12 years) with a confirmed diagnosis of ADHD on neural, behavioral, and clinical metrics of attention before and after a 4-week at-home intervention.

Participants were instructed to use EndeavorRx for about 25 minutes a day at least 5 days a week for 4 weeks, as recommended by the FDA.

“EndeavorRx enhanced midline frontal theta (MFT) activity, suggesting that patients who used EndeavorRx for 4 weeks showed changes in measurable brain function,” Anil S. Jina, MD, chief medical officer of Akili Interactive, told this news organization. Dr. Jina was not involved with the study.

There was also a correlation between MFT activity and attention functioning, “suggesting that children who experienced the largest gains in MFT activity as measured by EEG also showed the greatest improvements in computerized performance tests designed to measure attention,” Dr. Jina said.

In addition, parents reported significantly fewer inattention symptoms in children after EndeavorRx treatment, as measured by the Vanderbilt ADHD Diagnostic Rating Scale.
 

‘Not just another video game’

EndeavorRx has been evaluated in five clinical studies involving more than 600 children with ADHD, including the STARS-ADHD trial, a prospective, randomized, controlled study published in The Lancet Digital Health.

The STARS-ADHD trial randomly allocated 348 children to either EndeavorRx treatment or a controlled intervention, which was a word game.

The researchers reported statistically significant improvements in attentional functioning in the EndeavorRx group as rated by test of variables of attention.

“This is not just another video game,” STARS-ADHD trialist Scott H. Kollins, PhD, MS, a clinical psychologist at Duke Health’s ADHD Clinic in Durham, N.C., who helped developed it, previously told this news organization.   

The tool’s adaptive algorithms adjust and monitor task difficulty based on performance, using a video game format and rewards to engage users, he explained. EndeavorRx is a challenge to play by design.

“The treatment was programmed into the gameplay experience and designed to challenge a child’s attentional control during gameplay, requiring focus and flexibility to manage tasks at the same time,” Dr. Jina said in an interview.

“Unlike a video game that is designed only for entertainment purposes, to drive efficacy, EndeavorRx is designed to be challenging and can therefore sometimes feel repetitive, and frustrating to some children,” Dr. Jina said.

Commenting on the study, Stephen Faraone, PhD, distinguished professor of psychiatry and vice chair of research, department of psychiatry, State University of New York, Syracuse, said this study “supports the idea that EndeavorRx improves a neural measure of attention.

“The limitation is that we don’t know if this translates into clinically relevant outcomes,” cautioned Dr. Faraone, who was not associated with the current study.

“The main caveat about EndeavorRx is that it was cleared by the FDA for improving a computer-based measure of inattention, not inattentive symptoms as reported by the parents of children with ADHD,” he noted.

Several authors have disclosed financial relationships with Akili Interactive Labs, which funded the study. Dr. Faraone was an investigator on the STARS-ADHD trial.

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

A prescription, digital therapeutic shows measurable brain changes that correlate with improved attention control in children with attention-deficit/hyperactivity disorder (ADHD).

Investigators found children who used the video game-based therapy (EndeavorRx) experienced increased brain activity related to attention function, as measured by EEG, which correlated with improvements in objective behavioral measures of attention.

Courtesy University of California, San Francisco

“While the previous multicenter trials show attention improvement for children using EndeavorRx, this is the first study to look at the brain activity in children with a primary concern of ADHD,” principal investigator Elysa Marco, MD, clinical executive for neurodevelopmental medicine at Cortica Healthcare, San Rafael, Calif., said in news release.

“It is exciting to see measurable improvement on the EEGs that correlates with the behavioral benefits,” said Dr. Marco.

The study was recently published online in PLOS ONE. 
 

Measurable changes

As previously reported by this news organization, the Food and Drug Administration approved EndeavorRx in June 2020 as a prescription video game–based therapeutic device for children aged 8-12 years with primarily inattentive or combined-type ADHD, who have a demonstrated attention issue.

“The device is intended for use as part of a therapeutic program that may include clinician-directed therapy, medication, and/or educational programs, which further address symptoms of the disorder,” the FDA said upon approval.

In the current unblinded, single-arm study, the researchers assessed 25 children (aged 8-12 years) with a confirmed diagnosis of ADHD on neural, behavioral, and clinical metrics of attention before and after a 4-week at-home intervention.

Participants were instructed to use EndeavorRx for about 25 minutes a day at least 5 days a week for 4 weeks, as recommended by the FDA.

“EndeavorRx enhanced midline frontal theta (MFT) activity, suggesting that patients who used EndeavorRx for 4 weeks showed changes in measurable brain function,” Anil S. Jina, MD, chief medical officer of Akili Interactive, told this news organization. Dr. Jina was not involved with the study.

There was also a correlation between MFT activity and attention functioning, “suggesting that children who experienced the largest gains in MFT activity as measured by EEG also showed the greatest improvements in computerized performance tests designed to measure attention,” Dr. Jina said.

In addition, parents reported significantly fewer inattention symptoms in children after EndeavorRx treatment, as measured by the Vanderbilt ADHD Diagnostic Rating Scale.
 

‘Not just another video game’

EndeavorRx has been evaluated in five clinical studies involving more than 600 children with ADHD, including the STARS-ADHD trial, a prospective, randomized, controlled study published in The Lancet Digital Health.

The STARS-ADHD trial randomly allocated 348 children to either EndeavorRx treatment or a controlled intervention, which was a word game.

The researchers reported statistically significant improvements in attentional functioning in the EndeavorRx group as rated by test of variables of attention.

“This is not just another video game,” STARS-ADHD trialist Scott H. Kollins, PhD, MS, a clinical psychologist at Duke Health’s ADHD Clinic in Durham, N.C., who helped developed it, previously told this news organization.   

The tool’s adaptive algorithms adjust and monitor task difficulty based on performance, using a video game format and rewards to engage users, he explained. EndeavorRx is a challenge to play by design.

“The treatment was programmed into the gameplay experience and designed to challenge a child’s attentional control during gameplay, requiring focus and flexibility to manage tasks at the same time,” Dr. Jina said in an interview.

“Unlike a video game that is designed only for entertainment purposes, to drive efficacy, EndeavorRx is designed to be challenging and can therefore sometimes feel repetitive, and frustrating to some children,” Dr. Jina said.

Commenting on the study, Stephen Faraone, PhD, distinguished professor of psychiatry and vice chair of research, department of psychiatry, State University of New York, Syracuse, said this study “supports the idea that EndeavorRx improves a neural measure of attention.

“The limitation is that we don’t know if this translates into clinically relevant outcomes,” cautioned Dr. Faraone, who was not associated with the current study.

“The main caveat about EndeavorRx is that it was cleared by the FDA for improving a computer-based measure of inattention, not inattentive symptoms as reported by the parents of children with ADHD,” he noted.

Several authors have disclosed financial relationships with Akili Interactive Labs, which funded the study. Dr. Faraone was an investigator on the STARS-ADHD trial.

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

A prescription, digital therapeutic shows measurable brain changes that correlate with improved attention control in children with attention-deficit/hyperactivity disorder (ADHD).

Investigators found children who used the video game-based therapy (EndeavorRx) experienced increased brain activity related to attention function, as measured by EEG, which correlated with improvements in objective behavioral measures of attention.

Courtesy University of California, San Francisco

“While the previous multicenter trials show attention improvement for children using EndeavorRx, this is the first study to look at the brain activity in children with a primary concern of ADHD,” principal investigator Elysa Marco, MD, clinical executive for neurodevelopmental medicine at Cortica Healthcare, San Rafael, Calif., said in news release.

“It is exciting to see measurable improvement on the EEGs that correlates with the behavioral benefits,” said Dr. Marco.

The study was recently published online in PLOS ONE. 
 

Measurable changes

As previously reported by this news organization, the Food and Drug Administration approved EndeavorRx in June 2020 as a prescription video game–based therapeutic device for children aged 8-12 years with primarily inattentive or combined-type ADHD, who have a demonstrated attention issue.

“The device is intended for use as part of a therapeutic program that may include clinician-directed therapy, medication, and/or educational programs, which further address symptoms of the disorder,” the FDA said upon approval.

In the current unblinded, single-arm study, the researchers assessed 25 children (aged 8-12 years) with a confirmed diagnosis of ADHD on neural, behavioral, and clinical metrics of attention before and after a 4-week at-home intervention.

Participants were instructed to use EndeavorRx for about 25 minutes a day at least 5 days a week for 4 weeks, as recommended by the FDA.

“EndeavorRx enhanced midline frontal theta (MFT) activity, suggesting that patients who used EndeavorRx for 4 weeks showed changes in measurable brain function,” Anil S. Jina, MD, chief medical officer of Akili Interactive, told this news organization. Dr. Jina was not involved with the study.

There was also a correlation between MFT activity and attention functioning, “suggesting that children who experienced the largest gains in MFT activity as measured by EEG also showed the greatest improvements in computerized performance tests designed to measure attention,” Dr. Jina said.

In addition, parents reported significantly fewer inattention symptoms in children after EndeavorRx treatment, as measured by the Vanderbilt ADHD Diagnostic Rating Scale.
 

‘Not just another video game’

EndeavorRx has been evaluated in five clinical studies involving more than 600 children with ADHD, including the STARS-ADHD trial, a prospective, randomized, controlled study published in The Lancet Digital Health.

The STARS-ADHD trial randomly allocated 348 children to either EndeavorRx treatment or a controlled intervention, which was a word game.

The researchers reported statistically significant improvements in attentional functioning in the EndeavorRx group as rated by test of variables of attention.

“This is not just another video game,” STARS-ADHD trialist Scott H. Kollins, PhD, MS, a clinical psychologist at Duke Health’s ADHD Clinic in Durham, N.C., who helped developed it, previously told this news organization.   

The tool’s adaptive algorithms adjust and monitor task difficulty based on performance, using a video game format and rewards to engage users, he explained. EndeavorRx is a challenge to play by design.

“The treatment was programmed into the gameplay experience and designed to challenge a child’s attentional control during gameplay, requiring focus and flexibility to manage tasks at the same time,” Dr. Jina said in an interview.

“Unlike a video game that is designed only for entertainment purposes, to drive efficacy, EndeavorRx is designed to be challenging and can therefore sometimes feel repetitive, and frustrating to some children,” Dr. Jina said.

Commenting on the study, Stephen Faraone, PhD, distinguished professor of psychiatry and vice chair of research, department of psychiatry, State University of New York, Syracuse, said this study “supports the idea that EndeavorRx improves a neural measure of attention.

“The limitation is that we don’t know if this translates into clinically relevant outcomes,” cautioned Dr. Faraone, who was not associated with the current study.

“The main caveat about EndeavorRx is that it was cleared by the FDA for improving a computer-based measure of inattention, not inattentive symptoms as reported by the parents of children with ADHD,” he noted.

Several authors have disclosed financial relationships with Akili Interactive Labs, which funded the study. Dr. Faraone was an investigator on the STARS-ADHD trial.

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

Among children and adolescents aged 5-18 years, concussion was associated with a higher risk of mental health problems, compared with age- and sex-matched children and adolescents with an orthopedic injury, according to a cohort study published in JAMA Network Open.

While concussions are one of the most common head injuries in the pediatric population, the extent to which they increase the risk of new onset psychiatric disorders or subsequent psychopathology is unclear, lead author Andrée-Anne Ledoux, PhD, of the Children’s Hospital of Eastern Ontario Research Institute, Ottawa, and colleagues explained.

The researchers conducted a population-based retrospective cohort study to evaluate associations between concussion and risk of subsequent mental health issues, psychiatric hospitalizations, self-harm, or suicides in children and adolescents, with follow-up ranging from 1 month to 10 years.

The data were obtained from province-wide health administrative databases. Participants with concussion were included in an exposed group, while those with an orthopedic injury were included in a 1:2 age- and sex-matched comparison group.
 

Results

The study cohort comprised 448,803 participants, including 152,321 and 296,482 children and adolescents with concussion and orthopedic injury, respectively.

The incidence rates of any mental health problem were 11,141 per 100,000 person-years in the exposed group and 7,960 per 100,000 person-years in the unexposed group (difference, 3,181; 95% confidence interval, 3,073-3,291 per 100,000 person-years).

After concussion, the exposed group had a greater risk of developing a mental health issue (adjusted hazard ratio, 1.39; 95% CI, 1.37-1.40), psychiatric hospitalization (aHR, 1.47; 95% CI, 1.41-1.53), and self-harm (aHR, 1.49; 95% CI, 1.42-1.56). In addition, there was no significant difference in death by suicide between the exposed and unexposed groups (HR, 1.54; 95% CI, 0.90-2.61).

“Our results suggest that clinicians should assess for preexisting and new mental health symptoms throughout concussion recovery and treat mental health conditions or symptoms or refer the patient to a specialist in pediatric mental health,” wrote Dr. Ledoux and colleagues. “[Clinicians should also] assess suicidal ideation and self-harm behaviors during evaluation and follow-up visits for concussion.”

The researchers acknowledged that a key limitation of the study was the retrospective observational design. In addition, the identification of exposures using diagnostic billing codes could have introduced exposure or outcome misclassification.
 

Expert-recommended resources

“For more information, I’d recommend ‘Pedsconcussion,’ which are evidence-based living guidelines for pediatric concussion care,” Dr. Ledoux said in an interview. “Within domain 8, there are specific guidelines related to the management of mental health issues post concussion.”

Neuropsychology expert Talin Babikian, PhD, of the University of California, Los Angeles, commented: “Studies have shown that even a single psychoeducational session early after a concussion can minimize prolonged recoveries. Ensuring all stakeholders (family, clinicians, school, coach, peers) are on the same page and providing the same information is important to build trust and a sense of safety and agency.

“We want to provide psychoeducation early in the process to avoid unnecessary fear and avoidance. We also want to curtail misattribution of everyday symptoms or symptoms related to an unrelated condition to a brain injury, which are easier to do when caught early,” Dr. Babikian added.

This study was supported by the Institute for Clinical Evaluative Sciences, which is funded by an annual grant from the Ontario Ministry of Health and the Ministry of Long-term Care. One author reported financial relationships with the University of Ottawa, the National Football League, Parachute Canada, and 360 Concussion Care, an interdisciplinary concussion clinic; no other conflicts of interest were reported.

Among children and adolescents aged 5-18 years, concussion was associated with a higher risk of mental health problems, compared with age- and sex-matched children and adolescents with an orthopedic injury, according to a cohort study published in JAMA Network Open.

While concussions are one of the most common head injuries in the pediatric population, the extent to which they increase the risk of new onset psychiatric disorders or subsequent psychopathology is unclear, lead author Andrée-Anne Ledoux, PhD, of the Children’s Hospital of Eastern Ontario Research Institute, Ottawa, and colleagues explained.

