Pediatrics

The Food and Drug Administration has cleared the Tandem Mobi insulin pump for people with diabetes aged 6 years or older.

The product is half the size of the company’s t:slim X2 and is now the smallest of the commercially available durable tubed pumps. It is fully controllable from a mobile app through a user’s compatible iPhone.

Features of the Mobi include a 200-unit insulin cartridge and an on-pump button that can be used instead of the phone for bolusing insulin. The device can be clipped to clothing or worn on-body with an adhesive sleeve that is sold separately.

The Mobi is compatible with all existing Tandem-branded infusion sets manufactured by the Convatec Group, and there is a new 5-inch tubing option made just for the Tandem Mobi.

The Mobi is part of a hybrid-closed loop automated delivery system, along with the current Control-IQ technology and a compatible continuous glucose monitor (CGM). The CGM sensor predicts glucose values 30 minutes ahead and adjusts insulin delivery every 5 minutes to prevent highs and lows. Users must still manually bolus for meals. The system can deliver automatic correction boluses for up to 1 hour to prevent hyperglycemia.

Limited release of the Tandem Mobi is expected in late 2023, followed by full commercial availability in early 2024.
 

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

The Food and Drug Administration has cleared the Tandem Mobi insulin pump for people with diabetes aged 6 years or older.

The product is half the size of the company’s t:slim X2 and is now the smallest of the commercially available durable tubed pumps. It is fully controllable from a mobile app through a user’s compatible iPhone.

Features of the Mobi include a 200-unit insulin cartridge and an on-pump button that can be used instead of the phone for bolusing insulin. The device can be clipped to clothing or worn on-body with an adhesive sleeve that is sold separately.

The Mobi is compatible with all existing Tandem-branded infusion sets manufactured by the Convatec Group, and there is a new 5-inch tubing option made just for the Tandem Mobi.

The Mobi is part of a hybrid-closed loop automated delivery system, along with the current Control-IQ technology and a compatible continuous glucose monitor (CGM). The CGM sensor predicts glucose values 30 minutes ahead and adjusts insulin delivery every 5 minutes to prevent highs and lows. Users must still manually bolus for meals. The system can deliver automatic correction boluses for up to 1 hour to prevent hyperglycemia.

Limited release of the Tandem Mobi is expected in late 2023, followed by full commercial availability in early 2024.
 

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

The Food and Drug Administration has cleared the Tandem Mobi insulin pump for people with diabetes aged 6 years or older.

The product is half the size of the company’s t:slim X2 and is now the smallest of the commercially available durable tubed pumps. It is fully controllable from a mobile app through a user’s compatible iPhone.

Features of the Mobi include a 200-unit insulin cartridge and an on-pump button that can be used instead of the phone for bolusing insulin. The device can be clipped to clothing or worn on-body with an adhesive sleeve that is sold separately.

The Mobi is compatible with all existing Tandem-branded infusion sets manufactured by the Convatec Group, and there is a new 5-inch tubing option made just for the Tandem Mobi.

The Mobi is part of a hybrid-closed loop automated delivery system, along with the current Control-IQ technology and a compatible continuous glucose monitor (CGM). The CGM sensor predicts glucose values 30 minutes ahead and adjusts insulin delivery every 5 minutes to prevent highs and lows. Users must still manually bolus for meals. The system can deliver automatic correction boluses for up to 1 hour to prevent hyperglycemia.

Limited release of the Tandem Mobi is expected in late 2023, followed by full commercial availability in early 2024.
 

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

For understanding the evolution in child neurology over the past 30 years, it would make sense to start with the science, particularly genetics, that have led to treatments and even cures for numerous inherited diseases over that time. When John Bodensteiner, MD, a pillar in the field of child neurology, was asked, he started with something different.

Parent advocacy accelerates advances in rare pediatric diseases

For the progress in many of the rare diseases seen by child neurologists in the last few decades, Dr. Bodensteiner first acknowledged parent support. “The concept was simple initially. For so many of these relatively rare diseases, like the Rett and Sturge-Weber syndromes, parents were learning of them for the first time. The support groups helped parents understand they were not alone. But it then evolved,” recalled Dr. Bodensteiner, who has been a professor of pediatrics and neurology at numerous institutions, most recently the Mayo Clinic in Rochester, Minn.

Many of these support groups first formed, or at least gained momentum, in the 1990s. “As the support groups grew, the members expanded their role to support research, in addition to supporting each other. They ended up volunteering their own data, providing more information about the epidemiology and disease course. They offered tissue samples for experimental studies. They enrolled their children in trials. And they raised funds,” Dr. Bodensteiner explained.

The impact of this advocacy has been enormous, according to Dr. Bodensteiner. As an expert in neuromuscular diseases, he worked directly with several of these groups.

Although the growth in parent advocacy took place in parallel with major advances in genetics that were driving new insights into disease pathophysiology, Dr. Bodensteiner characterized parent advocates as important partners in accelerating the transition of new information to clinical utility. He suggested that there is little doubt about the importance of their role in moving the science forward by drawing attention to rare disorders that had few, if any, treatment options at the time the advocacy groups were formed.

Since the 1990s, the list of childhood neurologic diseases for which there has been meaningful progress is long. Dr. Bodensteiner selected several examples. For Rett syndrome, key molecular mechanisms have now been isolated, providing meaningful targets that show potential for treatment. For spinal muscular atrophy (SMA), therapies have become available, one of which involves gene replacement that appears to provide cure if initiated early in life. For tuberous sclerosis complex (TSC), gene targets are showing strong promise for controlling seizures and other TSC manifestations.

It has also to be acknowledged that much of the ongoing expansion in knowledge taking place across diseases in pediatric neurology would have taken place with or without parent support. Dr. Bodensteiner singled out seizure disorders only as an illustration. “In the various forms of epilepsy, we now understand mechanisms in much greater detail than we did even a decade ago, let alone 30 years ago,” Dr. Bodensteiner said. In the context of the seizure medicines once widely employed on an empirical basis, “we now often have a clearer picture of why one drug works and not another.”
 

Growing pains: Child neurology evolves from a subspecialty to a specialty

Until about 10 years ago, child neurology was a subspecialty, variably placed within the departments of pediatrics or neurology based on institution. The decision to elevate child neurology to its own specialty solved some issues but created others, according to Dr. Bodensteiner.

“The initial problem was there was no immediate funding mechanism of residency slots and training,” Dr. Bodensteiner explained. The issue was particularly acute at smaller centers that had been able to support a subspecialty within another department but struggled with a new autonomous unit.

So far, the training requirements for specializing in child neurology remain largely unchanged. Clinical training requires 2 years of straight pediatrics, 1 year of adult neurology, 1 year of basic neurological science,” and 1 year of child neurology, but Dr. Bodensteiner said it might be time to reconsider. He pointed out that neurologists in general and child neurologists specifically are becoming increasingly focused in one area of expertise, such as epilepsy, neuromuscular diseases, and neurodevelopmental delay.

“It can be argued that a few months spent in a dementia clinic during training might not be the best use of time for a child neurologist working in congenital neurological diseases,” he said.

One consequence of the increasing degree of specialization in neurology overall, not just child neurology, has been the changes in recertification, according to Dr. Bodensteiner. Following a model used in other specialties, recertification in child neurology was initially based on an every-10-year examination. Ultimately, this was recognized as inconsistent with the target of keeping clinicians up to date.

“In general, I think that a lot of people waited for 9.5 years before cramming for an examination that was not necessarily relevant to the area in which they were working,” Dr. Bodensteiner said.

The revised process, carried out on an every-3-year cycle, involves board-guided review of the medical literature in 10 topic areas. Child neurologists can elect an article in any of the topic areas, but to complete their recertification process they must read articles in eight of these areas. Dr. Bodensteiner said that this approach has been more popular and is presumably more useful for staying abreast of developments.
 

Increased specialization necessitates collaboration

The radical increase in specialization in child neurology, like neurology in general, has been a necessary consequence of an avalanche of new information as advances in the field accelerate, but Dr. Bodensteiner cautioned that it is important for those working in these specialized areas to collaborate with others outside of their field of expertise.

“We cannot recognize what we do not know,” Dr. Bodensteiner said. If subspecialization within neurology is critical to stay current with rapid advances in very different diseases, then it also means that clinicians at every level, including within the field of child neurology, need to know when to collaborate or refer to ensure early diagnosis in challenging cases.

“Epileptologists have been trying for years to make it widely known that patients resistant to standard medications deserve referral, but I think this is increasingly true across domains,” Dr. Bodensteiner said. Neurology and child neurology are not alone, but the window of opportunity for effective intervention in children with a progressive disease might be particularly limited.

“The point is that this is more of a risk than it was 20 years ago,” said Dr. Bodensteiner, referring to the growth in new therapies. He cited data suggesting that a causative gene mutation can be identified in about 60% of rare diseases, which is a relatively new phenomenon. Of advances to improve outcomes, faster triage is becoming one of the most important in this increasingly specialized world.

With the growth in knowledge, “there is really no way to be an expert across all diseases in child neurology,” Dr. Bodensteiner said. “As physicians become increasingly insulated in their areas of expertise, I think there needs to be a greater emphasis on communication and collaboration.”

To some degree, this type of specialization has always existed, but Dr. Bodensteiner said the intensification of this trend is among the ways the field has most evolved over the past few decades. In inherited diseases that affect early child development, working together for a prompt diagnosis has assumed a new level of urgency.

For understanding the evolution in child neurology over the past 30 years, it would make sense to start with the science, particularly genetics, that have led to treatments and even cures for numerous inherited diseases over that time. When John Bodensteiner, MD, a pillar in the field of child neurology, was asked, he started with something different.

Parent advocacy accelerates advances in rare pediatric diseases

For the progress in many of the rare diseases seen by child neurologists in the last few decades, Dr. Bodensteiner first acknowledged parent support. “The concept was simple initially. For so many of these relatively rare diseases, like the Rett and Sturge-Weber syndromes, parents were learning of them for the first time. The support groups helped parents understand they were not alone. But it then evolved,” recalled Dr. Bodensteiner, who has been a professor of pediatrics and neurology at numerous institutions, most recently the Mayo Clinic in Rochester, Minn.

Many of these support groups first formed, or at least gained momentum, in the 1990s. “As the support groups grew, the members expanded their role to support research, in addition to supporting each other. They ended up volunteering their own data, providing more information about the epidemiology and disease course. They offered tissue samples for experimental studies. They enrolled their children in trials. And they raised funds,” Dr. Bodensteiner explained.

The impact of this advocacy has been enormous, according to Dr. Bodensteiner. As an expert in neuromuscular diseases, he worked directly with several of these groups.

Although the growth in parent advocacy took place in parallel with major advances in genetics that were driving new insights into disease pathophysiology, Dr. Bodensteiner characterized parent advocates as important partners in accelerating the transition of new information to clinical utility. He suggested that there is little doubt about the importance of their role in moving the science forward by drawing attention to rare disorders that had few, if any, treatment options at the time the advocacy groups were formed.

Since the 1990s, the list of childhood neurologic diseases for which there has been meaningful progress is long. Dr. Bodensteiner selected several examples. For Rett syndrome, key molecular mechanisms have now been isolated, providing meaningful targets that show potential for treatment. For spinal muscular atrophy (SMA), therapies have become available, one of which involves gene replacement that appears to provide cure if initiated early in life. For tuberous sclerosis complex (TSC), gene targets are showing strong promise for controlling seizures and other TSC manifestations.

It has also to be acknowledged that much of the ongoing expansion in knowledge taking place across diseases in pediatric neurology would have taken place with or without parent support. Dr. Bodensteiner singled out seizure disorders only as an illustration. “In the various forms of epilepsy, we now understand mechanisms in much greater detail than we did even a decade ago, let alone 30 years ago,” Dr. Bodensteiner said. In the context of the seizure medicines once widely employed on an empirical basis, “we now often have a clearer picture of why one drug works and not another.”
 

Growing pains: Child neurology evolves from a subspecialty to a specialty

Until about 10 years ago, child neurology was a subspecialty, variably placed within the departments of pediatrics or neurology based on institution. The decision to elevate child neurology to its own specialty solved some issues but created others, according to Dr. Bodensteiner.