The researchers conducted a population-based retrospective cohort study to evaluate associations between concussion and risk of subsequent mental health issues, psychiatric hospitalizations, self-harm, or suicides in children and adolescents, with follow-up ranging from 1 month to 10 years.

The data were obtained from province-wide health administrative databases. Participants with concussion were included in an exposed group, while those with an orthopedic injury were included in a 1:2 age- and sex-matched comparison group.
 

Results

The study cohort comprised 448,803 participants, including 152,321 and 296,482 children and adolescents with concussion and orthopedic injury, respectively.

The incidence rates of any mental health problem were 11,141 per 100,000 person-years in the exposed group and 7,960 per 100,000 person-years in the unexposed group (difference, 3,181; 95% confidence interval, 3,073-3,291 per 100,000 person-years).

After concussion, the exposed group had a greater risk of developing a mental health issue (adjusted hazard ratio, 1.39; 95% CI, 1.37-1.40), psychiatric hospitalization (aHR, 1.47; 95% CI, 1.41-1.53), and self-harm (aHR, 1.49; 95% CI, 1.42-1.56). In addition, there was no significant difference in death by suicide between the exposed and unexposed groups (HR, 1.54; 95% CI, 0.90-2.61).

“Our results suggest that clinicians should assess for preexisting and new mental health symptoms throughout concussion recovery and treat mental health conditions or symptoms or refer the patient to a specialist in pediatric mental health,” wrote Dr. Ledoux and colleagues. “[Clinicians should also] assess suicidal ideation and self-harm behaviors during evaluation and follow-up visits for concussion.”

The researchers acknowledged that a key limitation of the study was the retrospective observational design. In addition, the identification of exposures using diagnostic billing codes could have introduced exposure or outcome misclassification.
 

Expert-recommended resources

“For more information, I’d recommend ‘Pedsconcussion,’ which are evidence-based living guidelines for pediatric concussion care,” Dr. Ledoux said in an interview. “Within domain 8, there are specific guidelines related to the management of mental health issues post concussion.”

Neuropsychology expert Talin Babikian, PhD, of the University of California, Los Angeles, commented: “Studies have shown that even a single psychoeducational session early after a concussion can minimize prolonged recoveries. Ensuring all stakeholders (family, clinicians, school, coach, peers) are on the same page and providing the same information is important to build trust and a sense of safety and agency.

“We want to provide psychoeducation early in the process to avoid unnecessary fear and avoidance. We also want to curtail misattribution of everyday symptoms or symptoms related to an unrelated condition to a brain injury, which are easier to do when caught early,” Dr. Babikian added.

This study was supported by the Institute for Clinical Evaluative Sciences, which is funded by an annual grant from the Ontario Ministry of Health and the Ministry of Long-term Care. One author reported financial relationships with the University of Ottawa, the National Football League, Parachute Canada, and 360 Concussion Care, an interdisciplinary concussion clinic; no other conflicts of interest were reported.

Among children and adolescents aged 5-18 years, concussion was associated with a higher risk of mental health problems, compared with age- and sex-matched children and adolescents with an orthopedic injury, according to a cohort study published in JAMA Network Open.

While concussions are one of the most common head injuries in the pediatric population, the extent to which they increase the risk of new onset psychiatric disorders or subsequent psychopathology is unclear, lead author Andrée-Anne Ledoux, PhD, of the Children’s Hospital of Eastern Ontario Research Institute, Ottawa, and colleagues explained.

The researchers conducted a population-based retrospective cohort study to evaluate associations between concussion and risk of subsequent mental health issues, psychiatric hospitalizations, self-harm, or suicides in children and adolescents, with follow-up ranging from 1 month to 10 years.

The data were obtained from province-wide health administrative databases. Participants with concussion were included in an exposed group, while those with an orthopedic injury were included in a 1:2 age- and sex-matched comparison group.
 

Results

The study cohort comprised 448,803 participants, including 152,321 and 296,482 children and adolescents with concussion and orthopedic injury, respectively.

The incidence rates of any mental health problem were 11,141 per 100,000 person-years in the exposed group and 7,960 per 100,000 person-years in the unexposed group (difference, 3,181; 95% confidence interval, 3,073-3,291 per 100,000 person-years).

After concussion, the exposed group had a greater risk of developing a mental health issue (adjusted hazard ratio, 1.39; 95% CI, 1.37-1.40), psychiatric hospitalization (aHR, 1.47; 95% CI, 1.41-1.53), and self-harm (aHR, 1.49; 95% CI, 1.42-1.56). In addition, there was no significant difference in death by suicide between the exposed and unexposed groups (HR, 1.54; 95% CI, 0.90-2.61).

“Our results suggest that clinicians should assess for preexisting and new mental health symptoms throughout concussion recovery and treat mental health conditions or symptoms or refer the patient to a specialist in pediatric mental health,” wrote Dr. Ledoux and colleagues. “[Clinicians should also] assess suicidal ideation and self-harm behaviors during evaluation and follow-up visits for concussion.”

The researchers acknowledged that a key limitation of the study was the retrospective observational design. In addition, the identification of exposures using diagnostic billing codes could have introduced exposure or outcome misclassification.
 

Expert-recommended resources

“For more information, I’d recommend ‘Pedsconcussion,’ which are evidence-based living guidelines for pediatric concussion care,” Dr. Ledoux said in an interview. “Within domain 8, there are specific guidelines related to the management of mental health issues post concussion.”

Neuropsychology expert Talin Babikian, PhD, of the University of California, Los Angeles, commented: “Studies have shown that even a single psychoeducational session early after a concussion can minimize prolonged recoveries. Ensuring all stakeholders (family, clinicians, school, coach, peers) are on the same page and providing the same information is important to build trust and a sense of safety and agency.

“We want to provide psychoeducation early in the process to avoid unnecessary fear and avoidance. We also want to curtail misattribution of everyday symptoms or symptoms related to an unrelated condition to a brain injury, which are easier to do when caught early,” Dr. Babikian added.

This study was supported by the Institute for Clinical Evaluative Sciences, which is funded by an annual grant from the Ontario Ministry of Health and the Ministry of Long-term Care. One author reported financial relationships with the University of Ottawa, the National Football League, Parachute Canada, and 360 Concussion Care, an interdisciplinary concussion clinic; no other conflicts of interest were reported.

PHOENIX – For at least a decade, professional allergy and pediatrics societies have urged against using food IgE tests unless the patient has a history consistent with potential IgE-mediated food allergies. Yet virtually every health system offers these blood tests, and their inappropriate use – especially of panels that measure many allergens at once – remains a huge problem.

Beyond wasteful spending, excessive food IgE testing can lead patients to worry needlessly and to avoid foods they aren’t allergic to. For babies and toddlers, avoidance can drive up the risk of developing allergies to those foods later in life – a consequence that was convincingly proven by the LEAP study but has still not translated to a widespread change in practice.

“I think we all know that there’s just a lot of system-wide resistance to making these changes, and we don’t completely understand why,” Nicholas Hartog, MD, an allergist with Spectrum Health in Grand Rapids, Mich., told this news organization.

At the American Academy of Allergy, Asthma & Immunology annual meeting, one of Dr. Hartog’s residents, Courtney Cotter, DO, presented a poster detailing their team’s retrospective review of food panel ordering practices across Spectrum Health, a large, multispecialty physician group in west Michigan.

The team combed Epic health records to evaluate food IgE ordering from January 2016 to December 2021. They tracked monthly figures for the number of patients who underwent food IgE tests, the percentage of tested patients for whom food panels were available, and the number of food panels and total number of food IgE tests ordered. They compared average rates from the final 3 months with rates from the first 3 months, which predated the August 2016 establishment of an academic pediatric allergy/immunology department.

Initially, Dr. Hartog and his colleagues focused on educating doctors on appropriate use of food IgE tests through informal conversations and lectures, but, he said, “It’s really difficult to change physician behavior, so sometimes we have to go about it by making it hard to do the wrong thing.”

To that end, the team tried to eliminate the food panels. However, some lab staff feared the possibility of losing revenue if physicians decided to order these tests elsewhere. After more negotiations, the laboratory agreed in December 2019 to restrict and rework food IgE testing by dropping the number of panels from nine to two and by restricting the number of foods in those panels. For example, in the basic panel, “we limited it to just four allergens, so even if you order a panel, you’re not getting 20 results,” Dr. Hartog told this news organization. “I finally found a friendly pathologist who was very on board with this positive change.”

In December 2020, the team implemented yet another strategy: Epic alerts. Each time doctors request a food panel, they receive a pop-up message stating that panel tests are not recommended and asking if they wish to proceed.

The multipronged effort had a modest impact on the number of food panels ordered per month, which dipped from 112.7 to 84.7 for the first and last 3 months of the study. Monthly totals of individual food IgE tests showed a steeper drop, decreasing from 2,379 to 1,180 in the initial and final 3-month periods – a change Dr. Hartog attributes to the revamped food panels. They estimated the cost savings at around $40 per patient, “and we were getting on average about 200 patients a month, so it adds up,” he said.

But the Epic alerts seemed to have little effect. Over the duration of the study, the monthly number of IgE tests ordered per clinician did not change. Neither did the percentage of patients evaluated with a food panel. “The alerts pop up, but people are still ordering,” Dr. Hartog said.

On the whole, the analysis shows that, “despite major efforts to educate providers and the public about these things, it is rampantly disregarded and is a huge problem for our specialty and is likely causing harm to patients,” said allergist-immunologist Gerald Lee, MD, of Emory University in Atlanta.

Dr. Lee said that a common scenario for inappropriate food IgE testing is severe eczema. Many parents request blood tests because they assume their child’s skin condition is driven by food allergies. When the child turns up positive to various foods on panel tests, which have high false-positive rates, the physician may recommend eliminating those foods to improve the skin rash – which “actually delays introduction of the food and potentially increases the risk for food allergy,” Dr. Lee said. “That was a common practice when I was in fellowship (2011) and is widely prevalent today.”

Edwin Kim, MD, director of the UNC Food Allergy Initiative at the University of North Carolina at Chapel Hill, agrees that food IgE panels are wasteful and harmful. However, he thinks the solution is not to tell primary care physicians and pediatricians to stop using the tests. “We’re insinuating that they’re being used inappropriately, but the problem is that these are people that are patient facing, the patients are asking a question, and the appropriate tests aren’t there,” Dr. Kim said. “A big part of that problem is that the tests we have available to us are not good enough.”

The Spectrum Health analysis did not examine ICD codes associated with the food IgE tests or track which physicians ordered the tests. A 2016 retrospective review published in Pediatrics did evaluate ordering practices by specialty and found that primary care providers ordered “significantly more food allergen panels, tests for uncommon causes of food allergy, and generate higher cost per patient compared with allergists.”

Given the immense challenges with implementing system-wide changes, sometimes it can help to educate parents and families. “When you sit down and take 2 or 3 minutes to explain why this is a bad test and that I care about your kid but just don’t want inappropriate testing, they’re okay with it. They understand,” Dr. Hartog said. “When I teach residents, I make sure to emphasize that we have these conversations all the time.”

Dr. Hartog reports financial relationships with Binding Site (speaker), Regeneron (advisory board), Genentech (advisory board), Horizon Pharmaceuticals (advisory board, consulting, speaker), Takeda (speaker, advisory board) and Pharming Healthcare (advisory board, scientific steering committee, consulting), though none related to food allergy. Dr. Lee has disclosed no relevant financial relationships. Dr. Kim reports consultancy with Aimmune Therapeutics, Allako, AllerGenis, Belhaven Pharma, DBV Technologies, Duke Clinical Research Institute, and Nutricia; advisory board membership with ALK, DBV Technologies, Kenota Health, and Ukko; and grant support from the National Institute of Allergy and Infectious Diseases and the Immune Tolerance Network; the National Center for Complementary and Integrative Health; Food Allergy Research and Education; and the Wallace Research Foundation.

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

PHOENIX – For at least a decade, professional allergy and pediatrics societies have urged against using food IgE tests unless the patient has a history consistent with potential IgE-mediated food allergies. Yet virtually every health system offers these blood tests, and their inappropriate use – especially of panels that measure many allergens at once – remains a huge problem.

Beyond wasteful spending, excessive food IgE testing can lead patients to worry needlessly and to avoid foods they aren’t allergic to. For babies and toddlers, avoidance can drive up the risk of developing allergies to those foods later in life – a consequence that was convincingly proven by the LEAP study but has still not translated to a widespread change in practice.

“I think we all know that there’s just a lot of system-wide resistance to making these changes, and we don’t completely understand why,” Nicholas Hartog, MD, an allergist with Spectrum Health in Grand Rapids, Mich., told this news organization.

At the American Academy of Allergy, Asthma & Immunology annual meeting, one of Dr. Hartog’s residents, Courtney Cotter, DO, presented a poster detailing their team’s retrospective review of food panel ordering practices across Spectrum Health, a large, multispecialty physician group in west Michigan.

The team combed Epic health records to evaluate food IgE ordering from January 2016 to December 2021. They tracked monthly figures for the number of patients who underwent food IgE tests, the percentage of tested patients for whom food panels were available, and the number of food panels and total number of food IgE tests ordered. They compared average rates from the final 3 months with rates from the first 3 months, which predated the August 2016 establishment of an academic pediatric allergy/immunology department.

Initially, Dr. Hartog and his colleagues focused on educating doctors on appropriate use of food IgE tests through informal conversations and lectures, but, he said, “It’s really difficult to change physician behavior, so sometimes we have to go about it by making it hard to do the wrong thing.”

To that end, the team tried to eliminate the food panels. However, some lab staff feared the possibility of losing revenue if physicians decided to order these tests elsewhere. After more negotiations, the laboratory agreed in December 2019 to restrict and rework food IgE testing by dropping the number of panels from nine to two and by restricting the number of foods in those panels. For example, in the basic panel, “we limited it to just four allergens, so even if you order a panel, you’re not getting 20 results,” Dr. Hartog told this news organization. “I finally found a friendly pathologist who was very on board with this positive change.”

In December 2020, the team implemented yet another strategy: Epic alerts. Each time doctors request a food panel, they receive a pop-up message stating that panel tests are not recommended and asking if they wish to proceed.

The multipronged effort had a modest impact on the number of food panels ordered per month, which dipped from 112.7 to 84.7 for the first and last 3 months of the study. Monthly totals of individual food IgE tests showed a steeper drop, decreasing from 2,379 to 1,180 in the initial and final 3-month periods – a change Dr. Hartog attributes to the revamped food panels. They estimated the cost savings at around $40 per patient, “and we were getting on average about 200 patients a month, so it adds up,” he said.

But the Epic alerts seemed to have little effect. Over the duration of the study, the monthly number of IgE tests ordered per clinician did not change. Neither did the percentage of patients evaluated with a food panel. “The alerts pop up, but people are still ordering,” Dr. Hartog said.

On the whole, the analysis shows that, “despite major efforts to educate providers and the public about these things, it is rampantly disregarded and is a huge problem for our specialty and is likely causing harm to patients,” said allergist-immunologist Gerald Lee, MD, of Emory University in Atlanta.

Dr. Lee said that a common scenario for inappropriate food IgE testing is severe eczema. Many parents request blood tests because they assume their child’s skin condition is driven by food allergies. When the child turns up positive to various foods on panel tests, which have high false-positive rates, the physician may recommend eliminating those foods to improve the skin rash – which “actually delays introduction of the food and potentially increases the risk for food allergy,” Dr. Lee said. “That was a common practice when I was in fellowship (2011) and is widely prevalent today.”

Edwin Kim, MD, director of the UNC Food Allergy Initiative at the University of North Carolina at Chapel Hill, agrees that food IgE panels are wasteful and harmful. However, he thinks the solution is not to tell primary care physicians and pediatricians to stop using the tests. “We’re insinuating that they’re being used inappropriately, but the problem is that these are people that are patient facing, the patients are asking a question, and the appropriate tests aren’t there,” Dr. Kim said. “A big part of that problem is that the tests we have available to us are not good enough.”

The Spectrum Health analysis did not examine ICD codes associated with the food IgE tests or track which physicians ordered the tests. A 2016 retrospective review published in Pediatrics did evaluate ordering practices by specialty and found that primary care providers ordered “significantly more food allergen panels, tests for uncommon causes of food allergy, and generate higher cost per patient compared with allergists.”

Given the immense challenges with implementing system-wide changes, sometimes it can help to educate parents and families. “When you sit down and take 2 or 3 minutes to explain why this is a bad test and that I care about your kid but just don’t want inappropriate testing, they’re okay with it. They understand,” Dr. Hartog said. “When I teach residents, I make sure to emphasize that we have these conversations all the time.”

Dr. Hartog reports financial relationships with Binding Site (speaker), Regeneron (advisory board), Genentech (advisory board), Horizon Pharmaceuticals (advisory board, consulting, speaker), Takeda (speaker, advisory board) and Pharming Healthcare (advisory board, scientific steering committee, consulting), though none related to food allergy. Dr. Lee has disclosed no relevant financial relationships. Dr. Kim reports consultancy with Aimmune Therapeutics, Allako, AllerGenis, Belhaven Pharma, DBV Technologies, Duke Clinical Research Institute, and Nutricia; advisory board membership with ALK, DBV Technologies, Kenota Health, and Ukko; and grant support from the National Institute of Allergy and Infectious Diseases and the Immune Tolerance Network; the National Center for Complementary and Integrative Health; Food Allergy Research and Education; and the Wallace Research Foundation.

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

PHOENIX – For at least a decade, professional allergy and pediatrics societies have urged against using food IgE tests unless the patient has a history consistent with potential IgE-mediated food allergies. Yet virtually every health system offers these blood tests, and their inappropriate use – especially of panels that measure many allergens at once – remains a huge problem.

Beyond wasteful spending, excessive food IgE testing can lead patients to worry needlessly and to avoid foods they aren’t allergic to. For babies and toddlers, avoidance can drive up the risk of developing allergies to those foods later in life – a consequence that was convincingly proven by the LEAP study but has still not translated to a widespread change in practice.

“I think we all know that there’s just a lot of system-wide resistance to making these changes, and we don’t completely understand why,” Nicholas Hartog, MD, an allergist with Spectrum Health in Grand Rapids, Mich., told this news organization.

At the American Academy of Allergy, Asthma & Immunology annual meeting, one of Dr. Hartog’s residents, Courtney Cotter, DO, presented a poster detailing their team’s retrospective review of food panel ordering practices across Spectrum Health, a large, multispecialty physician group in west Michigan.

The team combed Epic health records to evaluate food IgE ordering from January 2016 to December 2021. They tracked monthly figures for the number of patients who underwent food IgE tests, the percentage of tested patients for whom food panels were available, and the number of food panels and total number of food IgE tests ordered. They compared average rates from the final 3 months with rates from the first 3 months, which predated the August 2016 establishment of an academic pediatric allergy/immunology department.

Initially, Dr. Hartog and his colleagues focused on educating doctors on appropriate use of food IgE tests through informal conversations and lectures, but, he said, “It’s really difficult to change physician behavior, so sometimes we have to go about it by making it hard to do the wrong thing.”

To that end, the team tried to eliminate the food panels. However, some lab staff feared the possibility of losing revenue if physicians decided to order these tests elsewhere. After more negotiations, the laboratory agreed in December 2019 to restrict and rework food IgE testing by dropping the number of panels from nine to two and by restricting the number of foods in those panels. For example, in the basic panel, “we limited it to just four allergens, so even if you order a panel, you’re not getting 20 results,” Dr. Hartog told this news organization. “I finally found a friendly pathologist who was very on board with this positive change.”

In December 2020, the team implemented yet another strategy: Epic alerts. Each time doctors request a food panel, they receive a pop-up message stating that panel tests are not recommended and asking if they wish to proceed.

The multipronged effort had a modest impact on the number of food panels ordered per month, which dipped from 112.7 to 84.7 for the first and last 3 months of the study. Monthly totals of individual food IgE tests showed a steeper drop, decreasing from 2,379 to 1,180 in the initial and final 3-month periods – a change Dr. Hartog attributes to the revamped food panels. They estimated the cost savings at around $40 per patient, “and we were getting on average about 200 patients a month, so it adds up,” he said.

But the Epic alerts seemed to have little effect. Over the duration of the study, the monthly number of IgE tests ordered per clinician did not change. Neither did the percentage of patients evaluated with a food panel. “The alerts pop up, but people are still ordering,” Dr. Hartog said.

On the whole, the analysis shows that, “despite major efforts to educate providers and the public about these things, it is rampantly disregarded and is a huge problem for our specialty and is likely causing harm to patients,” said allergist-immunologist Gerald Lee, MD, of Emory University in Atlanta.

Dr. Lee said that a common scenario for inappropriate food IgE testing is severe eczema. Many parents request blood tests because they assume their child’s skin condition is driven by food allergies. When the child turns up positive to various foods on panel tests, which have high false-positive rates, the physician may recommend eliminating those foods to improve the skin rash – which “actually delays introduction of the food and potentially increases the risk for food allergy,” Dr. Lee said. “That was a common practice when I was in fellowship (2011) and is widely prevalent today.”

Edwin Kim, MD, director of the UNC Food Allergy Initiative at the University of North Carolina at Chapel Hill, agrees that food IgE panels are wasteful and harmful. However, he thinks the solution is not to tell primary care physicians and pediatricians to stop using the tests. “We’re insinuating that they’re being used inappropriately, but the problem is that these are people that are patient facing, the patients are asking a question, and the appropriate tests aren’t there,” Dr. Kim said. “A big part of that problem is that the tests we have available to us are not good enough.”

The Spectrum Health analysis did not examine ICD codes associated with the food IgE tests or track which physicians ordered the tests. A 2016 retrospective review published in Pediatrics did evaluate ordering practices by specialty and found that primary care providers ordered “significantly more food allergen panels, tests for uncommon causes of food allergy, and generate higher cost per patient compared with allergists.”

Given the immense challenges with implementing system-wide changes, sometimes it can help to educate parents and families. “When you sit down and take 2 or 3 minutes to explain why this is a bad test and that I care about your kid but just don’t want inappropriate testing, they’re okay with it. They understand,” Dr. Hartog said. “When I teach residents, I make sure to emphasize that we have these conversations all the time.”

Dr. Hartog reports financial relationships with Binding Site (speaker), Regeneron (advisory board), Genentech (advisory board), Horizon Pharmaceuticals (advisory board, consulting, speaker), Takeda (speaker, advisory board) and Pharming Healthcare (advisory board, scientific steering committee, consulting), though none related to food allergy. Dr. Lee has disclosed no relevant financial relationships. Dr. Kim reports consultancy with Aimmune Therapeutics, Allako, AllerGenis, Belhaven Pharma, DBV Technologies, Duke Clinical Research Institute, and Nutricia; advisory board membership with ALK, DBV Technologies, Kenota Health, and Ukko; and grant support from the National Institute of Allergy and Infectious Diseases and the Immune Tolerance Network; the National Center for Complementary and Integrative Health; Food Allergy Research and Education; and the Wallace Research Foundation.

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

THE CASE

A previously healthy 3-year-old girl presented to the emergency department with 4 days of fever and 2 days of right-side neck pain. The maximum temperature at home was 103 °F. The patient was irritable and vomited once. There were no other apparent or reported symptoms.

The neck exam was notable for nonfluctuant, swollen, and tender lymph nodes on the right side. Her sclera and conjunctiva were clear, and her oropharynx was unremarkable. Lab work revealed leukocytosis, with a white blood cell (WBC) count of 15.5 × 10³/µL (normal range, 4.0-10.0 × 10³/µL). She was given one 20 cc/kg normal saline bolus, started on intravenous clindamycin for presumed cervical lymphadenitis, and admitted to the hospital.

On Day 2, the patient developed a fine maculopapular rash on her chest, abdomen, and back. She had spiking fevers—as high as 102.2 °F—despite being on antibiotics for more than 24 hours. The erythrocyte sedimentation rate (ESR) was 39 mm/h (0-20 mm/h), and C-reactive protein (CRP) was 71.4 mg/L (0.0-4.9 mg/L). Due to concern for abscess, a neck ultrasound was performed; it showed a chain of enlarged lymph nodes in the right neck (largest, 2.3 × 1.1 × 1.4 cm) and no abscess.

On Day 3, clindamycin was switched to intravenous ampicillin/sulbactam because a nasal swab for methicillin-resistant Staphylococcus aureus was negative. A swab for respiratory viral infections was also negative. The patient then developed notable facial swelling, bilateral bulbar conjunctival injection with limbic sparing, and swelling of her hands and feet.

THE DIAGNOSIS

By the end of Day 3, the patient’s lab studies demonstrated microcytic anemia and low albumin (2.5 g/dL), but no transaminitis, thrombocytosis, or sterile pyuria. An electrocardiogram was unremarkable. A pediatric echocardiogram revealed hyperemic coronaries, indicating inflammation. The coronary arteries were measured in the upper limits of normal, and the patient’s Z-scores were < 2.5. (A Z-score < 2 indicates no involvement, 2 to < 2.5 indicates dilation, and ≥ 2.5 indicates aneurysm abnormality.¹) An ultrasound of the right upper quadrant revealed an enlarged/elongated gallbladder. The patient therefore met clinical criteria for Kawasaki disease.

DISCUSSION

Kawasaki disease is a self-limited vasculitis of childhood and the leading cause of acquired heart disease in children in developed countries.¹ The annual incidence of Kawasaki disease in North America is about 25 cases per 100,000 children < 5 years of age.¹ In the United States, incidence is highest in Asian and Pacific Islander populations (30 per 100,000) and is particularly high among those of Japanese ancestry (~200 per 100,000).² Disease prevalence is also noteworthy in Non-Hispanic African American (17 per 100,000) and Hispanic (16 per 100,000) populations.²

Diagnosis of Kawasaki disease requires presence of fever lasting at least 5 days and at least 4 of the following: bilateral bulbar conjunctival injection, oral mucous membrane changes (erythematous or cracked lips, erythematous pharynx, strawberry tongue), peripheral extremity changes (erythema of palms or soles, edema of hands or feet, and/or periungual desquamation), diffuse maculopapular rash, and cervical lymphadenopathy (≥ 1.5 cm, often unilateral). If ≥ 4 criteria are met, Kawasaki disease can be diagnosed on the fourth day of illness.¹

Continue to: Laboratory findings suggesting...

Laboratory findings suggesting ­Kawasaki disease include a WBC count ≥ 15,000/mcL, normocytic, normochromic anemia, platelets ≥ 450,000/mcL after 7 days of illness, sterile pyuria (≥ 10 WBCs/high-power field), serum alanine aminotransferase level > 50 U/L, and serum albumin ≤ 3 g/dL.

Cardiac abnormalities are not included in the diagnostic criteria for Kawasaki disease but provide evidence in cases of incomplete Kawasaki disease if ≥ 4 criteria are not met and there is strong clinical suspicion.¹ Incomplete Kawasaki disease should be considered in a patient with a CRP level ≥ 3 mg/dL and/or ESR ≥ 40 mm/h, ≥ 3 supplemental laboratory criteria, or a positive echocardiogram.¹

Ultrasound imaging may reveal cervical lymph nodes resembling a “cluster of grapes.”³ The case patient’s imaging showed a “chain of enlarged lymph nodes.” She likely had gallbladder “hydrops” due to its increased longitudinal and horizontal diameter and lack of other anatomic changes.⁴

Prompt treatment is essential

Treatment for complete and incomplete Kawasaki disease is a single high dose of intravenous immunoglobulin (IVIG) along with aspirin. Patients meeting criteria should be treated as soon as the diagnosis is established.⁵ A single high dose of IVIG (2 g/kg), administered over 10 to 12 hours, should be initiated within 5 to 10 days of disease onset. Administering IVIG in the acute phase of Kawasaki disease reduces the prevalence of coronary artery abnormalities.⁶ Corticosteroids may be used as adjunctive therapy for patients with high risk of IVIG resistance.^1,7-9

Our patient was not deemed to be at high risk for IVIG resistance (Non-Japanese patient, age at fever onset > 6 months, absence of coronary artery aneurysm⁹) and was administered IVIG on Day 4. She was also given moderate-dose aspirin, then later transitioned to low-dose aspirin. The patient’s fevers improved, she was less irritable, and she had periods of playfulness. Physical exam then showed erythematous and cracked lips with peeling skin.

Continue to: The patient was discharged...

Untreated children with Kawasaki disease have a 25% chance of developing coronary artery aneurysms.

The patient was discharged home on Day 8, after her fever resolved, with instructions to continue low-dose aspirin and to obtain a repeat echocardiogram, gallbladder ultrasound, and lab work in 2 weeks. At her follow-up appointment, periungual desquamation was noted, and ultrasound showed continued enlarged/elongated gallbladder. A repeat echocardiogram was not available. Overall, the patient recovered from Kawasaki disease after therapeutic intervention.

THE TAKEAWAY

Kawasaki disease can be relatively rare in North American populations, but it is important for physicians to be able to recognize and treat it. Untreated children have a 25% chance of developing coronary artery aneurysms.^1,10,11 Early treatment with IVIG can decrease risk to 5%, resulting in an excellent medium- to long-term prognosis for patients.¹⁰ Thorough physical examination and an appropriate degree of clinical suspicion was key in this case of Kawasaki disease.

CORRESPONDENCE
Taisha Doo, MD, 1401 Madison Street, Suite #100, Seattle, WA 98104; [email protected]

THE CASE

A previously healthy 3-year-old girl presented to the emergency department with 4 days of fever and 2 days of right-side neck pain. The maximum temperature at home was 103 °F. The patient was irritable and vomited once. There were no other apparent or reported symptoms.