“The initial problem was there was no immediate funding mechanism of residency slots and training,” Dr. Bodensteiner explained. The issue was particularly acute at smaller centers that had been able to support a subspecialty within another department but struggled with a new autonomous unit.

So far, the training requirements for specializing in child neurology remain largely unchanged. Clinical training requires 2 years of straight pediatrics, 1 year of adult neurology, 1 year of basic neurological science,” and 1 year of child neurology, but Dr. Bodensteiner said it might be time to reconsider. He pointed out that neurologists in general and child neurologists specifically are becoming increasingly focused in one area of expertise, such as epilepsy, neuromuscular diseases, and neurodevelopmental delay.

“It can be argued that a few months spent in a dementia clinic during training might not be the best use of time for a child neurologist working in congenital neurological diseases,” he said.

One consequence of the increasing degree of specialization in neurology overall, not just child neurology, has been the changes in recertification, according to Dr. Bodensteiner. Following a model used in other specialties, recertification in child neurology was initially based on an every-10-year examination. Ultimately, this was recognized as inconsistent with the target of keeping clinicians up to date.

“In general, I think that a lot of people waited for 9.5 years before cramming for an examination that was not necessarily relevant to the area in which they were working,” Dr. Bodensteiner said.

The revised process, carried out on an every-3-year cycle, involves board-guided review of the medical literature in 10 topic areas. Child neurologists can elect an article in any of the topic areas, but to complete their recertification process they must read articles in eight of these areas. Dr. Bodensteiner said that this approach has been more popular and is presumably more useful for staying abreast of developments.
 

Increased specialization necessitates collaboration

The radical increase in specialization in child neurology, like neurology in general, has been a necessary consequence of an avalanche of new information as advances in the field accelerate, but Dr. Bodensteiner cautioned that it is important for those working in these specialized areas to collaborate with others outside of their field of expertise.

“We cannot recognize what we do not know,” Dr. Bodensteiner said. If subspecialization within neurology is critical to stay current with rapid advances in very different diseases, then it also means that clinicians at every level, including within the field of child neurology, need to know when to collaborate or refer to ensure early diagnosis in challenging cases.

“Epileptologists have been trying for years to make it widely known that patients resistant to standard medications deserve referral, but I think this is increasingly true across domains,” Dr. Bodensteiner said. Neurology and child neurology are not alone, but the window of opportunity for effective intervention in children with a progressive disease might be particularly limited.

“The point is that this is more of a risk than it was 20 years ago,” said Dr. Bodensteiner, referring to the growth in new therapies. He cited data suggesting that a causative gene mutation can be identified in about 60% of rare diseases, which is a relatively new phenomenon. Of advances to improve outcomes, faster triage is becoming one of the most important in this increasingly specialized world.

With the growth in knowledge, “there is really no way to be an expert across all diseases in child neurology,” Dr. Bodensteiner said. “As physicians become increasingly insulated in their areas of expertise, I think there needs to be a greater emphasis on communication and collaboration.”

To some degree, this type of specialization has always existed, but Dr. Bodensteiner said the intensification of this trend is among the ways the field has most evolved over the past few decades. In inherited diseases that affect early child development, working together for a prompt diagnosis has assumed a new level of urgency.

For understanding the evolution in child neurology over the past 30 years, it would make sense to start with the science, particularly genetics, that have led to treatments and even cures for numerous inherited diseases over that time. When John Bodensteiner, MD, a pillar in the field of child neurology, was asked, he started with something different.

Parent advocacy accelerates advances in rare pediatric diseases

For the progress in many of the rare diseases seen by child neurologists in the last few decades, Dr. Bodensteiner first acknowledged parent support. “The concept was simple initially. For so many of these relatively rare diseases, like the Rett and Sturge-Weber syndromes, parents were learning of them for the first time. The support groups helped parents understand they were not alone. But it then evolved,” recalled Dr. Bodensteiner, who has been a professor of pediatrics and neurology at numerous institutions, most recently the Mayo Clinic in Rochester, Minn.

Many of these support groups first formed, or at least gained momentum, in the 1990s. “As the support groups grew, the members expanded their role to support research, in addition to supporting each other. They ended up volunteering their own data, providing more information about the epidemiology and disease course. They offered tissue samples for experimental studies. They enrolled their children in trials. And they raised funds,” Dr. Bodensteiner explained.

The impact of this advocacy has been enormous, according to Dr. Bodensteiner. As an expert in neuromuscular diseases, he worked directly with several of these groups.

Although the growth in parent advocacy took place in parallel with major advances in genetics that were driving new insights into disease pathophysiology, Dr. Bodensteiner characterized parent advocates as important partners in accelerating the transition of new information to clinical utility. He suggested that there is little doubt about the importance of their role in moving the science forward by drawing attention to rare disorders that had few, if any, treatment options at the time the advocacy groups were formed.

Since the 1990s, the list of childhood neurologic diseases for which there has been meaningful progress is long. Dr. Bodensteiner selected several examples. For Rett syndrome, key molecular mechanisms have now been isolated, providing meaningful targets that show potential for treatment. For spinal muscular atrophy (SMA), therapies have become available, one of which involves gene replacement that appears to provide cure if initiated early in life. For tuberous sclerosis complex (TSC), gene targets are showing strong promise for controlling seizures and other TSC manifestations.

It has also to be acknowledged that much of the ongoing expansion in knowledge taking place across diseases in pediatric neurology would have taken place with or without parent support. Dr. Bodensteiner singled out seizure disorders only as an illustration. “In the various forms of epilepsy, we now understand mechanisms in much greater detail than we did even a decade ago, let alone 30 years ago,” Dr. Bodensteiner said. In the context of the seizure medicines once widely employed on an empirical basis, “we now often have a clearer picture of why one drug works and not another.”
 

Growing pains: Child neurology evolves from a subspecialty to a specialty

Until about 10 years ago, child neurology was a subspecialty, variably placed within the departments of pediatrics or neurology based on institution. The decision to elevate child neurology to its own specialty solved some issues but created others, according to Dr. Bodensteiner.

“The initial problem was there was no immediate funding mechanism of residency slots and training,” Dr. Bodensteiner explained. The issue was particularly acute at smaller centers that had been able to support a subspecialty within another department but struggled with a new autonomous unit.

So far, the training requirements for specializing in child neurology remain largely unchanged. Clinical training requires 2 years of straight pediatrics, 1 year of adult neurology, 1 year of basic neurological science,” and 1 year of child neurology, but Dr. Bodensteiner said it might be time to reconsider. He pointed out that neurologists in general and child neurologists specifically are becoming increasingly focused in one area of expertise, such as epilepsy, neuromuscular diseases, and neurodevelopmental delay.

“It can be argued that a few months spent in a dementia clinic during training might not be the best use of time for a child neurologist working in congenital neurological diseases,” he said.

One consequence of the increasing degree of specialization in neurology overall, not just child neurology, has been the changes in recertification, according to Dr. Bodensteiner. Following a model used in other specialties, recertification in child neurology was initially based on an every-10-year examination. Ultimately, this was recognized as inconsistent with the target of keeping clinicians up to date.

“In general, I think that a lot of people waited for 9.5 years before cramming for an examination that was not necessarily relevant to the area in which they were working,” Dr. Bodensteiner said.

The revised process, carried out on an every-3-year cycle, involves board-guided review of the medical literature in 10 topic areas. Child neurologists can elect an article in any of the topic areas, but to complete their recertification process they must read articles in eight of these areas. Dr. Bodensteiner said that this approach has been more popular and is presumably more useful for staying abreast of developments.
 

Increased specialization necessitates collaboration

The radical increase in specialization in child neurology, like neurology in general, has been a necessary consequence of an avalanche of new information as advances in the field accelerate, but Dr. Bodensteiner cautioned that it is important for those working in these specialized areas to collaborate with others outside of their field of expertise.

“We cannot recognize what we do not know,” Dr. Bodensteiner said. If subspecialization within neurology is critical to stay current with rapid advances in very different diseases, then it also means that clinicians at every level, including within the field of child neurology, need to know when to collaborate or refer to ensure early diagnosis in challenging cases.

“Epileptologists have been trying for years to make it widely known that patients resistant to standard medications deserve referral, but I think this is increasingly true across domains,” Dr. Bodensteiner said. Neurology and child neurology are not alone, but the window of opportunity for effective intervention in children with a progressive disease might be particularly limited.

“The point is that this is more of a risk than it was 20 years ago,” said Dr. Bodensteiner, referring to the growth in new therapies. He cited data suggesting that a causative gene mutation can be identified in about 60% of rare diseases, which is a relatively new phenomenon. Of advances to improve outcomes, faster triage is becoming one of the most important in this increasingly specialized world.

With the growth in knowledge, “there is really no way to be an expert across all diseases in child neurology,” Dr. Bodensteiner said. “As physicians become increasingly insulated in their areas of expertise, I think there needs to be a greater emphasis on communication and collaboration.”

To some degree, this type of specialization has always existed, but Dr. Bodensteiner said the intensification of this trend is among the ways the field has most evolved over the past few decades. In inherited diseases that affect early child development, working together for a prompt diagnosis has assumed a new level of urgency.

This transcript has been edited for clarity.

Hi. I’m Art Caplan, PhD. I’m director of the division of medical ethics at the New York University Grossman School of Medicine.

Every once in a while at my school, I get referrals about interesting or difficult clinical cases where doctors would like some input or advice that they can consider in managing a patient. Sometimes those requests come from other hospitals to me. I’ve been doing that kind of ethics consulting, both as a member of various ethics committees and sometimes individually, when, for various reasons, doctors don’t want to go to the Ethics Committee as a first stop.

There was a very interesting case recently involving a young woman I’m going to call Tinslee. She was 17 years old and she suffered, sadly, from recurrent metastatic osteogenic sarcoma. She had bone cancer. It had first been diagnosed at the age of 9. She had received chemotherapy and been under that treatment for a while.

If osteosarcoma is treated before it spreads outside the area where it began, the 5-year survival rate for people like her is about 75%. If the cancer spreads outside of the bones and gets into surrounding tissues, organs, or – worse – into the lymph nodes and starts traveling around, the 5-year survival rate drops to about 60%. The two approaches are chemotherapy and amputation. That’s what we have to offer patients like Tinslee.

Initially, her chemotherapy worked. She went to school and enjoyed sports. She was a real fan of softball and tried to manage the team and be involved. At the time I learned about her, she was planning to go to college. Her love of softball remained, but given the recurrence of the cancer, she had no chance to pursue her athletic interests, not only as a player, but also as a manager or even as a coach for younger players. That was all off the table.

She’d been very compliant up until this time with her chemotherapy. When the recommendation came in that she undergo nonstandard chemotherapy because of the reoccurrence, with experimental drugs using an experimental protocol, she said to her family and the doctors that she didn’t want to do it. She would rather die. She couldn’t take any more chemotherapy and she certainly didn’t want to do it if it was experimental, with the outcomes of this intervention being uncertain.

Her dad said, “She can’t decide. She’s a minor. She’s only 17. I want you to do it – administer this novel form of chemotherapy and try to save her.” Her mother said, “Her input matters. I want to listen to her.” Her mom wasn’t as adamant about doing it or not, but she really felt that Tinslee should be heard loudly because she felt she was mature enough or old enough, even though a minor, to really have a position about what it is to undergo chemotherapy.

Time matters in trying to control the spread, and the doctors were pushing for experimental intervention. I should add, by the way, that although it didn’t really drive the decision about whether to do it or not do it, experimental care like this is not covered by most insurance, and it wasn’t covered by their insurance, so they were facing a big bill if the experimental intervention was administered.

There was some money in a grant to cover some of it, but they were going to face some big financial costs. It never came up in my discussions with the doctors about what to do. I’m not sure whether it ever came up with the family’s discussion with the doctors about what to do, or even whether Tinslee was worrying and didn’t want her family to face a financial burden.

I suggested that we bring the family in. We did some counseling. We had a social worker and we brought in a pastor because these people were fairly religious. We talked about all scenarios, including accepting death, knowing that this disease was not likely to go into remission with the experimental effort; maybe it would, but the doctors were not optimistic.