The neck exam was notable for nonfluctuant, swollen, and tender lymph nodes on the right side. Her sclera and conjunctiva were clear, and her oropharynx was unremarkable. Lab work revealed leukocytosis, with a white blood cell (WBC) count of 15.5 × 10³/µL (normal range, 4.0-10.0 × 10³/µL). She was given one 20 cc/kg normal saline bolus, started on intravenous clindamycin for presumed cervical lymphadenitis, and admitted to the hospital.

On Day 2, the patient developed a fine maculopapular rash on her chest, abdomen, and back. She had spiking fevers—as high as 102.2 °F—despite being on antibiotics for more than 24 hours. The erythrocyte sedimentation rate (ESR) was 39 mm/h (0-20 mm/h), and C-reactive protein (CRP) was 71.4 mg/L (0.0-4.9 mg/L). Due to concern for abscess, a neck ultrasound was performed; it showed a chain of enlarged lymph nodes in the right neck (largest, 2.3 × 1.1 × 1.4 cm) and no abscess.

On Day 3, clindamycin was switched to intravenous ampicillin/sulbactam because a nasal swab for methicillin-resistant Staphylococcus aureus was negative. A swab for respiratory viral infections was also negative. The patient then developed notable facial swelling, bilateral bulbar conjunctival injection with limbic sparing, and swelling of her hands and feet.

THE DIAGNOSIS

By the end of Day 3, the patient’s lab studies demonstrated microcytic anemia and low albumin (2.5 g/dL), but no transaminitis, thrombocytosis, or sterile pyuria. An electrocardiogram was unremarkable. A pediatric echocardiogram revealed hyperemic coronaries, indicating inflammation. The coronary arteries were measured in the upper limits of normal, and the patient’s Z-scores were < 2.5. (A Z-score < 2 indicates no involvement, 2 to < 2.5 indicates dilation, and ≥ 2.5 indicates aneurysm abnormality.¹) An ultrasound of the right upper quadrant revealed an enlarged/elongated gallbladder. The patient therefore met clinical criteria for Kawasaki disease.

DISCUSSION

Kawasaki disease is a self-limited vasculitis of childhood and the leading cause of acquired heart disease in children in developed countries.¹ The annual incidence of Kawasaki disease in North America is about 25 cases per 100,000 children < 5 years of age.¹ In the United States, incidence is highest in Asian and Pacific Islander populations (30 per 100,000) and is particularly high among those of Japanese ancestry (~200 per 100,000).² Disease prevalence is also noteworthy in Non-Hispanic African American (17 per 100,000) and Hispanic (16 per 100,000) populations.²

Diagnosis of Kawasaki disease requires presence of fever lasting at least 5 days and at least 4 of the following: bilateral bulbar conjunctival injection, oral mucous membrane changes (erythematous or cracked lips, erythematous pharynx, strawberry tongue), peripheral extremity changes (erythema of palms or soles, edema of hands or feet, and/or periungual desquamation), diffuse maculopapular rash, and cervical lymphadenopathy (≥ 1.5 cm, often unilateral). If ≥ 4 criteria are met, Kawasaki disease can be diagnosed on the fourth day of illness.¹

Continue to: Laboratory findings suggesting...

Laboratory findings suggesting ­Kawasaki disease include a WBC count ≥ 15,000/mcL, normocytic, normochromic anemia, platelets ≥ 450,000/mcL after 7 days of illness, sterile pyuria (≥ 10 WBCs/high-power field), serum alanine aminotransferase level > 50 U/L, and serum albumin ≤ 3 g/dL.

Cardiac abnormalities are not included in the diagnostic criteria for Kawasaki disease but provide evidence in cases of incomplete Kawasaki disease if ≥ 4 criteria are not met and there is strong clinical suspicion.¹ Incomplete Kawasaki disease should be considered in a patient with a CRP level ≥ 3 mg/dL and/or ESR ≥ 40 mm/h, ≥ 3 supplemental laboratory criteria, or a positive echocardiogram.¹

Ultrasound imaging may reveal cervical lymph nodes resembling a “cluster of grapes.”³ The case patient’s imaging showed a “chain of enlarged lymph nodes.” She likely had gallbladder “hydrops” due to its increased longitudinal and horizontal diameter and lack of other anatomic changes.⁴

Prompt treatment is essential

Treatment for complete and incomplete Kawasaki disease is a single high dose of intravenous immunoglobulin (IVIG) along with aspirin. Patients meeting criteria should be treated as soon as the diagnosis is established.⁵ A single high dose of IVIG (2 g/kg), administered over 10 to 12 hours, should be initiated within 5 to 10 days of disease onset. Administering IVIG in the acute phase of Kawasaki disease reduces the prevalence of coronary artery abnormalities.⁶ Corticosteroids may be used as adjunctive therapy for patients with high risk of IVIG resistance.^1,7-9

Our patient was not deemed to be at high risk for IVIG resistance (Non-Japanese patient, age at fever onset > 6 months, absence of coronary artery aneurysm⁹) and was administered IVIG on Day 4. She was also given moderate-dose aspirin, then later transitioned to low-dose aspirin. The patient’s fevers improved, she was less irritable, and she had periods of playfulness. Physical exam then showed erythematous and cracked lips with peeling skin.

Continue to: The patient was discharged...

Untreated children with Kawasaki disease have a 25% chance of developing coronary artery aneurysms.

The patient was discharged home on Day 8, after her fever resolved, with instructions to continue low-dose aspirin and to obtain a repeat echocardiogram, gallbladder ultrasound, and lab work in 2 weeks. At her follow-up appointment, periungual desquamation was noted, and ultrasound showed continued enlarged/elongated gallbladder. A repeat echocardiogram was not available. Overall, the patient recovered from Kawasaki disease after therapeutic intervention.

THE TAKEAWAY

Kawasaki disease can be relatively rare in North American populations, but it is important for physicians to be able to recognize and treat it. Untreated children have a 25% chance of developing coronary artery aneurysms.^1,10,11 Early treatment with IVIG can decrease risk to 5%, resulting in an excellent medium- to long-term prognosis for patients.¹⁰ Thorough physical examination and an appropriate degree of clinical suspicion was key in this case of Kawasaki disease.

CORRESPONDENCE
Taisha Doo, MD, 1401 Madison Street, Suite #100, Seattle, WA 98104; [email protected]

THE CASE

A previously healthy 3-year-old girl presented to the emergency department with 4 days of fever and 2 days of right-side neck pain. The maximum temperature at home was 103 °F. The patient was irritable and vomited once. There were no other apparent or reported symptoms.

The neck exam was notable for nonfluctuant, swollen, and tender lymph nodes on the right side. Her sclera and conjunctiva were clear, and her oropharynx was unremarkable. Lab work revealed leukocytosis, with a white blood cell (WBC) count of 15.5 × 10³/µL (normal range, 4.0-10.0 × 10³/µL). She was given one 20 cc/kg normal saline bolus, started on intravenous clindamycin for presumed cervical lymphadenitis, and admitted to the hospital.

On Day 2, the patient developed a fine maculopapular rash on her chest, abdomen, and back. She had spiking fevers—as high as 102.2 °F—despite being on antibiotics for more than 24 hours. The erythrocyte sedimentation rate (ESR) was 39 mm/h (0-20 mm/h), and C-reactive protein (CRP) was 71.4 mg/L (0.0-4.9 mg/L). Due to concern for abscess, a neck ultrasound was performed; it showed a chain of enlarged lymph nodes in the right neck (largest, 2.3 × 1.1 × 1.4 cm) and no abscess.

On Day 3, clindamycin was switched to intravenous ampicillin/sulbactam because a nasal swab for methicillin-resistant Staphylococcus aureus was negative. A swab for respiratory viral infections was also negative. The patient then developed notable facial swelling, bilateral bulbar conjunctival injection with limbic sparing, and swelling of her hands and feet.

THE DIAGNOSIS

By the end of Day 3, the patient’s lab studies demonstrated microcytic anemia and low albumin (2.5 g/dL), but no transaminitis, thrombocytosis, or sterile pyuria. An electrocardiogram was unremarkable. A pediatric echocardiogram revealed hyperemic coronaries, indicating inflammation. The coronary arteries were measured in the upper limits of normal, and the patient’s Z-scores were < 2.5. (A Z-score < 2 indicates no involvement, 2 to < 2.5 indicates dilation, and ≥ 2.5 indicates aneurysm abnormality.¹) An ultrasound of the right upper quadrant revealed an enlarged/elongated gallbladder. The patient therefore met clinical criteria for Kawasaki disease.

DISCUSSION

Kawasaki disease is a self-limited vasculitis of childhood and the leading cause of acquired heart disease in children in developed countries.¹ The annual incidence of Kawasaki disease in North America is about 25 cases per 100,000 children < 5 years of age.¹ In the United States, incidence is highest in Asian and Pacific Islander populations (30 per 100,000) and is particularly high among those of Japanese ancestry (~200 per 100,000).² Disease prevalence is also noteworthy in Non-Hispanic African American (17 per 100,000) and Hispanic (16 per 100,000) populations.²

Diagnosis of Kawasaki disease requires presence of fever lasting at least 5 days and at least 4 of the following: bilateral bulbar conjunctival injection, oral mucous membrane changes (erythematous or cracked lips, erythematous pharynx, strawberry tongue), peripheral extremity changes (erythema of palms or soles, edema of hands or feet, and/or periungual desquamation), diffuse maculopapular rash, and cervical lymphadenopathy (≥ 1.5 cm, often unilateral). If ≥ 4 criteria are met, Kawasaki disease can be diagnosed on the fourth day of illness.¹

Continue to: Laboratory findings suggesting...

Laboratory findings suggesting ­Kawasaki disease include a WBC count ≥ 15,000/mcL, normocytic, normochromic anemia, platelets ≥ 450,000/mcL after 7 days of illness, sterile pyuria (≥ 10 WBCs/high-power field), serum alanine aminotransferase level > 50 U/L, and serum albumin ≤ 3 g/dL.

Cardiac abnormalities are not included in the diagnostic criteria for Kawasaki disease but provide evidence in cases of incomplete Kawasaki disease if ≥ 4 criteria are not met and there is strong clinical suspicion.¹ Incomplete Kawasaki disease should be considered in a patient with a CRP level ≥ 3 mg/dL and/or ESR ≥ 40 mm/h, ≥ 3 supplemental laboratory criteria, or a positive echocardiogram.¹

Ultrasound imaging may reveal cervical lymph nodes resembling a “cluster of grapes.”³ The case patient’s imaging showed a “chain of enlarged lymph nodes.” She likely had gallbladder “hydrops” due to its increased longitudinal and horizontal diameter and lack of other anatomic changes.⁴

Prompt treatment is essential

Treatment for complete and incomplete Kawasaki disease is a single high dose of intravenous immunoglobulin (IVIG) along with aspirin. Patients meeting criteria should be treated as soon as the diagnosis is established.⁵ A single high dose of IVIG (2 g/kg), administered over 10 to 12 hours, should be initiated within 5 to 10 days of disease onset. Administering IVIG in the acute phase of Kawasaki disease reduces the prevalence of coronary artery abnormalities.⁶ Corticosteroids may be used as adjunctive therapy for patients with high risk of IVIG resistance.^1,7-9

Our patient was not deemed to be at high risk for IVIG resistance (Non-Japanese patient, age at fever onset > 6 months, absence of coronary artery aneurysm⁹) and was administered IVIG on Day 4. She was also given moderate-dose aspirin, then later transitioned to low-dose aspirin. The patient’s fevers improved, she was less irritable, and she had periods of playfulness. Physical exam then showed erythematous and cracked lips with peeling skin.

Continue to: The patient was discharged...

Untreated children with Kawasaki disease have a 25% chance of developing coronary artery aneurysms.

The patient was discharged home on Day 8, after her fever resolved, with instructions to continue low-dose aspirin and to obtain a repeat echocardiogram, gallbladder ultrasound, and lab work in 2 weeks. At her follow-up appointment, periungual desquamation was noted, and ultrasound showed continued enlarged/elongated gallbladder. A repeat echocardiogram was not available. Overall, the patient recovered from Kawasaki disease after therapeutic intervention.

THE TAKEAWAY

Kawasaki disease can be relatively rare in North American populations, but it is important for physicians to be able to recognize and treat it. Untreated children have a 25% chance of developing coronary artery aneurysms.^1,10,11 Early treatment with IVIG can decrease risk to 5%, resulting in an excellent medium- to long-term prognosis for patients.¹⁰ Thorough physical examination and an appropriate degree of clinical suspicion was key in this case of Kawasaki disease.

CORRESPONDENCE
Taisha Doo, MD, 1401 Madison Street, Suite #100, Seattle, WA 98104; [email protected]

LAS VEGAS – Someday, pharmacogenomics will advance precision psychiatry, but in the opinion of Erika L. Nurmi, MD, PhD, routine use of genetic testing to guide clinical treatment decisions is not indicated.

“It’s misleading to rely on results of genetic tests to drive clinical treatment,” Dr. Nurmi, a child and adolescent psychiatrist in the department of psychiatry and biobehavioral sciences at the University of California, Los Angeles, said during an annual psychopharmacology update held by the Nevada Psychiatric Association. “There’s a lot of hope and promise there. But currently, we only know the tip of the iceberg about how drugs work and the genetics influencing these effects. Current testing is probably a very poor reflection of the complexity of drug effects.”

According to Dr. Nurmi, there are at least 165 Food and Drug Administration–approved drugs with pharmacogenetic information on 64 different biomarkers – 37% with CYP p450 notations. Of these, 32 psychiatric drugs have pharmacogenetic information, and most of them are dosing recommendations based on whether a patient has the variant. However, there is wide public acceptance of genetic testing in preventing the wrong drug from being used, in selecting the best drug dose, and avoiding side effects (Pharmacogenomics 2012;12[3]:197-204). “Most people have a lot of hope [for genetic testing in psychiatry],” Dr. Nurmi said. “But is the science really there? It doesn’t matter, because these companies are doing it, and you are being shown these reports from patients. Whether or not the science supports it, we’re going to have to interpret these reports and explain them to our patients – even if we don’t order them.”

Currently, she continued, clinicians practice trial and error prescribing where they might try one treatment in a class that they think that will work based on previous literature. If nothing works, they try another one. If that’s intolerable, they try a third treatment, and so on. “When we finally find the right treatment, it can take some time to get the dosing right,” Dr. Nurmi said. “So, it can take many months to get a child on the right medication. Precision treatment, on the other hand, would start off by taking a saliva or blood sample to get a printout that lets physicians know which drugs might be used with caution because they might lack efficacy at standard doses, which ones would likely have adverse effects at standard doses, and which are the best choices and what are the dosing recommendations for those choices. If we could get all the information to guide us, that would be a useful product, but right now, we don’t know enough to be able to make these determinations.”

Current evidence-based genetic testing supports a limited role for CYP2D6 and CYP2C19 genotyping because most psychiatric drugs are metabolized by those two enzymes. Poor metabolizers have two dysfunctional copies of the enzyme-encoding gene. This results in increased drug plasma levels with a potentially increased rate of adverse effects.

“Intermediate and extensive metabolizers usually have a normal phenotype, but you can also have ultrarapid metabolizers who have duplications or other enhancing mutations of the CYP gene,” Dr. Nurmi said. “This can result in lower bioavailability and possibly efficacy. Psychiatrists treat poor metabolizers and ultrarapid metabolizers all the time, because the variants are very common.” An estimated 10% of White people are poor metabolizers at the CYP2D6 gene while about 7% are ultrarapid metabolizers. At the same time, an estimated 20% of Asians, Africans, and Whites are poor metabolizers at the CYP2C19 gene. “So, you’re seeing a lot of this in your practice, and you’re probably changing dosing based on genetic differences in metabolism,” she said.

The only FDA pharmacodynamic treatment guideline is for the risk of Stevens-Johnson syndrome (SJS) with the use of carbamazepine. In a study of 44 patients with SJS, all were positive for the HLA-B*1502 variant, compared with 3% of carbamazepine-tolerant patients (Nature 2004;428[6982]:486). The frequency of carrying this variant is an estimated 1:10,000 among Whites and 1:1,000 among Asians. In 2007, the FDA recommended that patients of Asian ancestry should be screened for HLA-B*1502 prior to starting carbamazepine.

Genetic variation also predicts clinical outcome with atomoxetine use. “Most child psychiatrists I know think atomoxetine doesn’t work as a second-line nonstimulant medication for ADHD,” Dr. Nurmi said. “I’d like to convince you that why you think it doesn’t work is because of the genetics.” In a study published in 2019, Dr. Nurmi and colleagues reviewed medical literature and provided therapeutic recommendations for atomoxetine therapy based on CYP2D6 genotype (Clin Pharmacol Ther 2019 Jul;106[1]:94-102). They observed 10- to 30-fold plasma differences in drug exposure between normal metabolizers and poor metabolizers.

“Poor metabolizers therefore get more benefit, but they are also going to get more side effects,” she said. “FDA recommended doses are inadequate for normal metabolizers, so they had to make guidelines based on poor metabolizers because there would be too much risk for them at higher doses. One-third of individuals require doses above the FDA limit to achieve a therapeutic drug level.”

Dr. Nurmi warned that the existing evidence base for using these genetic tests in children “is really poor. There is no data in adults with any diagnosis other than depression, and even those studies are plagued by concerns. When you’re implementing decision support tools in your practice, the key factors are patient presentation, history and symptoms, your clinical skills, the evidence base, FDA recommendations, and patient autonomy. Appropriate incorporation of genetic data should include avoiding a medication with high toxicity (like SJS), titration planning (dose and titration speed adjustments), and choosing between medications in the same class with an indication or evidence base for the target disorder.” She added that while the benefit of current genetic testing is limited, it may help some patients feel more comfortable tolerating a medication. “For example, being able to tell someone with anxiety that their genetics suggests that they will not have side effects could be very powerful,” she said.

In a 2018 safety communication, the FDA warned the public about its concerns with companies making claims about how to use genetic test results to manage medication treatments that are not supported by recommendations in the FDA-approved drug labeling or other scientific evidence. The American Academy of Child and Adolescent Psychiatry also published a guide for patients and families.

Dr. Nurmi disclosed that she is an unpaid advisory board member for Myriad Genetics and the Tourette Association of America, a paid adviser for Teva Pharmaceuticals, and a recipient of research support from Emalex Pharmaceuticals. She has received research funding from the National Institutes Health, the International OCD Foundation, the Tourette Association of America, and the Brain & Behavior Research Foundation.

LAS VEGAS – Someday, pharmacogenomics will advance precision psychiatry, but in the opinion of Erika L. Nurmi, MD, PhD, routine use of genetic testing to guide clinical treatment decisions is not indicated.

“It’s misleading to rely on results of genetic tests to drive clinical treatment,” Dr. Nurmi, a child and adolescent psychiatrist in the department of psychiatry and biobehavioral sciences at the University of California, Los Angeles, said during an annual psychopharmacology update held by the Nevada Psychiatric Association. “There’s a lot of hope and promise there. But currently, we only know the tip of the iceberg about how drugs work and the genetics influencing these effects. Current testing is probably a very poor reflection of the complexity of drug effects.”

According to Dr. Nurmi, there are at least 165 Food and Drug Administration–approved drugs with pharmacogenetic information on 64 different biomarkers – 37% with CYP p450 notations. Of these, 32 psychiatric drugs have pharmacogenetic information, and most of them are dosing recommendations based on whether a patient has the variant. However, there is wide public acceptance of genetic testing in preventing the wrong drug from being used, in selecting the best drug dose, and avoiding side effects (Pharmacogenomics 2012;12[3]:197-204). “Most people have a lot of hope [for genetic testing in psychiatry],” Dr. Nurmi said. “But is the science really there? It doesn’t matter, because these companies are doing it, and you are being shown these reports from patients. Whether or not the science supports it, we’re going to have to interpret these reports and explain them to our patients – even if we don’t order them.”

Currently, she continued, clinicians practice trial and error prescribing where they might try one treatment in a class that they think that will work based on previous literature. If nothing works, they try another one. If that’s intolerable, they try a third treatment, and so on. “When we finally find the right treatment, it can take some time to get the dosing right,” Dr. Nurmi said. “So, it can take many months to get a child on the right medication. Precision treatment, on the other hand, would start off by taking a saliva or blood sample to get a printout that lets physicians know which drugs might be used with caution because they might lack efficacy at standard doses, which ones would likely have adverse effects at standard doses, and which are the best choices and what are the dosing recommendations for those choices. If we could get all the information to guide us, that would be a useful product, but right now, we don’t know enough to be able to make these determinations.”

Current evidence-based genetic testing supports a limited role for CYP2D6 and CYP2C19 genotyping because most psychiatric drugs are metabolized by those two enzymes. Poor metabolizers have two dysfunctional copies of the enzyme-encoding gene. This results in increased drug plasma levels with a potentially increased rate of adverse effects.

“Intermediate and extensive metabolizers usually have a normal phenotype, but you can also have ultrarapid metabolizers who have duplications or other enhancing mutations of the CYP gene,” Dr. Nurmi said. “This can result in lower bioavailability and possibly efficacy. Psychiatrists treat poor metabolizers and ultrarapid metabolizers all the time, because the variants are very common.” An estimated 10% of White people are poor metabolizers at the CYP2D6 gene while about 7% are ultrarapid metabolizers. At the same time, an estimated 20% of Asians, Africans, and Whites are poor metabolizers at the CYP2C19 gene. “So, you’re seeing a lot of this in your practice, and you’re probably changing dosing based on genetic differences in metabolism,” she said.

The only FDA pharmacodynamic treatment guideline is for the risk of Stevens-Johnson syndrome (SJS) with the use of carbamazepine. In a study of 44 patients with SJS, all were positive for the HLA-B*1502 variant, compared with 3% of carbamazepine-tolerant patients (Nature 2004;428[6982]:486). The frequency of carrying this variant is an estimated 1:10,000 among Whites and 1:1,000 among Asians. In 2007, the FDA recommended that patients of Asian ancestry should be screened for HLA-B*1502 prior to starting carbamazepine.

Genetic variation also predicts clinical outcome with atomoxetine use. “Most child psychiatrists I know think atomoxetine doesn’t work as a second-line nonstimulant medication for ADHD,” Dr. Nurmi said. “I’d like to convince you that why you think it doesn’t work is because of the genetics.” In a study published in 2019, Dr. Nurmi and colleagues reviewed medical literature and provided therapeutic recommendations for atomoxetine therapy based on CYP2D6 genotype (Clin Pharmacol Ther 2019 Jul;106[1]:94-102). They observed 10- to 30-fold plasma differences in drug exposure between normal metabolizers and poor metabolizers.

“Poor metabolizers therefore get more benefit, but they are also going to get more side effects,” she said. “FDA recommended doses are inadequate for normal metabolizers, so they had to make guidelines based on poor metabolizers because there would be too much risk for them at higher doses. One-third of individuals require doses above the FDA limit to achieve a therapeutic drug level.”

Dr. Nurmi warned that the existing evidence base for using these genetic tests in children “is really poor. There is no data in adults with any diagnosis other than depression, and even those studies are plagued by concerns. When you’re implementing decision support tools in your practice, the key factors are patient presentation, history and symptoms, your clinical skills, the evidence base, FDA recommendations, and patient autonomy. Appropriate incorporation of genetic data should include avoiding a medication with high toxicity (like SJS), titration planning (dose and titration speed adjustments), and choosing between medications in the same class with an indication or evidence base for the target disorder.” She added that while the benefit of current genetic testing is limited, it may help some patients feel more comfortable tolerating a medication. “For example, being able to tell someone with anxiety that their genetics suggests that they will not have side effects could be very powerful,” she said.

In a 2018 safety communication, the FDA warned the public about its concerns with companies making claims about how to use genetic test results to manage medication treatments that are not supported by recommendations in the FDA-approved drug labeling or other scientific evidence. The American Academy of Child and Adolescent Psychiatry also published a guide for patients and families.

Dr. Nurmi disclosed that she is an unpaid advisory board member for Myriad Genetics and the Tourette Association of America, a paid adviser for Teva Pharmaceuticals, and a recipient of research support from Emalex Pharmaceuticals. She has received research funding from the National Institutes Health, the International OCD Foundation, the Tourette Association of America, and the Brain & Behavior Research Foundation.

LAS VEGAS – Someday, pharmacogenomics will advance precision psychiatry, but in the opinion of Erika L. Nurmi, MD, PhD, routine use of genetic testing to guide clinical treatment decisions is not indicated.

“It’s misleading to rely on results of genetic tests to drive clinical treatment,” Dr. Nurmi, a child and adolescent psychiatrist in the department of psychiatry and biobehavioral sciences at the University of California, Los Angeles, said during an annual psychopharmacology update held by the Nevada Psychiatric Association. “There’s a lot of hope and promise there. But currently, we only know the tip of the iceberg about how drugs work and the genetics influencing these effects. Current testing is probably a very poor reflection of the complexity of drug effects.”

According to Dr. Nurmi, there are at least 165 Food and Drug Administration–approved drugs with pharmacogenetic information on 64 different biomarkers – 37% with CYP p450 notations. Of these, 32 psychiatric drugs have pharmacogenetic information, and most of them are dosing recommendations based on whether a patient has the variant. However, there is wide public acceptance of genetic testing in preventing the wrong drug from being used, in selecting the best drug dose, and avoiding side effects (Pharmacogenomics 2012;12[3]:197-204). “Most people have a lot of hope [for genetic testing in psychiatry],” Dr. Nurmi said. “But is the science really there? It doesn’t matter, because these companies are doing it, and you are being shown these reports from patients. Whether or not the science supports it, we’re going to have to interpret these reports and explain them to our patients – even if we don’t order them.”

Currently, she continued, clinicians practice trial and error prescribing where they might try one treatment in a class that they think that will work based on previous literature. If nothing works, they try another one. If that’s intolerable, they try a third treatment, and so on. “When we finally find the right treatment, it can take some time to get the dosing right,” Dr. Nurmi said. “So, it can take many months to get a child on the right medication. Precision treatment, on the other hand, would start off by taking a saliva or blood sample to get a printout that lets physicians know which drugs might be used with caution because they might lack efficacy at standard doses, which ones would likely have adverse effects at standard doses, and which are the best choices and what are the dosing recommendations for those choices. If we could get all the information to guide us, that would be a useful product, but right now, we don’t know enough to be able to make these determinations.”

Current evidence-based genetic testing supports a limited role for CYP2D6 and CYP2C19 genotyping because most psychiatric drugs are metabolized by those two enzymes. Poor metabolizers have two dysfunctional copies of the enzyme-encoding gene. This results in increased drug plasma levels with a potentially increased rate of adverse effects.

“Intermediate and extensive metabolizers usually have a normal phenotype, but you can also have ultrarapid metabolizers who have duplications or other enhancing mutations of the CYP gene,” Dr. Nurmi said. “This can result in lower bioavailability and possibly efficacy. Psychiatrists treat poor metabolizers and ultrarapid metabolizers all the time, because the variants are very common.” An estimated 10% of White people are poor metabolizers at the CYP2D6 gene while about 7% are ultrarapid metabolizers. At the same time, an estimated 20% of Asians, Africans, and Whites are poor metabolizers at the CYP2C19 gene. “So, you’re seeing a lot of this in your practice, and you’re probably changing dosing based on genetic differences in metabolism,” she said.

The only FDA pharmacodynamic treatment guideline is for the risk of Stevens-Johnson syndrome (SJS) with the use of carbamazepine. In a study of 44 patients with SJS, all were positive for the HLA-B*1502 variant, compared with 3% of carbamazepine-tolerant patients (Nature 2004;428[6982]:486). The frequency of carrying this variant is an estimated 1:10,000 among Whites and 1:1,000 among Asians. In 2007, the FDA recommended that patients of Asian ancestry should be screened for HLA-B*1502 prior to starting carbamazepine.

Genetic variation also predicts clinical outcome with atomoxetine use. “Most child psychiatrists I know think atomoxetine doesn’t work as a second-line nonstimulant medication for ADHD,” Dr. Nurmi said. “I’d like to convince you that why you think it doesn’t work is because of the genetics.” In a study published in 2019, Dr. Nurmi and colleagues reviewed medical literature and provided therapeutic recommendations for atomoxetine therapy based on CYP2D6 genotype (Clin Pharmacol Ther 2019 Jul;106[1]:94-102). They observed 10- to 30-fold plasma differences in drug exposure between normal metabolizers and poor metabolizers.

“Poor metabolizers therefore get more benefit, but they are also going to get more side effects,” she said. “FDA recommended doses are inadequate for normal metabolizers, so they had to make guidelines based on poor metabolizers because there would be too much risk for them at higher doses. One-third of individuals require doses above the FDA limit to achieve a therapeutic drug level.”

Dr. Nurmi warned that the existing evidence base for using these genetic tests in children “is really poor. There is no data in adults with any diagnosis other than depression, and even those studies are plagued by concerns. When you’re implementing decision support tools in your practice, the key factors are patient presentation, history and symptoms, your clinical skills, the evidence base, FDA recommendations, and patient autonomy. Appropriate incorporation of genetic data should include avoiding a medication with high toxicity (like SJS), titration planning (dose and titration speed adjustments), and choosing between medications in the same class with an indication or evidence base for the target disorder.” She added that while the benefit of current genetic testing is limited, it may help some patients feel more comfortable tolerating a medication. “For example, being able to tell someone with anxiety that their genetics suggests that they will not have side effects could be very powerful,” she said.