We tried to talk about how much we should listen to what this young woman wanted. We knew there was the possibility of going to court and having a judge decide this, but in my experience, I do not like going to judges and courts because I know what they’re going to say. They almost always say “administer the intervention.” They don’t want to be in a position of saying don’t do something. They’re a little less willing to do that if something is experimental, but generally speaking, if you’re headed to court, it’s because you’ve decided that you want this to happen.

I felt, in all honesty, that this young woman should have some real respect of her position because the treatment was experimental. She is approaching the age of competency and consent, and she’s been through many interventions. She knows what’s involved. I think you really have to listen hard to what she’s saying.

By the way, after this case, I looked and there have been some surveys of residents in pediatrics. A large number of them said that they hadn’t received any training about what to do when mature minors refuse experimental treatments. The study I saw said that 30% had not undergone any training about this, so we certainly want to introduce that into the appropriate areas of medicine and talk about this with residents and fellows.

Long story short, we had the family meeting, we had another meeting with dad and mom and Tinslee, and the dad began to come around and he began to listen hard. Tinslee said what she wanted was to go to her prom. She wanted to get to her sister’s junior high school softball championship game. If you will, setting some smaller goals that seemed to make her very, very happy began to satisfy mom and dad and they could accept her refusal.

Ultimately, an agreement was reached that she would not undergo the experimental intervention. We agreed on a course of palliative care, recommended that as what the doctors follow, and they decided to do so. Sadly, Tinslee died. She died at home. She did make it to her prom.

I think the outcome, while difficult, sad, tragic, and a close call, was correct. Mature minors who have been through a rough life of interventions and know the price to pay – and for those who have recurrent disease and now face only experimental options – if they say no, that’s something we really have to listen to very hard.



Dr. Kaplan is director, division of medical ethics, New York University Langone Medical Center, New York. He reported a conflict of interest with Johnson & Johnson’s Panel for Compassionate Drug Use.
 

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

This transcript has been edited for clarity.

Hi. I’m Art Caplan, PhD. I’m director of the division of medical ethics at the New York University Grossman School of Medicine.

Every once in a while at my school, I get referrals about interesting or difficult clinical cases where doctors would like some input or advice that they can consider in managing a patient. Sometimes those requests come from other hospitals to me. I’ve been doing that kind of ethics consulting, both as a member of various ethics committees and sometimes individually, when, for various reasons, doctors don’t want to go to the Ethics Committee as a first stop.

There was a very interesting case recently involving a young woman I’m going to call Tinslee. She was 17 years old and she suffered, sadly, from recurrent metastatic osteogenic sarcoma. She had bone cancer. It had first been diagnosed at the age of 9. She had received chemotherapy and been under that treatment for a while.

If osteosarcoma is treated before it spreads outside the area where it began, the 5-year survival rate for people like her is about 75%. If the cancer spreads outside of the bones and gets into surrounding tissues, organs, or – worse – into the lymph nodes and starts traveling around, the 5-year survival rate drops to about 60%. The two approaches are chemotherapy and amputation. That’s what we have to offer patients like Tinslee.

Initially, her chemotherapy worked. She went to school and enjoyed sports. She was a real fan of softball and tried to manage the team and be involved. At the time I learned about her, she was planning to go to college. Her love of softball remained, but given the recurrence of the cancer, she had no chance to pursue her athletic interests, not only as a player, but also as a manager or even as a coach for younger players. That was all off the table.

She’d been very compliant up until this time with her chemotherapy. When the recommendation came in that she undergo nonstandard chemotherapy because of the reoccurrence, with experimental drugs using an experimental protocol, she said to her family and the doctors that she didn’t want to do it. She would rather die. She couldn’t take any more chemotherapy and she certainly didn’t want to do it if it was experimental, with the outcomes of this intervention being uncertain.

Her dad said, “She can’t decide. She’s a minor. She’s only 17. I want you to do it – administer this novel form of chemotherapy and try to save her.” Her mother said, “Her input matters. I want to listen to her.” Her mom wasn’t as adamant about doing it or not, but she really felt that Tinslee should be heard loudly because she felt she was mature enough or old enough, even though a minor, to really have a position about what it is to undergo chemotherapy.

Time matters in trying to control the spread, and the doctors were pushing for experimental intervention. I should add, by the way, that although it didn’t really drive the decision about whether to do it or not do it, experimental care like this is not covered by most insurance, and it wasn’t covered by their insurance, so they were facing a big bill if the experimental intervention was administered.

There was some money in a grant to cover some of it, but they were going to face some big financial costs. It never came up in my discussions with the doctors about what to do. I’m not sure whether it ever came up with the family’s discussion with the doctors about what to do, or even whether Tinslee was worrying and didn’t want her family to face a financial burden.

I suggested that we bring the family in. We did some counseling. We had a social worker and we brought in a pastor because these people were fairly religious. We talked about all scenarios, including accepting death, knowing that this disease was not likely to go into remission with the experimental effort; maybe it would, but the doctors were not optimistic.

We tried to talk about how much we should listen to what this young woman wanted. We knew there was the possibility of going to court and having a judge decide this, but in my experience, I do not like going to judges and courts because I know what they’re going to say. They almost always say “administer the intervention.” They don’t want to be in a position of saying don’t do something. They’re a little less willing to do that if something is experimental, but generally speaking, if you’re headed to court, it’s because you’ve decided that you want this to happen.

I felt, in all honesty, that this young woman should have some real respect of her position because the treatment was experimental. She is approaching the age of competency and consent, and she’s been through many interventions. She knows what’s involved. I think you really have to listen hard to what she’s saying.

By the way, after this case, I looked and there have been some surveys of residents in pediatrics. A large number of them said that they hadn’t received any training about what to do when mature minors refuse experimental treatments. The study I saw said that 30% had not undergone any training about this, so we certainly want to introduce that into the appropriate areas of medicine and talk about this with residents and fellows.

Long story short, we had the family meeting, we had another meeting with dad and mom and Tinslee, and the dad began to come around and he began to listen hard. Tinslee said what she wanted was to go to her prom. She wanted to get to her sister’s junior high school softball championship game. If you will, setting some smaller goals that seemed to make her very, very happy began to satisfy mom and dad and they could accept her refusal.

Ultimately, an agreement was reached that she would not undergo the experimental intervention. We agreed on a course of palliative care, recommended that as what the doctors follow, and they decided to do so. Sadly, Tinslee died. She died at home. She did make it to her prom.

I think the outcome, while difficult, sad, tragic, and a close call, was correct. Mature minors who have been through a rough life of interventions and know the price to pay – and for those who have recurrent disease and now face only experimental options – if they say no, that’s something we really have to listen to very hard.



Dr. Kaplan is director, division of medical ethics, New York University Langone Medical Center, New York. He reported a conflict of interest with Johnson & Johnson’s Panel for Compassionate Drug Use.
 

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

This transcript has been edited for clarity.

Hi. I’m Art Caplan, PhD. I’m director of the division of medical ethics at the New York University Grossman School of Medicine.

Every once in a while at my school, I get referrals about interesting or difficult clinical cases where doctors would like some input or advice that they can consider in managing a patient. Sometimes those requests come from other hospitals to me. I’ve been doing that kind of ethics consulting, both as a member of various ethics committees and sometimes individually, when, for various reasons, doctors don’t want to go to the Ethics Committee as a first stop.

There was a very interesting case recently involving a young woman I’m going to call Tinslee. She was 17 years old and she suffered, sadly, from recurrent metastatic osteogenic sarcoma. She had bone cancer. It had first been diagnosed at the age of 9. She had received chemotherapy and been under that treatment for a while.

If osteosarcoma is treated before it spreads outside the area where it began, the 5-year survival rate for people like her is about 75%. If the cancer spreads outside of the bones and gets into surrounding tissues, organs, or – worse – into the lymph nodes and starts traveling around, the 5-year survival rate drops to about 60%. The two approaches are chemotherapy and amputation. That’s what we have to offer patients like Tinslee.

Initially, her chemotherapy worked. She went to school and enjoyed sports. She was a real fan of softball and tried to manage the team and be involved. At the time I learned about her, she was planning to go to college. Her love of softball remained, but given the recurrence of the cancer, she had no chance to pursue her athletic interests, not only as a player, but also as a manager or even as a coach for younger players. That was all off the table.

She’d been very compliant up until this time with her chemotherapy. When the recommendation came in that she undergo nonstandard chemotherapy because of the reoccurrence, with experimental drugs using an experimental protocol, she said to her family and the doctors that she didn’t want to do it. She would rather die. She couldn’t take any more chemotherapy and she certainly didn’t want to do it if it was experimental, with the outcomes of this intervention being uncertain.

Her dad said, “She can’t decide. She’s a minor. She’s only 17. I want you to do it – administer this novel form of chemotherapy and try to save her.” Her mother said, “Her input matters. I want to listen to her.” Her mom wasn’t as adamant about doing it or not, but she really felt that Tinslee should be heard loudly because she felt she was mature enough or old enough, even though a minor, to really have a position about what it is to undergo chemotherapy.

Time matters in trying to control the spread, and the doctors were pushing for experimental intervention. I should add, by the way, that although it didn’t really drive the decision about whether to do it or not do it, experimental care like this is not covered by most insurance, and it wasn’t covered by their insurance, so they were facing a big bill if the experimental intervention was administered.

There was some money in a grant to cover some of it, but they were going to face some big financial costs. It never came up in my discussions with the doctors about what to do. I’m not sure whether it ever came up with the family’s discussion with the doctors about what to do, or even whether Tinslee was worrying and didn’t want her family to face a financial burden.

I suggested that we bring the family in. We did some counseling. We had a social worker and we brought in a pastor because these people were fairly religious. We talked about all scenarios, including accepting death, knowing that this disease was not likely to go into remission with the experimental effort; maybe it would, but the doctors were not optimistic.

We tried to talk about how much we should listen to what this young woman wanted. We knew there was the possibility of going to court and having a judge decide this, but in my experience, I do not like going to judges and courts because I know what they’re going to say. They almost always say “administer the intervention.” They don’t want to be in a position of saying don’t do something. They’re a little less willing to do that if something is experimental, but generally speaking, if you’re headed to court, it’s because you’ve decided that you want this to happen.

I felt, in all honesty, that this young woman should have some real respect of her position because the treatment was experimental. She is approaching the age of competency and consent, and she’s been through many interventions. She knows what’s involved. I think you really have to listen hard to what she’s saying.

By the way, after this case, I looked and there have been some surveys of residents in pediatrics. A large number of them said that they hadn’t received any training about what to do when mature minors refuse experimental treatments. The study I saw said that 30% had not undergone any training about this, so we certainly want to introduce that into the appropriate areas of medicine and talk about this with residents and fellows.

Long story short, we had the family meeting, we had another meeting with dad and mom and Tinslee, and the dad began to come around and he began to listen hard. Tinslee said what she wanted was to go to her prom. She wanted to get to her sister’s junior high school softball championship game. If you will, setting some smaller goals that seemed to make her very, very happy began to satisfy mom and dad and they could accept her refusal.

Ultimately, an agreement was reached that she would not undergo the experimental intervention. We agreed on a course of palliative care, recommended that as what the doctors follow, and they decided to do so. Sadly, Tinslee died. She died at home. She did make it to her prom.

I think the outcome, while difficult, sad, tragic, and a close call, was correct. Mature minors who have been through a rough life of interventions and know the price to pay – and for those who have recurrent disease and now face only experimental options – if they say no, that’s something we really have to listen to very hard.



Dr. Kaplan is director, division of medical ethics, New York University Langone Medical Center, New York. He reported a conflict of interest with Johnson & Johnson’s Panel for Compassionate Drug Use.
 

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

A teenager who weighed 300 lb and was homeschooled because he was too big to fit in a classroom chair is among the patients Manal Habib, MD, has seen in her pediatric endocrinology practice.

The boy, a social butterfly who hated isolation and blamed himself for his “poor choices,” turned out to have an MC4R mutation that interfered with proper metabolism and satiation signals.

“People often blame obese and overweight people for not having enough willpower, but it’s often a physiological problem,” said Dr. Habib, who works at the University of California, Los Angeles.