In a 2018 safety communication, the FDA warned the public about its concerns with companies making claims about how to use genetic test results to manage medication treatments that are not supported by recommendations in the FDA-approved drug labeling or other scientific evidence. The American Academy of Child and Adolescent Psychiatry also published a guide for patients and families.

Dr. Nurmi disclosed that she is an unpaid advisory board member for Myriad Genetics and the Tourette Association of America, a paid adviser for Teva Pharmaceuticals, and a recipient of research support from Emalex Pharmaceuticals. She has received research funding from the National Institutes Health, the International OCD Foundation, the Tourette Association of America, and the Brain & Behavior Research Foundation.

“Living with diabetes is not smooth sailing…From the onset of the disease in a child or adolescent through all the days that follow, there is nothing ordinary about it,” according to Aide aux Jeunes Diabétiques (AJD), a French association providing support for children and adolescents with diabetes. What is the psychological impact of the disease on patients and their loved ones? When we look at the life of a person with diabetes, are there key stages that call for more focused attention?

Nadine Hoffmeister, a psychologist at AJD, offers support to patients with diabetes and their parents as they navigate and deal with in-patient treatment for the disease. She recently spoke with this news organization.

Q: Are psychological issues more prevalent in patients with type 1 diabetes (T1D) than in the general population?

Dr. Hoffmeister: Having a chronic disease is not something that should be viewed as automatically making the person more susceptible to psychological issues. When we think about kids with T1D, it’s important to keep in mind that the risk for depression and the risk for eating disorders are, in general, higher in adolescence.

Of course, it can’t be denied that having diabetes can make one more vulnerable to experiencing mental distress. Clearly, the risk for eating disorders is there, given the constant focus on managing one’s diet. And there’s a greater risk for depression, because life with diabetes can really be trying. That said, how much impact the disease has depends in large part on the environment, the monitoring, and the collaboration of everyone involved.
 

Q: Are there key stages in the life of patients with T1D that call for targeted psychological support? 

Dr. Hoffmeister: The thing about T1D is that it can affect anyone at any age – a small child, a teenager, a young adult. So, in that sense, all ‘firsts’ are key stages. They start, of course, with the first ‘first’: diagnosis. For children diagnosed at an early age, there’s the first day of nursery school or kindergarten, the first piece of birthday cake. Then we get to kids starting middle school and high school, places where they’re now left to their own devices. This is when, for the first time, they’ll have an opportunity to take a trip without their parents and siblings, to go to a party.

And then, there’s the first time using a particular treatment. For example, switching from injections to a pump requires not only an adjustment in terms of physically operating a new device, but a reorientation in terms of mentally settling into a new routine, a new way of administering medication, and so on. They have to learn how to get along with this machine that’s attached to them all the time. They have to view it as being a part of them, view it as a partner, a teammate, a friend. It’s not that easy.

Later on, one of the major stages is, of course, adolescence. Critical developments in the separation–individuation process are taking place. They start to feel the need to break free, to become autonomous, as they seek to fully come to terms with their disease.

Parents usually worry about this stage, adolescence. They’re scared that their child won’t be as vigilant, that they’ll be scatterbrained or careless when it comes to staying on top of all those things that need to be done to keep T1D under control. Most of the time, this stage goes better than they thought. Still, the fact remains that it’s difficult to find a happy medium between adolescence and diabetes. Indeed, there’s a bit of a paradox here. On the one hand, we have adolescence which, by definition, is a time of spontaneity, independence, of trying new things. On the other hand, we have diabetes and its limits and constraints, its care and treatment, day in and day out. We have to pay close attention to how the child navigates and makes their way through this stage of their life.

During adolescence, there’s also a heightened awareness and concern about how others look at you, see you – everywhere, not only in classrooms and hallways. If the way someone looks at them seems aggressive or intrusive, the child may start to feel scared. The risk then becomes that they’ll start feeling awkward or ashamed or embarrassed. We have to keep this in mind and help lead the child away from those feelings. Otherwise, they can end up with low self-esteem, they can start to withdraw.

It can sometimes get to the point where they choose to neglect their treatment so as to conform to the way others see them. Adults can easily lose sight of these kinds of things. So, it’s imperative that we talk to the child. If they’re having trouble following their treatment plan, maybe there’s something going on at school. So, let’s ask them: “How do you like your classes and teachers?” “How are you doing with your injections? Are you finding that they’re getting easier and easier to do?” And always keeping in mind the real possibility that the child may be feeling awkward, ashamed, embarrassed.
 

Q: Is enough being done to pick up on and address these children’s needs?

Dr. Hoffmeister: I think that these efforts are becoming more and more widespread. Still, there are disparities. When it comes to patients with chronic diseases, it’s not always easy to implement mental health care into the treatment plan. In some cases, there might not be a hospital nearby. And as we know, there are no spots available in medical and psychiatric centers. Of course, outside of hospital settings, we’re seeing the unfortunate situation of fewer and fewer middle schools and high schools having nurses on site.

And then, what options there are for getting support vary greatly from hospital to hospital. Some don’t have psychologists. Others have full schedules and not enough staff. That said, more and more teams are trying to set up regular appointments right from the time of diagnosis. This is a really good approach to take, even though the circumstances may not be ideal. After all, the person has just been told that they have diabetes; they’re not really in the best state of mind to have any kind of discussion.
 

Q: And so, it makes sense that AJD would offer the kind of mental health support that you’re now providing there.

Dr. Hoffmeister: Exactly. My position was created 4 years ago. I’m not at the hospital. I’m an external. The goal is to be able to offer this psychological support to everyone. I do consultations over the phone so that no matter where a person is in France, they’ll have access to this support. There’s great demand, and the requests are only increasing. I think this has to do with the fact that people are being diagnosed younger and younger. It’s a very complicated situation for the parents. No matter how young their child is, they want to get that support underway as soon as possible.

Q: You speak about the patients getting support. But doesn’t some kind of help have to be given to their parents and loved ones as well?

Dr. Hoffmeister: Yes. I’d say that 60% to 70% of the work I do at AJD is for parents. I also have some older adolescents and some younger kids whom I call to keep up with. But children aren’t very interested in discussing plans over the phone. For parents, the thing about diabetes is that they find themselves in these situations where their child is in the hospital for, say, a week, then is discharged, and all of a sudden, they find themselves at home as the ones in charge of their child’s treatment.

When it’s a little kid, the parents are the ones who are taking care of all the steps, the injections, the pumps. They’re dealing with the distress of a child going through episodes of nocturnal hypoglycemia. They’re experiencing varying degrees of anxiety in carrying out all of these responsibilities and, at the same time, the bond they have with their child is becoming stronger and stronger. So, there’s that anxiety. In this situation, parents may also feel a need for control. And they’re also feeling exhausted; the mental load of dealing with diabetes is very, very intense. To work through all this, many parents reach out for psychological support.

Then later on, when the child has gotten a little older, the parents find it difficult to get to the point of being able to just let go. But once the parents get to know their child better, get to know how their child experiences diabetes, they’ll get to that point. What they come to learn is that the child can take care of things, the child can feel what’s going on in their body, the child can be trusted.
 

Q: How can we help and support children with diabetes?

Dr. Hoffmeister: One of the most important things is to teach the child to come to terms with the disease and how it affects their body. In other words, the idea here is to adapt diabetes to one’s life, not the other way around. The goal is to not let diabetes take over.

When faced with standardized medical protocols, during a session with a psychologist, the child can talk about their life, give an idea of what a day in their life looks like. For example, the school cafeteria is a place where children get the opportunity to socialize and interact with their peers. We want to have that lunch period be as normal as possible for the child with diabetes. In some schools, lunchtime becomes a challenge. So, not seeing any other solution, mom stops working so the child can come home to eat. These are the kinds of situations where efforts to make the child feel included have failed. They’re tough to deal with, all around. And so this is why we do all we can to keep things as normal as possible for these children.
 

Q: What would you say is the one initiative out there that’s giving young patients with T1D the most help and support?

Dr. Hoffmeister: AJD offers stays at Care Management and Rehabilitation (SSR) sites. For kids and teenagers with diabetes, these places are like summer camps where every aspect of treatment is taken care of.

There’s a medical team monitoring their disease and a team of counselors always on hand. It’s a time when children may very well bring up things that are on their mind. All in all, the children have a safe and welcoming environment where treatment is provided and they can feel free to open up and talk.

If a problem crops up, I’m always on call to jump online. And throughout the stay, the medical team is keeping in touch to discuss the child’s care.

AJD is also an interdisciplinary association. We regularly organize practice exchange groups that bring together health care professionals and families from all over France. In this way, we’re able to collaborate and come up with resources, such as information packets and kits – for the newly diagnosed, for those starting intensive insulin therapy, and so on. These resources take into account medical protocols related to diabetes. They’re also designed with family life in mind. And having this set of resources works toward standardizing treatments.

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

“Living with diabetes is not smooth sailing…From the onset of the disease in a child or adolescent through all the days that follow, there is nothing ordinary about it,” according to Aide aux Jeunes Diabétiques (AJD), a French association providing support for children and adolescents with diabetes. What is the psychological impact of the disease on patients and their loved ones? When we look at the life of a person with diabetes, are there key stages that call for more focused attention?

Nadine Hoffmeister, a psychologist at AJD, offers support to patients with diabetes and their parents as they navigate and deal with in-patient treatment for the disease. She recently spoke with this news organization.

Q: Are psychological issues more prevalent in patients with type 1 diabetes (T1D) than in the general population?

Dr. Hoffmeister: Having a chronic disease is not something that should be viewed as automatically making the person more susceptible to psychological issues. When we think about kids with T1D, it’s important to keep in mind that the risk for depression and the risk for eating disorders are, in general, higher in adolescence.

Of course, it can’t be denied that having diabetes can make one more vulnerable to experiencing mental distress. Clearly, the risk for eating disorders is there, given the constant focus on managing one’s diet. And there’s a greater risk for depression, because life with diabetes can really be trying. That said, how much impact the disease has depends in large part on the environment, the monitoring, and the collaboration of everyone involved.
 

Q: Are there key stages in the life of patients with T1D that call for targeted psychological support? 

Dr. Hoffmeister: The thing about T1D is that it can affect anyone at any age – a small child, a teenager, a young adult. So, in that sense, all ‘firsts’ are key stages. They start, of course, with the first ‘first’: diagnosis. For children diagnosed at an early age, there’s the first day of nursery school or kindergarten, the first piece of birthday cake. Then we get to kids starting middle school and high school, places where they’re now left to their own devices. This is when, for the first time, they’ll have an opportunity to take a trip without their parents and siblings, to go to a party.

And then, there’s the first time using a particular treatment. For example, switching from injections to a pump requires not only an adjustment in terms of physically operating a new device, but a reorientation in terms of mentally settling into a new routine, a new way of administering medication, and so on. They have to learn how to get along with this machine that’s attached to them all the time. They have to view it as being a part of them, view it as a partner, a teammate, a friend. It’s not that easy.

Later on, one of the major stages is, of course, adolescence. Critical developments in the separation–individuation process are taking place. They start to feel the need to break free, to become autonomous, as they seek to fully come to terms with their disease.

Parents usually worry about this stage, adolescence. They’re scared that their child won’t be as vigilant, that they’ll be scatterbrained or careless when it comes to staying on top of all those things that need to be done to keep T1D under control. Most of the time, this stage goes better than they thought. Still, the fact remains that it’s difficult to find a happy medium between adolescence and diabetes. Indeed, there’s a bit of a paradox here. On the one hand, we have adolescence which, by definition, is a time of spontaneity, independence, of trying new things. On the other hand, we have diabetes and its limits and constraints, its care and treatment, day in and day out. We have to pay close attention to how the child navigates and makes their way through this stage of their life.

During adolescence, there’s also a heightened awareness and concern about how others look at you, see you – everywhere, not only in classrooms and hallways. If the way someone looks at them seems aggressive or intrusive, the child may start to feel scared. The risk then becomes that they’ll start feeling awkward or ashamed or embarrassed. We have to keep this in mind and help lead the child away from those feelings. Otherwise, they can end up with low self-esteem, they can start to withdraw.

It can sometimes get to the point where they choose to neglect their treatment so as to conform to the way others see them. Adults can easily lose sight of these kinds of things. So, it’s imperative that we talk to the child. If they’re having trouble following their treatment plan, maybe there’s something going on at school. So, let’s ask them: “How do you like your classes and teachers?” “How are you doing with your injections? Are you finding that they’re getting easier and easier to do?” And always keeping in mind the real possibility that the child may be feeling awkward, ashamed, embarrassed.
 

Q: Is enough being done to pick up on and address these children’s needs?

Dr. Hoffmeister: I think that these efforts are becoming more and more widespread. Still, there are disparities. When it comes to patients with chronic diseases, it’s not always easy to implement mental health care into the treatment plan. In some cases, there might not be a hospital nearby. And as we know, there are no spots available in medical and psychiatric centers. Of course, outside of hospital settings, we’re seeing the unfortunate situation of fewer and fewer middle schools and high schools having nurses on site.

And then, what options there are for getting support vary greatly from hospital to hospital. Some don’t have psychologists. Others have full schedules and not enough staff. That said, more and more teams are trying to set up regular appointments right from the time of diagnosis. This is a really good approach to take, even though the circumstances may not be ideal. After all, the person has just been told that they have diabetes; they’re not really in the best state of mind to have any kind of discussion.
 

Q: And so, it makes sense that AJD would offer the kind of mental health support that you’re now providing there.

Dr. Hoffmeister: Exactly. My position was created 4 years ago. I’m not at the hospital. I’m an external. The goal is to be able to offer this psychological support to everyone. I do consultations over the phone so that no matter where a person is in France, they’ll have access to this support. There’s great demand, and the requests are only increasing. I think this has to do with the fact that people are being diagnosed younger and younger. It’s a very complicated situation for the parents. No matter how young their child is, they want to get that support underway as soon as possible.

Q: You speak about the patients getting support. But doesn’t some kind of help have to be given to their parents and loved ones as well?

Dr. Hoffmeister: Yes. I’d say that 60% to 70% of the work I do at AJD is for parents. I also have some older adolescents and some younger kids whom I call to keep up with. But children aren’t very interested in discussing plans over the phone. For parents, the thing about diabetes is that they find themselves in these situations where their child is in the hospital for, say, a week, then is discharged, and all of a sudden, they find themselves at home as the ones in charge of their child’s treatment.

When it’s a little kid, the parents are the ones who are taking care of all the steps, the injections, the pumps. They’re dealing with the distress of a child going through episodes of nocturnal hypoglycemia. They’re experiencing varying degrees of anxiety in carrying out all of these responsibilities and, at the same time, the bond they have with their child is becoming stronger and stronger. So, there’s that anxiety. In this situation, parents may also feel a need for control. And they’re also feeling exhausted; the mental load of dealing with diabetes is very, very intense. To work through all this, many parents reach out for psychological support.