She is among the clinicians offering more aggressive forms of weight management, prescribing medications, including metformin, semaglutide, and liraglutide – often off-label – to help children and teens with obesity who do not respond to lifestyle changes.

The results of intensive interventions can be life-changing: The teen Dr. Habib treated is back at school, playing sports, and no longer needs drugs to reduce cholesterol and blood pressure. He now takes a low maintenance dose of a weight-loss medication.

But the long-term effects of these new agents on children and teens are poorly understood, and both medication and surgery are associated with significant complications. Pediatricians treating kids pre- or post-intervention should be alert to a range of physical, psychological, and behavioral risks and complications.
 

Keeping bones healthy

Pediatricians should be aware of the risk to bone health in patients who undergo surgery, according to Misra Madhusmita, MD, chief of pediatric endocrinology at Massachusetts General Hospital in Boston. In a recent study, Dr. Madhusmita and her colleagues found that sleeve gastrectomy reduced vertebral bone strength in adolescents and young adults.

“This is a time of life when bone mass is typically accruing rapidly,” Dr. Madhusmita told this news organization. “A deleterious effect on bone accrual at this time of life raises concerns about suboptimal acquisition of peak bone mass, which is typically attained in early adult life and is a key factor determining bone health and fracture risk in later life.”

Reduced skeletal loading and muscle mass can weaken bones, as can malabsorption of nutrients. Fat loss can trigger lower levels of bioavailable androgens and their subsequent conversion to estrogen, negatively affecting bone density. And sleeve gastrectomy in particular lowers ghrelin, another hormone influencing skeletal health.

Clinicians should advise patients who have had surgery to follow a healthy diet and consume sufficient levels of calcium and vitamin D, said Dr. Madhusmita. Weight-bearing exercises, weight training, and resistance training are also imperative to build bone mass and muscle. Any preexisting conditions or lifestyle factors that weaken the bones should be taken into consideration.
 

Managing expectations

The long-term effects of weight loss medications on children are less documented than with surgery, according to Caren Mangarelli, MD, a former primary care physician who is now medical director of both the adolescent bariatric program and the children’s wellness and weight management clinic at Lurie Children’s Hospital in Chicago, Ill.

But one significant known risk is the potential for rebound weight gain and the complications like high blood pressure and high blood sugar that go with it if the patient stops medication. Dr. Mangarelli said that many clinicians lack the training required to safely facilitate weight loss medications for kids.

“We have to remember that obesity is a chronic disease, especially for those with more severe forms,” she said. “They’re not likely to outgrow it. It’s not like, ‘Oh, we’ll just put a patient on medication, they’ll lose weight, and we’ll take them off of it,’ because you could create a bad cycle of losing weight, followed by metabolism slowing down, hunger cues going up, and weight going back up.”

Making the risks of stopping medication clear and supporting compliance are essential, especially when it comes to injectables like semaglutide, which can be more burdensome than taking pills, requiring weekly subcutaneous injections. Pediatricians should ensure that families understand that medication is a long-term solution, Dr. Habib said.

Many families and patients “want a quick result. They’re focused on a specific size or weight, and they want to take the medication for a short period without changing anything else,” Dr. Habib said.

But children with genetic abnormalities or severe obesity could be on medication for their entire lives. Patients who make significant healthy lifestyle changes have a greater chance of weaning off drug therapy.

But “it’s hard with children because they’re dependent on their family,” Dr. Habib said. “One of the first things that I talk about with families is that it’s very important for everyone to be involved in making healthy changes, especially the parents, because the kids are going to follow their lifestyle and choices, not necessarily what they tell them to do.”
 

The behavioral and mental

One of Dr. Habib’s most striking cases was a 6-year-old patient with autism spectrum disorder experiencing early-onset puberty. Her condition made it difficult for her parents to enforce behavioral and lifestyle changes, making medication the best option to normalize the young girl’s body.

“The goal in this case is not necessarily to help her lose weight, but to prevent her from having severe health risks at such a young age,” said Habib.

Though medication may be the best solution when other options have failed, the ease of using medication may mean clinicians fail to address the complex emotional and psychosocial factors that can both cause and result from obesity.

“A lot of families think that if just this one thing were better, everything else would fall into place,” Habib said. “But there often are multiple layers to treating the patient.”

According to Cambria Garrell, MD, a pediatrician at the UCLA Fit for Healthy Weight Program in Los Angeles, pediatricians should be aware of the psychosocial and mental health factors such as undiagnosed mental illness or family dysfunction.

Dr. Garrell sometimes cares for children with undiagnosed mental health disorders. Children with conditions like attention-deficit/hyperactivity disorder and autism spectrum disorders may struggle with eating because of impulse control and sensory processing issues. Family functioning, issues at school, and lack of sleep are also major contributors to obesity to screen for.

“We really like to think about the environmental and psychosocial factors contributing to obesity instead of just pathologizing the weight,” Dr. Garrell said.
 

Risk for alcohol abuse

Bariatric and metabolic surgeries are associated with an increased risk for alcohol use disorder (AUD). Pediatricians treating children pre- or post-op should ensure that patients receive behavioral and mental health services to minimize the risk for alcohol abuse.

The risk for AUD is likely the result of changes to the way the body metabolizes alcohol, resulting in heightened sensitivity to it, although research is not conclusive, according to Dr. Mangarelli.

The risk for AUD is likely multifactorial, Dr. Mangarelli said.

“We don’t totally understand all of it, but if you’re experiencing a high more easily, that may lead to misuse,” Dr. Mangarelli said. “It’s also important to remember that this population of patients has experienced stigma for a very long time, and they often have associated mental health and body image issues.”

“Those problems don’t disappear on their own,” she added. “You want to make sure that patients are hooked into behavioral and mental health services before surgery so that they have somebody who’s following them after surgery.”

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

A teenager who weighed 300 lb and was homeschooled because he was too big to fit in a classroom chair is among the patients Manal Habib, MD, has seen in her pediatric endocrinology practice.

The boy, a social butterfly who hated isolation and blamed himself for his “poor choices,” turned out to have an MC4R mutation that interfered with proper metabolism and satiation signals.

“People often blame obese and overweight people for not having enough willpower, but it’s often a physiological problem,” said Dr. Habib, who works at the University of California, Los Angeles.

She is among the clinicians offering more aggressive forms of weight management, prescribing medications, including metformin, semaglutide, and liraglutide – often off-label – to help children and teens with obesity who do not respond to lifestyle changes.

The results of intensive interventions can be life-changing: The teen Dr. Habib treated is back at school, playing sports, and no longer needs drugs to reduce cholesterol and blood pressure. He now takes a low maintenance dose of a weight-loss medication.

But the long-term effects of these new agents on children and teens are poorly understood, and both medication and surgery are associated with significant complications. Pediatricians treating kids pre- or post-intervention should be alert to a range of physical, psychological, and behavioral risks and complications.
 

Keeping bones healthy

Pediatricians should be aware of the risk to bone health in patients who undergo surgery, according to Misra Madhusmita, MD, chief of pediatric endocrinology at Massachusetts General Hospital in Boston. In a recent study, Dr. Madhusmita and her colleagues found that sleeve gastrectomy reduced vertebral bone strength in adolescents and young adults.

“This is a time of life when bone mass is typically accruing rapidly,” Dr. Madhusmita told this news organization. “A deleterious effect on bone accrual at this time of life raises concerns about suboptimal acquisition of peak bone mass, which is typically attained in early adult life and is a key factor determining bone health and fracture risk in later life.”

Reduced skeletal loading and muscle mass can weaken bones, as can malabsorption of nutrients. Fat loss can trigger lower levels of bioavailable androgens and their subsequent conversion to estrogen, negatively affecting bone density. And sleeve gastrectomy in particular lowers ghrelin, another hormone influencing skeletal health.

Clinicians should advise patients who have had surgery to follow a healthy diet and consume sufficient levels of calcium and vitamin D, said Dr. Madhusmita. Weight-bearing exercises, weight training, and resistance training are also imperative to build bone mass and muscle. Any preexisting conditions or lifestyle factors that weaken the bones should be taken into consideration.
 

Managing expectations

The long-term effects of weight loss medications on children are less documented than with surgery, according to Caren Mangarelli, MD, a former primary care physician who is now medical director of both the adolescent bariatric program and the children’s wellness and weight management clinic at Lurie Children’s Hospital in Chicago, Ill.

But one significant known risk is the potential for rebound weight gain and the complications like high blood pressure and high blood sugar that go with it if the patient stops medication. Dr. Mangarelli said that many clinicians lack the training required to safely facilitate weight loss medications for kids.

“We have to remember that obesity is a chronic disease, especially for those with more severe forms,” she said. “They’re not likely to outgrow it. It’s not like, ‘Oh, we’ll just put a patient on medication, they’ll lose weight, and we’ll take them off of it,’ because you could create a bad cycle of losing weight, followed by metabolism slowing down, hunger cues going up, and weight going back up.”

Making the risks of stopping medication clear and supporting compliance are essential, especially when it comes to injectables like semaglutide, which can be more burdensome than taking pills, requiring weekly subcutaneous injections. Pediatricians should ensure that families understand that medication is a long-term solution, Dr. Habib said.

Many families and patients “want a quick result. They’re focused on a specific size or weight, and they want to take the medication for a short period without changing anything else,” Dr. Habib said.

But children with genetic abnormalities or severe obesity could be on medication for their entire lives. Patients who make significant healthy lifestyle changes have a greater chance of weaning off drug therapy.

But “it’s hard with children because they’re dependent on their family,” Dr. Habib said. “One of the first things that I talk about with families is that it’s very important for everyone to be involved in making healthy changes, especially the parents, because the kids are going to follow their lifestyle and choices, not necessarily what they tell them to do.”
 

The behavioral and mental

One of Dr. Habib’s most striking cases was a 6-year-old patient with autism spectrum disorder experiencing early-onset puberty. Her condition made it difficult for her parents to enforce behavioral and lifestyle changes, making medication the best option to normalize the young girl’s body.

“The goal in this case is not necessarily to help her lose weight, but to prevent her from having severe health risks at such a young age,” said Habib.

Though medication may be the best solution when other options have failed, the ease of using medication may mean clinicians fail to address the complex emotional and psychosocial factors that can both cause and result from obesity.

“A lot of families think that if just this one thing were better, everything else would fall into place,” Habib said. “But there often are multiple layers to treating the patient.”

According to Cambria Garrell, MD, a pediatrician at the UCLA Fit for Healthy Weight Program in Los Angeles, pediatricians should be aware of the psychosocial and mental health factors such as undiagnosed mental illness or family dysfunction.

Dr. Garrell sometimes cares for children with undiagnosed mental health disorders. Children with conditions like attention-deficit/hyperactivity disorder and autism spectrum disorders may struggle with eating because of impulse control and sensory processing issues. Family functioning, issues at school, and lack of sleep are also major contributors to obesity to screen for.

“We really like to think about the environmental and psychosocial factors contributing to obesity instead of just pathologizing the weight,” Dr. Garrell said.
 

Risk for alcohol abuse

Bariatric and metabolic surgeries are associated with an increased risk for alcohol use disorder (AUD). Pediatricians treating children pre- or post-op should ensure that patients receive behavioral and mental health services to minimize the risk for alcohol abuse.

The risk for AUD is likely the result of changes to the way the body metabolizes alcohol, resulting in heightened sensitivity to it, although research is not conclusive, according to Dr. Mangarelli.

The risk for AUD is likely multifactorial, Dr. Mangarelli said.

“We don’t totally understand all of it, but if you’re experiencing a high more easily, that may lead to misuse,” Dr. Mangarelli said. “It’s also important to remember that this population of patients has experienced stigma for a very long time, and they often have associated mental health and body image issues.”

“Those problems don’t disappear on their own,” she added. “You want to make sure that patients are hooked into behavioral and mental health services before surgery so that they have somebody who’s following them after surgery.”

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

A teenager who weighed 300 lb and was homeschooled because he was too big to fit in a classroom chair is among the patients Manal Habib, MD, has seen in her pediatric endocrinology practice.

The boy, a social butterfly who hated isolation and blamed himself for his “poor choices,” turned out to have an MC4R mutation that interfered with proper metabolism and satiation signals.

“People often blame obese and overweight people for not having enough willpower, but it’s often a physiological problem,” said Dr. Habib, who works at the University of California, Los Angeles.

She is among the clinicians offering more aggressive forms of weight management, prescribing medications, including metformin, semaglutide, and liraglutide – often off-label – to help children and teens with obesity who do not respond to lifestyle changes.

The results of intensive interventions can be life-changing: The teen Dr. Habib treated is back at school, playing sports, and no longer needs drugs to reduce cholesterol and blood pressure. He now takes a low maintenance dose of a weight-loss medication.

But the long-term effects of these new agents on children and teens are poorly understood, and both medication and surgery are associated with significant complications. Pediatricians treating kids pre- or post-intervention should be alert to a range of physical, psychological, and behavioral risks and complications.
 

Keeping bones healthy

Pediatricians should be aware of the risk to bone health in patients who undergo surgery, according to Misra Madhusmita, MD, chief of pediatric endocrinology at Massachusetts General Hospital in Boston. In a recent study, Dr. Madhusmita and her colleagues found that sleeve gastrectomy reduced vertebral bone strength in adolescents and young adults.

“This is a time of life when bone mass is typically accruing rapidly,” Dr. Madhusmita told this news organization. “A deleterious effect on bone accrual at this time of life raises concerns about suboptimal acquisition of peak bone mass, which is typically attained in early adult life and is a key factor determining bone health and fracture risk in later life.”

Reduced skeletal loading and muscle mass can weaken bones, as can malabsorption of nutrients. Fat loss can trigger lower levels of bioavailable androgens and their subsequent conversion to estrogen, negatively affecting bone density. And sleeve gastrectomy in particular lowers ghrelin, another hormone influencing skeletal health.

Clinicians should advise patients who have had surgery to follow a healthy diet and consume sufficient levels of calcium and vitamin D, said Dr. Madhusmita. Weight-bearing exercises, weight training, and resistance training are also imperative to build bone mass and muscle. Any preexisting conditions or lifestyle factors that weaken the bones should be taken into consideration.
 

Managing expectations

The long-term effects of weight loss medications on children are less documented than with surgery, according to Caren Mangarelli, MD, a former primary care physician who is now medical director of both the adolescent bariatric program and the children’s wellness and weight management clinic at Lurie Children’s Hospital in Chicago, Ill.

But one significant known risk is the potential for rebound weight gain and the complications like high blood pressure and high blood sugar that go with it if the patient stops medication. Dr. Mangarelli said that many clinicians lack the training required to safely facilitate weight loss medications for kids.

“We have to remember that obesity is a chronic disease, especially for those with more severe forms,” she said. “They’re not likely to outgrow it. It’s not like, ‘Oh, we’ll just put a patient on medication, they’ll lose weight, and we’ll take them off of it,’ because you could create a bad cycle of losing weight, followed by metabolism slowing down, hunger cues going up, and weight going back up.”

Making the risks of stopping medication clear and supporting compliance are essential, especially when it comes to injectables like semaglutide, which can be more burdensome than taking pills, requiring weekly subcutaneous injections. Pediatricians should ensure that families understand that medication is a long-term solution, Dr. Habib said.

Many families and patients “want a quick result. They’re focused on a specific size or weight, and they want to take the medication for a short period without changing anything else,” Dr. Habib said.

But children with genetic abnormalities or severe obesity could be on medication for their entire lives. Patients who make significant healthy lifestyle changes have a greater chance of weaning off drug therapy.

But “it’s hard with children because they’re dependent on their family,” Dr. Habib said. “One of the first things that I talk about with families is that it’s very important for everyone to be involved in making healthy changes, especially the parents, because the kids are going to follow their lifestyle and choices, not necessarily what they tell them to do.”
 

The behavioral and mental

One of Dr. Habib’s most striking cases was a 6-year-old patient with autism spectrum disorder experiencing early-onset puberty. Her condition made it difficult for her parents to enforce behavioral and lifestyle changes, making medication the best option to normalize the young girl’s body.

“The goal in this case is not necessarily to help her lose weight, but to prevent her from having severe health risks at such a young age,” said Habib.

Though medication may be the best solution when other options have failed, the ease of using medication may mean clinicians fail to address the complex emotional and psychosocial factors that can both cause and result from obesity.

“A lot of families think that if just this one thing were better, everything else would fall into place,” Habib said. “But there often are multiple layers to treating the patient.”

According to Cambria Garrell, MD, a pediatrician at the UCLA Fit for Healthy Weight Program in Los Angeles, pediatricians should be aware of the psychosocial and mental health factors such as undiagnosed mental illness or family dysfunction.

Dr. Garrell sometimes cares for children with undiagnosed mental health disorders. Children with conditions like attention-deficit/hyperactivity disorder and autism spectrum disorders may struggle with eating because of impulse control and sensory processing issues. Family functioning, issues at school, and lack of sleep are also major contributors to obesity to screen for.

“We really like to think about the environmental and psychosocial factors contributing to obesity instead of just pathologizing the weight,” Dr. Garrell said.
 

Risk for alcohol abuse

Bariatric and metabolic surgeries are associated with an increased risk for alcohol use disorder (AUD). Pediatricians treating children pre- or post-op should ensure that patients receive behavioral and mental health services to minimize the risk for alcohol abuse.

The risk for AUD is likely the result of changes to the way the body metabolizes alcohol, resulting in heightened sensitivity to it, although research is not conclusive, according to Dr. Mangarelli.

The risk for AUD is likely multifactorial, Dr. Mangarelli said.

“We don’t totally understand all of it, but if you’re experiencing a high more easily, that may lead to misuse,” Dr. Mangarelli said. “It’s also important to remember that this population of patients has experienced stigma for a very long time, and they often have associated mental health and body image issues.”

“Those problems don’t disappear on their own,” she added. “You want to make sure that patients are hooked into behavioral and mental health services before surgery so that they have somebody who’s following them after surgery.”

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

Legislators in New York City recently approved a bill specifically prohibiting weight- and height-based discrimination, on par with existing protections for gender, race, sexual orientation, and other personal identities. Other U.S. cities, as well as New York state, are considering similar moves.

Weight-based discrimination in the United States has increased by an estimated 66% over the past decade, putting it on par with the prevalence of racial discrimination. More than 40% of adult Americans and 18% of children report experiencing weight discrimination in employment, school, and/or health care settings – as well as within interpersonal relationships – demonstrating a clear need to have legal protections in place.

For obesity advocates in Canada, the news from New York triggered a moment of reflection to consider how our own advocacy efforts have fared over the years, or not. Just like in the United States, body size and obesity (and appearance in general) are not specifically protected grounds under human rights legislation in Canada (for example, the Canadian Human Rights Act), unlike race, gender, sexual orientation, and religion.

Case law is uneven across the Canadian provinces when it comes to determining whether obesity is even a disease and/or a disability. And despite broad support for anti–weight discrimination policies in Canada (Front Public Health. 2023 Apr 17;11:1060794; Milbank Q. 2015 Dec;93[4]:691-731), years of advocacy at the national and provincial levels have not led to any legislative changes (Ramos Salas Obes Rev. 2017 Nov;18[11]:1323-35; Can J Diabetes. 2015 Apr. doi: 10.1016/j.jcjd.2015.01.009). A 2017 private members bill seeking to add protection for body size to Manitoba’s human rights code was defeated, with many members of the legislature citing enforcement difficulties as the reason for voting down the proposition.

Some obesity advocates have argued that people living with obesity can be protected under the grounds of disability in the Canadian Human Rights Act. To be protected, however, individuals must demonstrate that there is actual or perceived disability relating to their weight or size; yet, many people living with obesity and those who have a higher weight don’t perceive themselves as having a disability.

In our view, the disparate viewpoints on the worthiness of considering body size a human rights issue could be resolved, at least partially, by wider understanding and adoption of the relatively new clinical definition of obesity. This definition holds that obesity is not about size; an obesity diagnosis can be made only when objective clinical investigations identify that excess or abnormal adiposity (fat tissue) impairs health.

While obesity advocates use the clinical definition of obesity, weight and body size proponents disagree that obesity is a chronic disease, and in fact believe that treating it as such can be stigmatizing. In a sense, this can sometimes be true, as not all people with larger bodies have obesity per the new definition but risk being identified as “unhealthy” in the clinical world. Bias, it turns out, can be a two-way street.

Regardless of the advocacy strategy used, it’s clear that specific anti–weight discrimination laws are needed in Canada. One in four Canadian adults report experiencing discrimination in their day-to-day life, with race, gender, age, and weight being the most commonly reported forms. To refuse to protect them against some, but not all, forms of discrimination is itself unjust, and is surely rooted in the age-old misinformed concept that excess weight is the result of laziness, poor food choices, and lack of physical activity, among other moral failings.

Including body size in human rights codes may provide a mechanism to seek legal remedy from discriminatory acts, but it will do little to address rampant weight bias, in the same way that race-based legal protections don’t eradicate racism. And it’s not just the legal community that fails to understand that weight is, by and large, a product of our environment and our genes. Weight bias and stigma are well documented in media, workplaces, the home, and in health care systems.

The solution, in our minds, is meaningful education across all these domains, reinforcing that weight is not a behavior, just as health is not a size. If we truly understand and embrace these concepts, then as a society we may someday recognize that body size is not a choice, just like race, sexual orientation, gender identity, and other individual characteristics. And if it’s not a choice, if it’s not a behavior, then it deserves the same protections.

At the same time, people with obesity deserve to seek evidence-based treatment, just as those at higher weights who experience no weight or adiposity-related health issues deserve not to be identified as having a disease simply because of their size.

If we all follow the science, we might yet turn a common understanding into more equitable outcomes for all.

Dr. Ramos Salas and Mr. Hussey are research consultants for Replica Communications, Hamilton, Ont. She disclosed ties with the Canadian Institutes of Health Research, European Association for the Study of Obesity, Novo Nordisk, Obesity Canada, The Obesity Society, World Obesity, and the World Health Organization. Mr. Hussey disclosed ties with the European Association for the Study of Obesity, Novo Nordisk, Obesity Canada, and the World Health Organization (Nutrition and Food Safety).

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

Legislators in New York City recently approved a bill specifically prohibiting weight- and height-based discrimination, on par with existing protections for gender, race, sexual orientation, and other personal identities. Other U.S. cities, as well as New York state, are considering similar moves.

Weight-based discrimination in the United States has increased by an estimated 66% over the past decade, putting it on par with the prevalence of racial discrimination. More than 40% of adult Americans and 18% of children report experiencing weight discrimination in employment, school, and/or health care settings – as well as within interpersonal relationships – demonstrating a clear need to have legal protections in place.

For obesity advocates in Canada, the news from New York triggered a moment of reflection to consider how our own advocacy efforts have fared over the years, or not. Just like in the United States, body size and obesity (and appearance in general) are not specifically protected grounds under human rights legislation in Canada (for example, the Canadian Human Rights Act), unlike race, gender, sexual orientation, and religion.

Case law is uneven across the Canadian provinces when it comes to determining whether obesity is even a disease and/or a disability. And despite broad support for anti–weight discrimination policies in Canada (Front Public Health. 2023 Apr 17;11:1060794; Milbank Q. 2015 Dec;93[4]:691-731), years of advocacy at the national and provincial levels have not led to any legislative changes (Ramos Salas Obes Rev. 2017 Nov;18[11]:1323-35; Can J Diabetes. 2015 Apr. doi: 10.1016/j.jcjd.2015.01.009). A 2017 private members bill seeking to add protection for body size to Manitoba’s human rights code was defeated, with many members of the legislature citing enforcement difficulties as the reason for voting down the proposition.

Some obesity advocates have argued that people living with obesity can be protected under the grounds of disability in the Canadian Human Rights Act. To be protected, however, individuals must demonstrate that there is actual or perceived disability relating to their weight or size; yet, many people living with obesity and those who have a higher weight don’t perceive themselves as having a disability.