Then later on, when the child has gotten a little older, the parents find it difficult to get to the point of being able to just let go. But once the parents get to know their child better, get to know how their child experiences diabetes, they’ll get to that point. What they come to learn is that the child can take care of things, the child can feel what’s going on in their body, the child can be trusted.
 

Q: How can we help and support children with diabetes?

Dr. Hoffmeister: One of the most important things is to teach the child to come to terms with the disease and how it affects their body. In other words, the idea here is to adapt diabetes to one’s life, not the other way around. The goal is to not let diabetes take over.

When faced with standardized medical protocols, during a session with a psychologist, the child can talk about their life, give an idea of what a day in their life looks like. For example, the school cafeteria is a place where children get the opportunity to socialize and interact with their peers. We want to have that lunch period be as normal as possible for the child with diabetes. In some schools, lunchtime becomes a challenge. So, not seeing any other solution, mom stops working so the child can come home to eat. These are the kinds of situations where efforts to make the child feel included have failed. They’re tough to deal with, all around. And so this is why we do all we can to keep things as normal as possible for these children.
 

Q: What would you say is the one initiative out there that’s giving young patients with T1D the most help and support?

Dr. Hoffmeister: AJD offers stays at Care Management and Rehabilitation (SSR) sites. For kids and teenagers with diabetes, these places are like summer camps where every aspect of treatment is taken care of.

There’s a medical team monitoring their disease and a team of counselors always on hand. It’s a time when children may very well bring up things that are on their mind. All in all, the children have a safe and welcoming environment where treatment is provided and they can feel free to open up and talk.

If a problem crops up, I’m always on call to jump online. And throughout the stay, the medical team is keeping in touch to discuss the child’s care.

AJD is also an interdisciplinary association. We regularly organize practice exchange groups that bring together health care professionals and families from all over France. In this way, we’re able to collaborate and come up with resources, such as information packets and kits – for the newly diagnosed, for those starting intensive insulin therapy, and so on. These resources take into account medical protocols related to diabetes. They’re also designed with family life in mind. And having this set of resources works toward standardizing treatments.

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

“Living with diabetes is not smooth sailing…From the onset of the disease in a child or adolescent through all the days that follow, there is nothing ordinary about it,” according to Aide aux Jeunes Diabétiques (AJD), a French association providing support for children and adolescents with diabetes. What is the psychological impact of the disease on patients and their loved ones? When we look at the life of a person with diabetes, are there key stages that call for more focused attention?

Nadine Hoffmeister, a psychologist at AJD, offers support to patients with diabetes and their parents as they navigate and deal with in-patient treatment for the disease. She recently spoke with this news organization.

Q: Are psychological issues more prevalent in patients with type 1 diabetes (T1D) than in the general population?

Dr. Hoffmeister: Having a chronic disease is not something that should be viewed as automatically making the person more susceptible to psychological issues. When we think about kids with T1D, it’s important to keep in mind that the risk for depression and the risk for eating disorders are, in general, higher in adolescence.

Of course, it can’t be denied that having diabetes can make one more vulnerable to experiencing mental distress. Clearly, the risk for eating disorders is there, given the constant focus on managing one’s diet. And there’s a greater risk for depression, because life with diabetes can really be trying. That said, how much impact the disease has depends in large part on the environment, the monitoring, and the collaboration of everyone involved.
 

Q: Are there key stages in the life of patients with T1D that call for targeted psychological support? 

Dr. Hoffmeister: The thing about T1D is that it can affect anyone at any age – a small child, a teenager, a young adult. So, in that sense, all ‘firsts’ are key stages. They start, of course, with the first ‘first’: diagnosis. For children diagnosed at an early age, there’s the first day of nursery school or kindergarten, the first piece of birthday cake. Then we get to kids starting middle school and high school, places where they’re now left to their own devices. This is when, for the first time, they’ll have an opportunity to take a trip without their parents and siblings, to go to a party.

And then, there’s the first time using a particular treatment. For example, switching from injections to a pump requires not only an adjustment in terms of physically operating a new device, but a reorientation in terms of mentally settling into a new routine, a new way of administering medication, and so on. They have to learn how to get along with this machine that’s attached to them all the time. They have to view it as being a part of them, view it as a partner, a teammate, a friend. It’s not that easy.

Later on, one of the major stages is, of course, adolescence. Critical developments in the separation–individuation process are taking place. They start to feel the need to break free, to become autonomous, as they seek to fully come to terms with their disease.

Parents usually worry about this stage, adolescence. They’re scared that their child won’t be as vigilant, that they’ll be scatterbrained or careless when it comes to staying on top of all those things that need to be done to keep T1D under control. Most of the time, this stage goes better than they thought. Still, the fact remains that it’s difficult to find a happy medium between adolescence and diabetes. Indeed, there’s a bit of a paradox here. On the one hand, we have adolescence which, by definition, is a time of spontaneity, independence, of trying new things. On the other hand, we have diabetes and its limits and constraints, its care and treatment, day in and day out. We have to pay close attention to how the child navigates and makes their way through this stage of their life.

During adolescence, there’s also a heightened awareness and concern about how others look at you, see you – everywhere, not only in classrooms and hallways. If the way someone looks at them seems aggressive or intrusive, the child may start to feel scared. The risk then becomes that they’ll start feeling awkward or ashamed or embarrassed. We have to keep this in mind and help lead the child away from those feelings. Otherwise, they can end up with low self-esteem, they can start to withdraw.

It can sometimes get to the point where they choose to neglect their treatment so as to conform to the way others see them. Adults can easily lose sight of these kinds of things. So, it’s imperative that we talk to the child. If they’re having trouble following their treatment plan, maybe there’s something going on at school. So, let’s ask them: “How do you like your classes and teachers?” “How are you doing with your injections? Are you finding that they’re getting easier and easier to do?” And always keeping in mind the real possibility that the child may be feeling awkward, ashamed, embarrassed.
 

Q: Is enough being done to pick up on and address these children’s needs?

Dr. Hoffmeister: I think that these efforts are becoming more and more widespread. Still, there are disparities. When it comes to patients with chronic diseases, it’s not always easy to implement mental health care into the treatment plan. In some cases, there might not be a hospital nearby. And as we know, there are no spots available in medical and psychiatric centers. Of course, outside of hospital settings, we’re seeing the unfortunate situation of fewer and fewer middle schools and high schools having nurses on site.

And then, what options there are for getting support vary greatly from hospital to hospital. Some don’t have psychologists. Others have full schedules and not enough staff. That said, more and more teams are trying to set up regular appointments right from the time of diagnosis. This is a really good approach to take, even though the circumstances may not be ideal. After all, the person has just been told that they have diabetes; they’re not really in the best state of mind to have any kind of discussion.
 

Q: And so, it makes sense that AJD would offer the kind of mental health support that you’re now providing there.

Dr. Hoffmeister: Exactly. My position was created 4 years ago. I’m not at the hospital. I’m an external. The goal is to be able to offer this psychological support to everyone. I do consultations over the phone so that no matter where a person is in France, they’ll have access to this support. There’s great demand, and the requests are only increasing. I think this has to do with the fact that people are being diagnosed younger and younger. It’s a very complicated situation for the parents. No matter how young their child is, they want to get that support underway as soon as possible.

Q: You speak about the patients getting support. But doesn’t some kind of help have to be given to their parents and loved ones as well?

Dr. Hoffmeister: Yes. I’d say that 60% to 70% of the work I do at AJD is for parents. I also have some older adolescents and some younger kids whom I call to keep up with. But children aren’t very interested in discussing plans over the phone. For parents, the thing about diabetes is that they find themselves in these situations where their child is in the hospital for, say, a week, then is discharged, and all of a sudden, they find themselves at home as the ones in charge of their child’s treatment.

When it’s a little kid, the parents are the ones who are taking care of all the steps, the injections, the pumps. They’re dealing with the distress of a child going through episodes of nocturnal hypoglycemia. They’re experiencing varying degrees of anxiety in carrying out all of these responsibilities and, at the same time, the bond they have with their child is becoming stronger and stronger. So, there’s that anxiety. In this situation, parents may also feel a need for control. And they’re also feeling exhausted; the mental load of dealing with diabetes is very, very intense. To work through all this, many parents reach out for psychological support.

Then later on, when the child has gotten a little older, the parents find it difficult to get to the point of being able to just let go. But once the parents get to know their child better, get to know how their child experiences diabetes, they’ll get to that point. What they come to learn is that the child can take care of things, the child can feel what’s going on in their body, the child can be trusted.
 

Q: How can we help and support children with diabetes?

Dr. Hoffmeister: One of the most important things is to teach the child to come to terms with the disease and how it affects their body. In other words, the idea here is to adapt diabetes to one’s life, not the other way around. The goal is to not let diabetes take over.

When faced with standardized medical protocols, during a session with a psychologist, the child can talk about their life, give an idea of what a day in their life looks like. For example, the school cafeteria is a place where children get the opportunity to socialize and interact with their peers. We want to have that lunch period be as normal as possible for the child with diabetes. In some schools, lunchtime becomes a challenge. So, not seeing any other solution, mom stops working so the child can come home to eat. These are the kinds of situations where efforts to make the child feel included have failed. They’re tough to deal with, all around. And so this is why we do all we can to keep things as normal as possible for these children.
 

Q: What would you say is the one initiative out there that’s giving young patients with T1D the most help and support?

Dr. Hoffmeister: AJD offers stays at Care Management and Rehabilitation (SSR) sites. For kids and teenagers with diabetes, these places are like summer camps where every aspect of treatment is taken care of.

There’s a medical team monitoring their disease and a team of counselors always on hand. It’s a time when children may very well bring up things that are on their mind. All in all, the children have a safe and welcoming environment where treatment is provided and they can feel free to open up and talk.

If a problem crops up, I’m always on call to jump online. And throughout the stay, the medical team is keeping in touch to discuss the child’s care.

AJD is also an interdisciplinary association. We regularly organize practice exchange groups that bring together health care professionals and families from all over France. In this way, we’re able to collaborate and come up with resources, such as information packets and kits – for the newly diagnosed, for those starting intensive insulin therapy, and so on. These resources take into account medical protocols related to diabetes. They’re also designed with family life in mind. And having this set of resources works toward standardizing treatments.

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

Children who survive an episode of acute respiratory failure that requires invasive mechanical ventilation may be at risk for slightly lower long-term neurocognitive function, new research suggests.

Investigators found lower IQs in children without previous neurocognitive problems who survived pediatric intensive care unit admission for acute respiratory failure, compared with their biological siblings.

Although this magnitude of difference was small on average, more than twice as many patients as siblings had an IQ of ≤85, and children hospitalized at the youngest ages did worse than their siblings.

“Children surviving acute respiratory failure may benefit from routine evaluation of neurocognitive function after hospital discharge and may require serial evaluation to identify deficits that emerge over the course of child’s continued development to facilitate early intervention to prevent disability and optimize school performance,” study investigator R. Scott Watson, MD, MPH, professor of pediatrics, University of Washington, Seattle, told this news organization.

The study was published online March 1 in JAMA.
 

Unknown long-term effects

“Approximately 23,700 U.S. children undergo invasive mechanical ventilation for acute respiratory failure annually, with unknown long-term effects on neurocognitive function,” the authors write.

“With improvements in pediatric critical care over the past several decades, critical illness–associated mortality has improved dramatically [but] as survivorship has increased, we are starting to learn that many patients and their families suffer from long-term morbidity associated with the illness and its treatment,” said Dr. Watson, who is the associate division chief, pediatric critical care medicine, Seattle Children’s Hospital, Center for Child Health, Behavior, and Development.

Animal studies “have found that some sedative medications commonly used to keep children safe during mechanical ventilation may have detrimental neurologic effects, particularly in the developing brain,” Dr. Watson added.

To gain a better understanding of this potential association, the researchers turned to a subset of participants in the previously conducted Randomized Evaluation of Sedation Titration for Respiratory Failure (RESTORE) trial of pediatric patients receiving mechanical ventilation for acute respiratory failure.

For the current study (RESTORE-Cognition), multiple domains of neurocognitive function were assessed 3-8 years after hospital discharge in trial patients who did not have a history of neurocognitive dysfunction, as well as matched, healthy siblings.

To be included in the study, the children had to be ≤8 years old at trial enrollment, have a Pediatric Cerebral Performance Category (PCPC) score of 1 (normal) prior to PICU admission, and have no worse than moderate neurocognitive dysfunction at PICU discharge.

Siblings of enrolled patients were required to be between 4 and 16 years old at the time of neurocognitive testing, have a PCPC score of 1, have the same biological parents as the patient, and live with the patient.

The primary outcome was IQ, estimated by the age-appropriate Vocabulary and Block Design subtests of the Wechsler Intelligence Scale. Secondary outcomes included attention, processing speed, learning and memory, visuospatial skills, motor skills, language, and executive function. Enough time was allowed after hospitalization “for transient deficits to resolve and longer-lasting neurocognitive sequelae to manifest.”
 

‘Uncertain’ clinical importance

Of the 121 sibling pairs (67% non-Hispanic White, 47% from families in which one or both parents worked full-time), 116 were included in the primary outcome analysis, and 66-19 were included in analyses of secondary outcomes.

Patients had been in the PICU at a median (interquartile range [IQR]) age of 1.0 (0.2-3.2) years and had received a median of 5.5 (3.1-7.7) days of invasive mechanical ventilation.

The median age at testing for patients and matched siblings was 6.6 (5.4-9.1) and 8.4 (7.0-10.2) years, respectively. Interviews with parents and testing of patients were conducted a median (IQR) of 3.8 (3.2-5.2) and 5.2 (4.3-6.1) years, respectively, after hospitalization.

The most common etiologies of respiratory failure were bronchiolitis and asthma and pneumonia (44% and 37%, respectively). Beyond respiratory failure, most patients (72%) also had experienced multiple organ dysfunction syndrome.

Patients had a lower mean estimated IQ, compared with the matched siblings (101.5 vs. 104.3; mean difference, –2.8 [95% confidence interval, –5.4 to –0.2]), and more patients than siblings had an estimated IQ of ≤5 but not of ≤70.

Patients also had significantly lower scores on nonverbal memory, visuospatial skills, and fine motor control (mean differences, –0.9 [–1.6 to –0.3]; –0.9 [–1.8 to –.1]; and –-3.1 [–4.9 to –1.4], respectively), compared with matched siblings. They also had significantly higher scores on processing speed (mean difference, 4.4 [0.2-8.5]). There were no significant differences in the other secondary outcomes.