In our view, the disparate viewpoints on the worthiness of considering body size a human rights issue could be resolved, at least partially, by wider understanding and adoption of the relatively new clinical definition of obesity. This definition holds that obesity is not about size; an obesity diagnosis can be made only when objective clinical investigations identify that excess or abnormal adiposity (fat tissue) impairs health.

While obesity advocates use the clinical definition of obesity, weight and body size proponents disagree that obesity is a chronic disease, and in fact believe that treating it as such can be stigmatizing. In a sense, this can sometimes be true, as not all people with larger bodies have obesity per the new definition but risk being identified as “unhealthy” in the clinical world. Bias, it turns out, can be a two-way street.

Regardless of the advocacy strategy used, it’s clear that specific anti–weight discrimination laws are needed in Canada. One in four Canadian adults report experiencing discrimination in their day-to-day life, with race, gender, age, and weight being the most commonly reported forms. To refuse to protect them against some, but not all, forms of discrimination is itself unjust, and is surely rooted in the age-old misinformed concept that excess weight is the result of laziness, poor food choices, and lack of physical activity, among other moral failings.

Including body size in human rights codes may provide a mechanism to seek legal remedy from discriminatory acts, but it will do little to address rampant weight bias, in the same way that race-based legal protections don’t eradicate racism. And it’s not just the legal community that fails to understand that weight is, by and large, a product of our environment and our genes. Weight bias and stigma are well documented in media, workplaces, the home, and in health care systems.

The solution, in our minds, is meaningful education across all these domains, reinforcing that weight is not a behavior, just as health is not a size. If we truly understand and embrace these concepts, then as a society we may someday recognize that body size is not a choice, just like race, sexual orientation, gender identity, and other individual characteristics. And if it’s not a choice, if it’s not a behavior, then it deserves the same protections.

At the same time, people with obesity deserve to seek evidence-based treatment, just as those at higher weights who experience no weight or adiposity-related health issues deserve not to be identified as having a disease simply because of their size.

If we all follow the science, we might yet turn a common understanding into more equitable outcomes for all.

Dr. Ramos Salas and Mr. Hussey are research consultants for Replica Communications, Hamilton, Ont. She disclosed ties with the Canadian Institutes of Health Research, European Association for the Study of Obesity, Novo Nordisk, Obesity Canada, The Obesity Society, World Obesity, and the World Health Organization. Mr. Hussey disclosed ties with the European Association for the Study of Obesity, Novo Nordisk, Obesity Canada, and the World Health Organization (Nutrition and Food Safety).

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

Legislators in New York City recently approved a bill specifically prohibiting weight- and height-based discrimination, on par with existing protections for gender, race, sexual orientation, and other personal identities. Other U.S. cities, as well as New York state, are considering similar moves.

Weight-based discrimination in the United States has increased by an estimated 66% over the past decade, putting it on par with the prevalence of racial discrimination. More than 40% of adult Americans and 18% of children report experiencing weight discrimination in employment, school, and/or health care settings – as well as within interpersonal relationships – demonstrating a clear need to have legal protections in place.

For obesity advocates in Canada, the news from New York triggered a moment of reflection to consider how our own advocacy efforts have fared over the years, or not. Just like in the United States, body size and obesity (and appearance in general) are not specifically protected grounds under human rights legislation in Canada (for example, the Canadian Human Rights Act), unlike race, gender, sexual orientation, and religion.

Case law is uneven across the Canadian provinces when it comes to determining whether obesity is even a disease and/or a disability. And despite broad support for anti–weight discrimination policies in Canada (Front Public Health. 2023 Apr 17;11:1060794; Milbank Q. 2015 Dec;93[4]:691-731), years of advocacy at the national and provincial levels have not led to any legislative changes (Ramos Salas Obes Rev. 2017 Nov;18[11]:1323-35; Can J Diabetes. 2015 Apr. doi: 10.1016/j.jcjd.2015.01.009). A 2017 private members bill seeking to add protection for body size to Manitoba’s human rights code was defeated, with many members of the legislature citing enforcement difficulties as the reason for voting down the proposition.

Some obesity advocates have argued that people living with obesity can be protected under the grounds of disability in the Canadian Human Rights Act. To be protected, however, individuals must demonstrate that there is actual or perceived disability relating to their weight or size; yet, many people living with obesity and those who have a higher weight don’t perceive themselves as having a disability.

In our view, the disparate viewpoints on the worthiness of considering body size a human rights issue could be resolved, at least partially, by wider understanding and adoption of the relatively new clinical definition of obesity. This definition holds that obesity is not about size; an obesity diagnosis can be made only when objective clinical investigations identify that excess or abnormal adiposity (fat tissue) impairs health.

While obesity advocates use the clinical definition of obesity, weight and body size proponents disagree that obesity is a chronic disease, and in fact believe that treating it as such can be stigmatizing. In a sense, this can sometimes be true, as not all people with larger bodies have obesity per the new definition but risk being identified as “unhealthy” in the clinical world. Bias, it turns out, can be a two-way street.

Regardless of the advocacy strategy used, it’s clear that specific anti–weight discrimination laws are needed in Canada. One in four Canadian adults report experiencing discrimination in their day-to-day life, with race, gender, age, and weight being the most commonly reported forms. To refuse to protect them against some, but not all, forms of discrimination is itself unjust, and is surely rooted in the age-old misinformed concept that excess weight is the result of laziness, poor food choices, and lack of physical activity, among other moral failings.

Including body size in human rights codes may provide a mechanism to seek legal remedy from discriminatory acts, but it will do little to address rampant weight bias, in the same way that race-based legal protections don’t eradicate racism. And it’s not just the legal community that fails to understand that weight is, by and large, a product of our environment and our genes. Weight bias and stigma are well documented in media, workplaces, the home, and in health care systems.

The solution, in our minds, is meaningful education across all these domains, reinforcing that weight is not a behavior, just as health is not a size. If we truly understand and embrace these concepts, then as a society we may someday recognize that body size is not a choice, just like race, sexual orientation, gender identity, and other individual characteristics. And if it’s not a choice, if it’s not a behavior, then it deserves the same protections.

At the same time, people with obesity deserve to seek evidence-based treatment, just as those at higher weights who experience no weight or adiposity-related health issues deserve not to be identified as having a disease simply because of their size.

If we all follow the science, we might yet turn a common understanding into more equitable outcomes for all.

Dr. Ramos Salas and Mr. Hussey are research consultants for Replica Communications, Hamilton, Ont. She disclosed ties with the Canadian Institutes of Health Research, European Association for the Study of Obesity, Novo Nordisk, Obesity Canada, The Obesity Society, World Obesity, and the World Health Organization. Mr. Hussey disclosed ties with the European Association for the Study of Obesity, Novo Nordisk, Obesity Canada, and the World Health Organization (Nutrition and Food Safety).

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

In 1952, when Dr. Virginia Apgar developed her 10-point scale for assessing neonates’ health, the U.S. obstetrical anesthesiologst may not have foreseen it would one day become one of the commonest medical tests in the world.

Assigned even before the mother first holds her newborn, the score rapidly evaluates neonates with a score of 0-10, which leads to an algorithm of potential medical interventions. The scale evaluates heart rate, respiratory effort, muscle tone, reflex response, and skin coloring (typically described as blue body, pink body/blue limbs, or pink body).

Dr. Amos Grunebaum

“The Apgar is a very important tool used in millions of babies around the world in the very first minute after birth,” said Amos Grunebaum, MD, a professor of obstetrics and gynecology at Hofstra University, Hempstead, N.Y., and director of perinatal research at Northwell Lenox Hill Hospital in Manhattan.

But recently the venerable system has increasingly come under fire for colorism and racial bias, with some calling for an overhaul. That pressure is due to the 2 out of 10 points allotted to an overall “pink” skin tone, a measure that lowers the scores of non-White newborns and may expose them to unnecessary measures such as resuscitation, neonatal intensive care, and intubation.

“This is their first encounter with systemic racism,” said Dr. Grunebaum in an interview. “The score is prejudiced against Black babies because they can’t get perfect scores.”

Propagating ‘race-based medicine’

Concern about racial bias embedded in the Apgar score is not new, Dr. Grunebaum noted.

“Decades ago, when I was doing my training in Brooklyn, the nurses said that using skin color was ridiculous since Black and brown babies couldn’t be pink. And skin color looks different in different lighting. Dr. Apgar herself recognized the problem.”

Furthermore, men see color differently than women do, and some people are actually color-blind.“But nobody wanted to speak out,” Dr. Grunebaum said. “It was like the emperor’s new clothes scenario.”

In his view, embedding skin color scoring into basic data and health care decisions propagates race-based medicine. “It should not be used for White, Black, or brown babies,” he said.

Removing the skin color portion of the Apgar score – and its racial, colorist, and ethnic bias – will provide more accurate and equitable evaluation of newborn babies worldwide, Dr. Grunebaum said.

Dr. Sara E. Edwards

“I think there’s a pretty good argument to be made that the skin color measure should be eliminated,” agreed Sara E. Edwards, MD, an obstetrician-gynecologist at the University of Illinois Hospital in Chicago, who has also studied Apgar and racial bias in the clinical care of Black babies.

And such clinical bias may soon be illegal in the United States thanks to a proposed new antidiscrimination provision to the Affordable Care Act regarding the use of clinical algorithms in decision-making. The proposed section, § 92.210, states that a covered entity must not discriminate against any individual on the basis of race, color, national origin, sex, age, or disability through clinical algorithms used in decision-making. Hospitals may soon have to alter clinical algorithms in response.

Dr. Grunebaum’s research in the area of clinical racism includes a large 2022 cohort study of almost 10 million mothers and more than 8 million fathers using 2016-2019 natality data from the National Center for Health Statistics, and Division of Vital Statistics. This study found that Black newborns had a less than 50% chance of having a 5-minute Apgar score of 10, compared with White newborns. White babies, both non-Hispanic and Hispanic, had the highest proportion of perfect 10s.

But can the 2-point skin tone indicator be easily replaced? According to Dr. Grunebaum, substituting indicators such as oral mucosa color or oximetry readings are not satisfactory either. “For one thing, oximetry gives different readings in Black [people],” he said.

In her group’s Apgar research, Dr. Edwards found that care providers applied variable and inaccurate scores based on neonatal race – independently of clinical factors and umbilical-cord gas values.

“In Black neonates umbilical cord gases were not in agreement with lower Apgar scores,” she said. In her view, these inaccuracies point to the existence of colorism and racial bias among health care providers.
 

Bias ‘creeping in’ to neonatal care

Dr. Edwards’s research was prompted by anecdotal observations that Black babies generally had lower Apgar scores and were more frequently sent to the NICU. “Admission to the NICU can have a negative effect on maternal-child bonding and contribute to PTSD in mothers,” she said.

Her group looked at Apgar scores by race for the year 2019 in an academic hospital cohort of 977 neonates, of whom 56.5% were Black, while controlling for confounding clinical factors.

“Our anecdotal observations of how we score Black neonates were confirmed,” she said. Providers assigned Black babies significantly lower Apgar scores at 1 minute and 5 minutes (odds ratios, .63 and .64) when controlling for umbilical artery gases, gestational age, and maternal-fetal complications.

This difference was specifically associated with lower assigned color Apgar scores at 1 minute (odds ratio, .52). Moreover, full-term Black neonates were sent to neonatal intensive care at higher rates (odds ratio, 1.29) than non-Black neonates when controlling for all the above factors.

Providers applied inaccurate Apgar scores to Black neonates given that the umbilical cord gases were not in agreement with lower Apgar scores, suggesting that colorism and racial biases do exist among health care providers. “We saw bias creeping in because of subjective decisions about color,” Dr. Edwards said. But by the more objective measure of umbilical-cord gas, Black neonates did not have the abnormal values to support NICU admission. The mean umbilical artery pH was 7.259 for Black vs. 7.256 for non-Black neonates.

The solution may lie in switching to an 8 out of 8 score or looking at other indicators such as the eyes and the nail beds, she said. “Or there may be a way to score skin tone accurately when providers are appropriately trained to do so on neonates of all races, to recognize what a well-perfused skin color looks like in all babies.”
 

New scoring system needed

Interest in this issue continues. In 2022, a population study was conducted by Emma Gillette, MPH, of the Icahn School of Medicine at Mount Sinai, New York, and colleagues in a cohort of almost 7 million singletons born in 2016-2017.

Emma Gillette

“We found that overall, Apgar scores were highly associated with mortality across the first year of life,” Ms. Gillette said in an interview. “But non-Hispanic Black infants were more likely to be assigned low Apgar scores compared to White infants, and the odds of death in the first year of life are not as strongly correlated with Apgar scores as in White infants.”

That finding was surprising. “Apgar scores are meant to be an indicator of newborn health and well-being and predictors of infant mortality, and therefore should not vary significantly by race or skin color,” she said. “So I think further study into the component scores of the Apgar score is warranted to try to tease out the reasons behind the differences we’re seeing.”

Ms. Gillette agreed that the skin coloring component of the variable could be inaccurate since variables related to skin color more generally are subjective and difficult to measure. What’s needed is a scoring system that performs equally well across racial groups.

In the meantime, some clinicians may be making practical accommodations. “I hate to tell you, but some people fake the skin score,” said Dr. Grunebaum. “I recently asked a doctor from Ethiopia how they handled it there, and he laughed and said they just automatically give skin color a 2. But faking it is not what you should have to do in medicine.”

Dr. Grunebaum, Dr. Edwards, and Ms. Gillette disclosed no relevant competing interests with respect to their comments.

In 1952, when Dr. Virginia Apgar developed her 10-point scale for assessing neonates’ health, the U.S. obstetrical anesthesiologst may not have foreseen it would one day become one of the commonest medical tests in the world.

Assigned even before the mother first holds her newborn, the score rapidly evaluates neonates with a score of 0-10, which leads to an algorithm of potential medical interventions. The scale evaluates heart rate, respiratory effort, muscle tone, reflex response, and skin coloring (typically described as blue body, pink body/blue limbs, or pink body).

Dr. Amos Grunebaum

“The Apgar is a very important tool used in millions of babies around the world in the very first minute after birth,” said Amos Grunebaum, MD, a professor of obstetrics and gynecology at Hofstra University, Hempstead, N.Y., and director of perinatal research at Northwell Lenox Hill Hospital in Manhattan.

But recently the venerable system has increasingly come under fire for colorism and racial bias, with some calling for an overhaul. That pressure is due to the 2 out of 10 points allotted to an overall “pink” skin tone, a measure that lowers the scores of non-White newborns and may expose them to unnecessary measures such as resuscitation, neonatal intensive care, and intubation.

“This is their first encounter with systemic racism,” said Dr. Grunebaum in an interview. “The score is prejudiced against Black babies because they can’t get perfect scores.”

Propagating ‘race-based medicine’

Concern about racial bias embedded in the Apgar score is not new, Dr. Grunebaum noted.

“Decades ago, when I was doing my training in Brooklyn, the nurses said that using skin color was ridiculous since Black and brown babies couldn’t be pink. And skin color looks different in different lighting. Dr. Apgar herself recognized the problem.”

Furthermore, men see color differently than women do, and some people are actually color-blind.“But nobody wanted to speak out,” Dr. Grunebaum said. “It was like the emperor’s new clothes scenario.”

In his view, embedding skin color scoring into basic data and health care decisions propagates race-based medicine. “It should not be used for White, Black, or brown babies,” he said.

Removing the skin color portion of the Apgar score – and its racial, colorist, and ethnic bias – will provide more accurate and equitable evaluation of newborn babies worldwide, Dr. Grunebaum said.

Dr. Sara E. Edwards

“I think there’s a pretty good argument to be made that the skin color measure should be eliminated,” agreed Sara E. Edwards, MD, an obstetrician-gynecologist at the University of Illinois Hospital in Chicago, who has also studied Apgar and racial bias in the clinical care of Black babies.

And such clinical bias may soon be illegal in the United States thanks to a proposed new antidiscrimination provision to the Affordable Care Act regarding the use of clinical algorithms in decision-making. The proposed section, § 92.210, states that a covered entity must not discriminate against any individual on the basis of race, color, national origin, sex, age, or disability through clinical algorithms used in decision-making. Hospitals may soon have to alter clinical algorithms in response.

Dr. Grunebaum’s research in the area of clinical racism includes a large 2022 cohort study of almost 10 million mothers and more than 8 million fathers using 2016-2019 natality data from the National Center for Health Statistics, and Division of Vital Statistics. This study found that Black newborns had a less than 50% chance of having a 5-minute Apgar score of 10, compared with White newborns. White babies, both non-Hispanic and Hispanic, had the highest proportion of perfect 10s.

But can the 2-point skin tone indicator be easily replaced? According to Dr. Grunebaum, substituting indicators such as oral mucosa color or oximetry readings are not satisfactory either. “For one thing, oximetry gives different readings in Black [people],” he said.

In her group’s Apgar research, Dr. Edwards found that care providers applied variable and inaccurate scores based on neonatal race – independently of clinical factors and umbilical-cord gas values.

“In Black neonates umbilical cord gases were not in agreement with lower Apgar scores,” she said. In her view, these inaccuracies point to the existence of colorism and racial bias among health care providers.
 

Bias ‘creeping in’ to neonatal care

Dr. Edwards’s research was prompted by anecdotal observations that Black babies generally had lower Apgar scores and were more frequently sent to the NICU. “Admission to the NICU can have a negative effect on maternal-child bonding and contribute to PTSD in mothers,” she said.

Her group looked at Apgar scores by race for the year 2019 in an academic hospital cohort of 977 neonates, of whom 56.5% were Black, while controlling for confounding clinical factors.

“Our anecdotal observations of how we score Black neonates were confirmed,” she said. Providers assigned Black babies significantly lower Apgar scores at 1 minute and 5 minutes (odds ratios, .63 and .64) when controlling for umbilical artery gases, gestational age, and maternal-fetal complications.

This difference was specifically associated with lower assigned color Apgar scores at 1 minute (odds ratio, .52). Moreover, full-term Black neonates were sent to neonatal intensive care at higher rates (odds ratio, 1.29) than non-Black neonates when controlling for all the above factors.

Providers applied inaccurate Apgar scores to Black neonates given that the umbilical cord gases were not in agreement with lower Apgar scores, suggesting that colorism and racial biases do exist among health care providers. “We saw bias creeping in because of subjective decisions about color,” Dr. Edwards said. But by the more objective measure of umbilical-cord gas, Black neonates did not have the abnormal values to support NICU admission. The mean umbilical artery pH was 7.259 for Black vs. 7.256 for non-Black neonates.

The solution may lie in switching to an 8 out of 8 score or looking at other indicators such as the eyes and the nail beds, she said. “Or there may be a way to score skin tone accurately when providers are appropriately trained to do so on neonates of all races, to recognize what a well-perfused skin color looks like in all babies.”
 

New scoring system needed

Interest in this issue continues. In 2022, a population study was conducted by Emma Gillette, MPH, of the Icahn School of Medicine at Mount Sinai, New York, and colleagues in a cohort of almost 7 million singletons born in 2016-2017.

Emma Gillette

“We found that overall, Apgar scores were highly associated with mortality across the first year of life,” Ms. Gillette said in an interview. “But non-Hispanic Black infants were more likely to be assigned low Apgar scores compared to White infants, and the odds of death in the first year of life are not as strongly correlated with Apgar scores as in White infants.”

That finding was surprising. “Apgar scores are meant to be an indicator of newborn health and well-being and predictors of infant mortality, and therefore should not vary significantly by race or skin color,” she said. “So I think further study into the component scores of the Apgar score is warranted to try to tease out the reasons behind the differences we’re seeing.”

Ms. Gillette agreed that the skin coloring component of the variable could be inaccurate since variables related to skin color more generally are subjective and difficult to measure. What’s needed is a scoring system that performs equally well across racial groups.

In the meantime, some clinicians may be making practical accommodations. “I hate to tell you, but some people fake the skin score,” said Dr. Grunebaum. “I recently asked a doctor from Ethiopia how they handled it there, and he laughed and said they just automatically give skin color a 2. But faking it is not what you should have to do in medicine.”

Dr. Grunebaum, Dr. Edwards, and Ms. Gillette disclosed no relevant competing interests with respect to their comments.

In 1952, when Dr. Virginia Apgar developed her 10-point scale for assessing neonates’ health, the U.S. obstetrical anesthesiologst may not have foreseen it would one day become one of the commonest medical tests in the world.

Assigned even before the mother first holds her newborn, the score rapidly evaluates neonates with a score of 0-10, which leads to an algorithm of potential medical interventions. The scale evaluates heart rate, respiratory effort, muscle tone, reflex response, and skin coloring (typically described as blue body, pink body/blue limbs, or pink body).

Dr. Amos Grunebaum

“The Apgar is a very important tool used in millions of babies around the world in the very first minute after birth,” said Amos Grunebaum, MD, a professor of obstetrics and gynecology at Hofstra University, Hempstead, N.Y., and director of perinatal research at Northwell Lenox Hill Hospital in Manhattan.

But recently the venerable system has increasingly come under fire for colorism and racial bias, with some calling for an overhaul. That pressure is due to the 2 out of 10 points allotted to an overall “pink” skin tone, a measure that lowers the scores of non-White newborns and may expose them to unnecessary measures such as resuscitation, neonatal intensive care, and intubation.

“This is their first encounter with systemic racism,” said Dr. Grunebaum in an interview. “The score is prejudiced against Black babies because they can’t get perfect scores.”

Propagating ‘race-based medicine’

Concern about racial bias embedded in the Apgar score is not new, Dr. Grunebaum noted.

“Decades ago, when I was doing my training in Brooklyn, the nurses said that using skin color was ridiculous since Black and brown babies couldn’t be pink. And skin color looks different in different lighting. Dr. Apgar herself recognized the problem.”

Furthermore, men see color differently than women do, and some people are actually color-blind.“But nobody wanted to speak out,” Dr. Grunebaum said. “It was like the emperor’s new clothes scenario.”

In his view, embedding skin color scoring into basic data and health care decisions propagates race-based medicine. “It should not be used for White, Black, or brown babies,” he said.

Removing the skin color portion of the Apgar score – and its racial, colorist, and ethnic bias – will provide more accurate and equitable evaluation of newborn babies worldwide, Dr. Grunebaum said.

Dr. Sara E. Edwards

“I think there’s a pretty good argument to be made that the skin color measure should be eliminated,” agreed Sara E. Edwards, MD, an obstetrician-gynecologist at the University of Illinois Hospital in Chicago, who has also studied Apgar and racial bias in the clinical care of Black babies.

And such clinical bias may soon be illegal in the United States thanks to a proposed new antidiscrimination provision to the Affordable Care Act regarding the use of clinical algorithms in decision-making. The proposed section, § 92.210, states that a covered entity must not discriminate against any individual on the basis of race, color, national origin, sex, age, or disability through clinical algorithms used in decision-making. Hospitals may soon have to alter clinical algorithms in response.

Dr. Grunebaum’s research in the area of clinical racism includes a large 2022 cohort study of almost 10 million mothers and more than 8 million fathers using 2016-2019 natality data from the National Center for Health Statistics, and Division of Vital Statistics. This study found that Black newborns had a less than 50% chance of having a 5-minute Apgar score of 10, compared with White newborns. White babies, both non-Hispanic and Hispanic, had the highest proportion of perfect 10s.

But can the 2-point skin tone indicator be easily replaced? According to Dr. Grunebaum, substituting indicators such as oral mucosa color or oximetry readings are not satisfactory either. “For one thing, oximetry gives different readings in Black [people],” he said.

In her group’s Apgar research, Dr. Edwards found that care providers applied variable and inaccurate scores based on neonatal race – independently of clinical factors and umbilical-cord gas values.

“In Black neonates umbilical cord gases were not in agreement with lower Apgar scores,” she said. In her view, these inaccuracies point to the existence of colorism and racial bias among health care providers.
 

Bias ‘creeping in’ to neonatal care

Dr. Edwards’s research was prompted by anecdotal observations that Black babies generally had lower Apgar scores and were more frequently sent to the NICU. “Admission to the NICU can have a negative effect on maternal-child bonding and contribute to PTSD in mothers,” she said.