Differences in scores between patients and siblings varied significantly by age at hospitalization in several tests – for example, Block Design scores in patients were lower than those of siblings for patients hospitalized at <1 year old, versus those hospitalized between ages 4 and 8 years.

“When adjusting for patient age at PICU admission, patient age at testing, sibling age at testing, and duration between hospital discharge and testing, the difference in estimated IQ between patients and siblings remained statistically significantly different,” the authors note.

The investigators point out several limitations, including the fact that “little is known about sibling outcomes after critical illness, nor about whether parenting of siblings or child development differs based on birth order or on relationship between patient critical illness and the birth of siblings. ... If siblings also incur negative effects related to the critical illness, differences between critically ill children and the control siblings would be blunted.”

Despite the statistical significance of the difference between the patients and the matched controls, ultimately, the magnitude of the difference was “small and of uncertain clinical importance,” the authors conclude.
 

Filling a research gap

Commenting on the findings, Alexandre T. Rotta, MD, professor of pediatrics and chief of the division of pediatric critical care medicine, Duke University Medical Center, Durham, N.C., said the study “addresses an important yet vastly understudied gap: long-term neurocognitive morbidity in children exposed to critical care.”

Dr. Rotta, who is also a coauthor of an accompanying editorial, noted that the fact that the “vast majority of children with an IQ significantly lower than their siblings were under the age of 4 years suggests that the developing immature brain may be particularly susceptible to the effects of critical illness and therapies required to treat it.”

The study “underscores the need to include assessments of long-term morbidity as part of any future trial evaluating interventions in pediatric critical care,” he added.

The study was supported by grants from the Eunice Kennedy Shriver National Institute of Child Health and Human Development for RESTORE-Cognition and by grants for the RESTORE trial from the National Heart, Lung, and Blood Institute and the National Institute of Nursing Research, National Institutes of Health. Dr. Watson and coauthors report no relevant financial relationships. Dr. Rotta has received personal fees from Vapotherm for lecturing and development of educational materials and from Breas US for participation in a scientific advisory board, as well as royalties from Elsevier for editorial work outside the submitted work. His coauthor reports no relevant financial relationships.

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

Children who survive an episode of acute respiratory failure that requires invasive mechanical ventilation may be at risk for slightly lower long-term neurocognitive function, new research suggests.

Investigators found lower IQs in children without previous neurocognitive problems who survived pediatric intensive care unit admission for acute respiratory failure, compared with their biological siblings.

Although this magnitude of difference was small on average, more than twice as many patients as siblings had an IQ of ≤85, and children hospitalized at the youngest ages did worse than their siblings.

“Children surviving acute respiratory failure may benefit from routine evaluation of neurocognitive function after hospital discharge and may require serial evaluation to identify deficits that emerge over the course of child’s continued development to facilitate early intervention to prevent disability and optimize school performance,” study investigator R. Scott Watson, MD, MPH, professor of pediatrics, University of Washington, Seattle, told this news organization.

The study was published online March 1 in JAMA.
 

Unknown long-term effects

“Approximately 23,700 U.S. children undergo invasive mechanical ventilation for acute respiratory failure annually, with unknown long-term effects on neurocognitive function,” the authors write.

“With improvements in pediatric critical care over the past several decades, critical illness–associated mortality has improved dramatically [but] as survivorship has increased, we are starting to learn that many patients and their families suffer from long-term morbidity associated with the illness and its treatment,” said Dr. Watson, who is the associate division chief, pediatric critical care medicine, Seattle Children’s Hospital, Center for Child Health, Behavior, and Development.

Animal studies “have found that some sedative medications commonly used to keep children safe during mechanical ventilation may have detrimental neurologic effects, particularly in the developing brain,” Dr. Watson added.

To gain a better understanding of this potential association, the researchers turned to a subset of participants in the previously conducted Randomized Evaluation of Sedation Titration for Respiratory Failure (RESTORE) trial of pediatric patients receiving mechanical ventilation for acute respiratory failure.

For the current study (RESTORE-Cognition), multiple domains of neurocognitive function were assessed 3-8 years after hospital discharge in trial patients who did not have a history of neurocognitive dysfunction, as well as matched, healthy siblings.

To be included in the study, the children had to be ≤8 years old at trial enrollment, have a Pediatric Cerebral Performance Category (PCPC) score of 1 (normal) prior to PICU admission, and have no worse than moderate neurocognitive dysfunction at PICU discharge.

Siblings of enrolled patients were required to be between 4 and 16 years old at the time of neurocognitive testing, have a PCPC score of 1, have the same biological parents as the patient, and live with the patient.

The primary outcome was IQ, estimated by the age-appropriate Vocabulary and Block Design subtests of the Wechsler Intelligence Scale. Secondary outcomes included attention, processing speed, learning and memory, visuospatial skills, motor skills, language, and executive function. Enough time was allowed after hospitalization “for transient deficits to resolve and longer-lasting neurocognitive sequelae to manifest.”
 

‘Uncertain’ clinical importance

Of the 121 sibling pairs (67% non-Hispanic White, 47% from families in which one or both parents worked full-time), 116 were included in the primary outcome analysis, and 66-19 were included in analyses of secondary outcomes.

Patients had been in the PICU at a median (interquartile range [IQR]) age of 1.0 (0.2-3.2) years and had received a median of 5.5 (3.1-7.7) days of invasive mechanical ventilation.

The median age at testing for patients and matched siblings was 6.6 (5.4-9.1) and 8.4 (7.0-10.2) years, respectively. Interviews with parents and testing of patients were conducted a median (IQR) of 3.8 (3.2-5.2) and 5.2 (4.3-6.1) years, respectively, after hospitalization.

The most common etiologies of respiratory failure were bronchiolitis and asthma and pneumonia (44% and 37%, respectively). Beyond respiratory failure, most patients (72%) also had experienced multiple organ dysfunction syndrome.

Patients had a lower mean estimated IQ, compared with the matched siblings (101.5 vs. 104.3; mean difference, –2.8 [95% confidence interval, –5.4 to –0.2]), and more patients than siblings had an estimated IQ of ≤5 but not of ≤70.

Patients also had significantly lower scores on nonverbal memory, visuospatial skills, and fine motor control (mean differences, –0.9 [–1.6 to –0.3]; –0.9 [–1.8 to –.1]; and –-3.1 [–4.9 to –1.4], respectively), compared with matched siblings. They also had significantly higher scores on processing speed (mean difference, 4.4 [0.2-8.5]). There were no significant differences in the other secondary outcomes.

Differences in scores between patients and siblings varied significantly by age at hospitalization in several tests – for example, Block Design scores in patients were lower than those of siblings for patients hospitalized at <1 year old, versus those hospitalized between ages 4 and 8 years.

“When adjusting for patient age at PICU admission, patient age at testing, sibling age at testing, and duration between hospital discharge and testing, the difference in estimated IQ between patients and siblings remained statistically significantly different,” the authors note.

The investigators point out several limitations, including the fact that “little is known about sibling outcomes after critical illness, nor about whether parenting of siblings or child development differs based on birth order or on relationship between patient critical illness and the birth of siblings. ... If siblings also incur negative effects related to the critical illness, differences between critically ill children and the control siblings would be blunted.”

Despite the statistical significance of the difference between the patients and the matched controls, ultimately, the magnitude of the difference was “small and of uncertain clinical importance,” the authors conclude.
 

Filling a research gap

Commenting on the findings, Alexandre T. Rotta, MD, professor of pediatrics and chief of the division of pediatric critical care medicine, Duke University Medical Center, Durham, N.C., said the study “addresses an important yet vastly understudied gap: long-term neurocognitive morbidity in children exposed to critical care.”

Dr. Rotta, who is also a coauthor of an accompanying editorial, noted that the fact that the “vast majority of children with an IQ significantly lower than their siblings were under the age of 4 years suggests that the developing immature brain may be particularly susceptible to the effects of critical illness and therapies required to treat it.”

The study “underscores the need to include assessments of long-term morbidity as part of any future trial evaluating interventions in pediatric critical care,” he added.

The study was supported by grants from the Eunice Kennedy Shriver National Institute of Child Health and Human Development for RESTORE-Cognition and by grants for the RESTORE trial from the National Heart, Lung, and Blood Institute and the National Institute of Nursing Research, National Institutes of Health. Dr. Watson and coauthors report no relevant financial relationships. Dr. Rotta has received personal fees from Vapotherm for lecturing and development of educational materials and from Breas US for participation in a scientific advisory board, as well as royalties from Elsevier for editorial work outside the submitted work. His coauthor reports no relevant financial relationships.

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

Children who survive an episode of acute respiratory failure that requires invasive mechanical ventilation may be at risk for slightly lower long-term neurocognitive function, new research suggests.

Investigators found lower IQs in children without previous neurocognitive problems who survived pediatric intensive care unit admission for acute respiratory failure, compared with their biological siblings.

Although this magnitude of difference was small on average, more than twice as many patients as siblings had an IQ of ≤85, and children hospitalized at the youngest ages did worse than their siblings.

“Children surviving acute respiratory failure may benefit from routine evaluation of neurocognitive function after hospital discharge and may require serial evaluation to identify deficits that emerge over the course of child’s continued development to facilitate early intervention to prevent disability and optimize school performance,” study investigator R. Scott Watson, MD, MPH, professor of pediatrics, University of Washington, Seattle, told this news organization.

The study was published online March 1 in JAMA.
 

Unknown long-term effects

“Approximately 23,700 U.S. children undergo invasive mechanical ventilation for acute respiratory failure annually, with unknown long-term effects on neurocognitive function,” the authors write.

“With improvements in pediatric critical care over the past several decades, critical illness–associated mortality has improved dramatically [but] as survivorship has increased, we are starting to learn that many patients and their families suffer from long-term morbidity associated with the illness and its treatment,” said Dr. Watson, who is the associate division chief, pediatric critical care medicine, Seattle Children’s Hospital, Center for Child Health, Behavior, and Development.

Animal studies “have found that some sedative medications commonly used to keep children safe during mechanical ventilation may have detrimental neurologic effects, particularly in the developing brain,” Dr. Watson added.

To gain a better understanding of this potential association, the researchers turned to a subset of participants in the previously conducted Randomized Evaluation of Sedation Titration for Respiratory Failure (RESTORE) trial of pediatric patients receiving mechanical ventilation for acute respiratory failure.

For the current study (RESTORE-Cognition), multiple domains of neurocognitive function were assessed 3-8 years after hospital discharge in trial patients who did not have a history of neurocognitive dysfunction, as well as matched, healthy siblings.

To be included in the study, the children had to be ≤8 years old at trial enrollment, have a Pediatric Cerebral Performance Category (PCPC) score of 1 (normal) prior to PICU admission, and have no worse than moderate neurocognitive dysfunction at PICU discharge.

Siblings of enrolled patients were required to be between 4 and 16 years old at the time of neurocognitive testing, have a PCPC score of 1, have the same biological parents as the patient, and live with the patient.

The primary outcome was IQ, estimated by the age-appropriate Vocabulary and Block Design subtests of the Wechsler Intelligence Scale. Secondary outcomes included attention, processing speed, learning and memory, visuospatial skills, motor skills, language, and executive function. Enough time was allowed after hospitalization “for transient deficits to resolve and longer-lasting neurocognitive sequelae to manifest.”
 

‘Uncertain’ clinical importance

Of the 121 sibling pairs (67% non-Hispanic White, 47% from families in which one or both parents worked full-time), 116 were included in the primary outcome analysis, and 66-19 were included in analyses of secondary outcomes.

Patients had been in the PICU at a median (interquartile range [IQR]) age of 1.0 (0.2-3.2) years and had received a median of 5.5 (3.1-7.7) days of invasive mechanical ventilation.

The median age at testing for patients and matched siblings was 6.6 (5.4-9.1) and 8.4 (7.0-10.2) years, respectively. Interviews with parents and testing of patients were conducted a median (IQR) of 3.8 (3.2-5.2) and 5.2 (4.3-6.1) years, respectively, after hospitalization.

The most common etiologies of respiratory failure were bronchiolitis and asthma and pneumonia (44% and 37%, respectively). Beyond respiratory failure, most patients (72%) also had experienced multiple organ dysfunction syndrome.

Patients had a lower mean estimated IQ, compared with the matched siblings (101.5 vs. 104.3; mean difference, –2.8 [95% confidence interval, –5.4 to –0.2]), and more patients than siblings had an estimated IQ of ≤5 but not of ≤70.

Patients also had significantly lower scores on nonverbal memory, visuospatial skills, and fine motor control (mean differences, –0.9 [–1.6 to –0.3]; –0.9 [–1.8 to –.1]; and –-3.1 [–4.9 to –1.4], respectively), compared with matched siblings. They also had significantly higher scores on processing speed (mean difference, 4.4 [0.2-8.5]). There were no significant differences in the other secondary outcomes.

Differences in scores between patients and siblings varied significantly by age at hospitalization in several tests – for example, Block Design scores in patients were lower than those of siblings for patients hospitalized at <1 year old, versus those hospitalized between ages 4 and 8 years.

“When adjusting for patient age at PICU admission, patient age at testing, sibling age at testing, and duration between hospital discharge and testing, the difference in estimated IQ between patients and siblings remained statistically significantly different,” the authors note.

The investigators point out several limitations, including the fact that “little is known about sibling outcomes after critical illness, nor about whether parenting of siblings or child development differs based on birth order or on relationship between patient critical illness and the birth of siblings. ... If siblings also incur negative effects related to the critical illness, differences between critically ill children and the control siblings would be blunted.”

Despite the statistical significance of the difference between the patients and the matched controls, ultimately, the magnitude of the difference was “small and of uncertain clinical importance,” the authors conclude.
 

Filling a research gap

Commenting on the findings, Alexandre T. Rotta, MD, professor of pediatrics and chief of the division of pediatric critical care medicine, Duke University Medical Center, Durham, N.C., said the study “addresses an important yet vastly understudied gap: long-term neurocognitive morbidity in children exposed to critical care.”

Dr. Rotta, who is also a coauthor of an accompanying editorial, noted that the fact that the “vast majority of children with an IQ significantly lower than their siblings were under the age of 4 years suggests that the developing immature brain may be particularly susceptible to the effects of critical illness and therapies required to treat it.”

The study “underscores the need to include assessments of long-term morbidity as part of any future trial evaluating interventions in pediatric critical care,” he added.

The study was supported by grants from the Eunice Kennedy Shriver National Institute of Child Health and Human Development for RESTORE-Cognition and by grants for the RESTORE trial from the National Heart, Lung, and Blood Institute and the National Institute of Nursing Research, National Institutes of Health. Dr. Watson and coauthors report no relevant financial relationships. Dr. Rotta has received personal fees from Vapotherm for lecturing and development of educational materials and from Breas US for participation in a scientific advisory board, as well as royalties from Elsevier for editorial work outside the submitted work. His coauthor reports no relevant financial relationships.

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