Her group looked at Apgar scores by race for the year 2019 in an academic hospital cohort of 977 neonates, of whom 56.5% were Black, while controlling for confounding clinical factors.

“Our anecdotal observations of how we score Black neonates were confirmed,” she said. Providers assigned Black babies significantly lower Apgar scores at 1 minute and 5 minutes (odds ratios, .63 and .64) when controlling for umbilical artery gases, gestational age, and maternal-fetal complications.

This difference was specifically associated with lower assigned color Apgar scores at 1 minute (odds ratio, .52). Moreover, full-term Black neonates were sent to neonatal intensive care at higher rates (odds ratio, 1.29) than non-Black neonates when controlling for all the above factors.

Providers applied inaccurate Apgar scores to Black neonates given that the umbilical cord gases were not in agreement with lower Apgar scores, suggesting that colorism and racial biases do exist among health care providers. “We saw bias creeping in because of subjective decisions about color,” Dr. Edwards said. But by the more objective measure of umbilical-cord gas, Black neonates did not have the abnormal values to support NICU admission. The mean umbilical artery pH was 7.259 for Black vs. 7.256 for non-Black neonates.

The solution may lie in switching to an 8 out of 8 score or looking at other indicators such as the eyes and the nail beds, she said. “Or there may be a way to score skin tone accurately when providers are appropriately trained to do so on neonates of all races, to recognize what a well-perfused skin color looks like in all babies.”
 

New scoring system needed

Interest in this issue continues. In 2022, a population study was conducted by Emma Gillette, MPH, of the Icahn School of Medicine at Mount Sinai, New York, and colleagues in a cohort of almost 7 million singletons born in 2016-2017.

Emma Gillette

“We found that overall, Apgar scores were highly associated with mortality across the first year of life,” Ms. Gillette said in an interview. “But non-Hispanic Black infants were more likely to be assigned low Apgar scores compared to White infants, and the odds of death in the first year of life are not as strongly correlated with Apgar scores as in White infants.”

That finding was surprising. “Apgar scores are meant to be an indicator of newborn health and well-being and predictors of infant mortality, and therefore should not vary significantly by race or skin color,” she said. “So I think further study into the component scores of the Apgar score is warranted to try to tease out the reasons behind the differences we’re seeing.”

Ms. Gillette agreed that the skin coloring component of the variable could be inaccurate since variables related to skin color more generally are subjective and difficult to measure. What’s needed is a scoring system that performs equally well across racial groups.

In the meantime, some clinicians may be making practical accommodations. “I hate to tell you, but some people fake the skin score,” said Dr. Grunebaum. “I recently asked a doctor from Ethiopia how they handled it there, and he laughed and said they just automatically give skin color a 2. But faking it is not what you should have to do in medicine.”

Dr. Grunebaum, Dr. Edwards, and Ms. Gillette disclosed no relevant competing interests with respect to their comments.

When the nails peel off from the proximal nail folds, the clinical term is onychomadesis and it is important to ask about recent infections or severe metabolic stressors. In children and adults, onychomadesis on multiple fingers may occur after infections and has been associated with hand-foot-mouth disease caused by common viral infections—especially strains of coxsackievirus.¹

Because shed nails show evidence of viral infection, one hypothesis for their peeling off is that the tissue of the nail matrix is infected, leading to metabolic changes. As the nail matrix returns to normal function, a new nail is made and ultimately will replace the nail that has come off. In healthy US adults, fingernails grow 3.47 mm per month on average while toenails grow 1.62 mm per month on average.²

Sometimes it’s hard to elicit a history of a very mild viral illness weeks or months after it has resolved. Asking specifically about mouth ulcers may help. If there is a history of a viral illness, no specific work-up or treatment is necessary. Patients may be reassured that nails will improve over several months without lasting effects.

In this case, the patient and her family were given reassurance and the nails returned to normal within a few months.

‌

Photos and text for Photo Rounds Friday courtesy of Jonathan Karnes, MD (copyright retained). Dr. Karnes is the medical director of MDFMR Dermatology Services, Augusta, ME.

When the nails peel off from the proximal nail folds, the clinical term is onychomadesis and it is important to ask about recent infections or severe metabolic stressors. In children and adults, onychomadesis on multiple fingers may occur after infections and has been associated with hand-foot-mouth disease caused by common viral infections—especially strains of coxsackievirus.¹

Because shed nails show evidence of viral infection, one hypothesis for their peeling off is that the tissue of the nail matrix is infected, leading to metabolic changes. As the nail matrix returns to normal function, a new nail is made and ultimately will replace the nail that has come off. In healthy US adults, fingernails grow 3.47 mm per month on average while toenails grow 1.62 mm per month on average.²

Sometimes it’s hard to elicit a history of a very mild viral illness weeks or months after it has resolved. Asking specifically about mouth ulcers may help. If there is a history of a viral illness, no specific work-up or treatment is necessary. Patients may be reassured that nails will improve over several months without lasting effects.

In this case, the patient and her family were given reassurance and the nails returned to normal within a few months.

‌

Photos and text for Photo Rounds Friday courtesy of Jonathan Karnes, MD (copyright retained). Dr. Karnes is the medical director of MDFMR Dermatology Services, Augusta, ME.

When the nails peel off from the proximal nail folds, the clinical term is onychomadesis and it is important to ask about recent infections or severe metabolic stressors. In children and adults, onychomadesis on multiple fingers may occur after infections and has been associated with hand-foot-mouth disease caused by common viral infections—especially strains of coxsackievirus.¹

Because shed nails show evidence of viral infection, one hypothesis for their peeling off is that the tissue of the nail matrix is infected, leading to metabolic changes. As the nail matrix returns to normal function, a new nail is made and ultimately will replace the nail that has come off. In healthy US adults, fingernails grow 3.47 mm per month on average while toenails grow 1.62 mm per month on average.²

Sometimes it’s hard to elicit a history of a very mild viral illness weeks or months after it has resolved. Asking specifically about mouth ulcers may help. If there is a history of a viral illness, no specific work-up or treatment is necessary. Patients may be reassured that nails will improve over several months without lasting effects.

In this case, the patient and her family were given reassurance and the nails returned to normal within a few months.

‌

Photos and text for Photo Rounds Friday courtesy of Jonathan Karnes, MD (copyright retained). Dr. Karnes is the medical director of MDFMR Dermatology Services, Augusta, ME.

While the typical dose of methotrexate (MTX) for inflammatory disease in pediatric patients varies in published studies, the maximum dose is considered to be 1 mg/kg and not to exceed 25 mg/week. In addition, test doses are not necessary for pediatric patients starting low dose (1 mg/kg or less) MTX for inflammatory skin disease, and the onset of efficacy with MTX may take 8-16 weeks.

Those are among 46 evidence- and consensus-based recommendations about the use of MTX for inflammatory skin disease in pediatric patients that were developed by a committee of 23 experts and published online in Pediatric Dermatology.

“Methotrexate is a cost-effective, readily accessible, well-tolerated, useful, and time-honored option for children with a spectrum of inflammatory skin diseases,” project cochair Elaine C. Siegfried, MD, professor of pediatrics and dermatology at Saint Louis University, told this news organization. “Although considered an ‘immune suppressant’ by some, it is more accurately classified as an immune modulator and has been widely used for more than 50 years, and remains the standard of care when administered at very high doses and intrathecally in children with acute lymphoblastic leukemia – a practice that supports safety. But many details that support optimized treatment are not widely appreciated.”

• MTX can be discontinued abruptly without adverse effects, other than the risk of disease worsening.
• Folic acid supplementation (starting at 1 mg/day, regardless of weight) is an effective approach to minimizing associated gastrointestinal adverse effects.
• Concomitant use of MTX and antibiotics (including trimethoprim-sulfamethoxazole) and NSAIDS are not contraindicated for most pediatric patients treated for inflammatory skin disease.
• Live virus vaccine boosters such as varicella-zoster virus (VZV) and measles, mumps, and rubella (MMR) are not contraindicated in patients taking MTX; there are insufficient data to make recommendations for or against primary immunization with MMR vaccine in patients taking MTX; inactivated vaccines should be given to patients taking MTX.
• Routine surveillance laboratory monitoring (i.e., CBC with differential, alanine transaminase, aspartate aminotransferase, creatinine) is recommended at baseline, after 1 month of treatment, and every 3-4 months thereafter.
• Transient transaminase elevation (≤ 3 upper limit normal for < 3 months) is not uncommon with low-dose MTX and does not usually require interruption of MTX. The most likely causes are concomitant viral infection, MTX dosing within 24 hours prior to phlebotomy, recent administration of other medications (such as acetaminophen), and/or recent alcohol consumption.
• Liver biopsy is not indicated for routine monitoring of pediatric patients taking low-dose MTX.

According to Dr. Siegfried, consensus of the committee members was lowest on the need for a test dose of MTX.

Overall, she said in the interview, helping to craft the guidelines caused her to reflect on how her approach to using MTX has evolved over the past 35 years, after treating “many hundreds” of patients. “I was gratified to confirm similar practice patterns among my colleagues,” she added.

The project’s other cochair was Heather Brandling-Bennett, MD, a dermatologist at Seattle Children’s Hospital. This work was supported by a grant from the Pediatric Dermatology Research Alliance (PeDRA), with additional funding from the National Eczema Association and the National Psoriasis Foundation. Dr. Siegfried disclosed ties with AbbVie, Boehringer Ingelheim, Incyte, LEO Pharma, Novan, Novartis, Pierre Fabre, Pfizer, Regeneron, Sanofi Genzyme, UCB, and Verrica. She has participated in contracted research for AI Therapeutics, and has served as principal investigator for Janssen. Many of the guideline coauthors disclosed having received grant support and other funding from pharmaceutical companies.

While the typical dose of methotrexate (MTX) for inflammatory disease in pediatric patients varies in published studies, the maximum dose is considered to be 1 mg/kg and not to exceed 25 mg/week. In addition, test doses are not necessary for pediatric patients starting low dose (1 mg/kg or less) MTX for inflammatory skin disease, and the onset of efficacy with MTX may take 8-16 weeks.

Those are among 46 evidence- and consensus-based recommendations about the use of MTX for inflammatory skin disease in pediatric patients that were developed by a committee of 23 experts and published online in Pediatric Dermatology.

“Methotrexate is a cost-effective, readily accessible, well-tolerated, useful, and time-honored option for children with a spectrum of inflammatory skin diseases,” project cochair Elaine C. Siegfried, MD, professor of pediatrics and dermatology at Saint Louis University, told this news organization. “Although considered an ‘immune suppressant’ by some, it is more accurately classified as an immune modulator and has been widely used for more than 50 years, and remains the standard of care when administered at very high doses and intrathecally in children with acute lymphoblastic leukemia – a practice that supports safety. But many details that support optimized treatment are not widely appreciated.”

• MTX can be discontinued abruptly without adverse effects, other than the risk of disease worsening.
• Folic acid supplementation (starting at 1 mg/day, regardless of weight) is an effective approach to minimizing associated gastrointestinal adverse effects.
• Concomitant use of MTX and antibiotics (including trimethoprim-sulfamethoxazole) and NSAIDS are not contraindicated for most pediatric patients treated for inflammatory skin disease.
• Live virus vaccine boosters such as varicella-zoster virus (VZV) and measles, mumps, and rubella (MMR) are not contraindicated in patients taking MTX; there are insufficient data to make recommendations for or against primary immunization with MMR vaccine in patients taking MTX; inactivated vaccines should be given to patients taking MTX.
• Routine surveillance laboratory monitoring (i.e., CBC with differential, alanine transaminase, aspartate aminotransferase, creatinine) is recommended at baseline, after 1 month of treatment, and every 3-4 months thereafter.
• Transient transaminase elevation (≤ 3 upper limit normal for < 3 months) is not uncommon with low-dose MTX and does not usually require interruption of MTX. The most likely causes are concomitant viral infection, MTX dosing within 24 hours prior to phlebotomy, recent administration of other medications (such as acetaminophen), and/or recent alcohol consumption.
• Liver biopsy is not indicated for routine monitoring of pediatric patients taking low-dose MTX.

According to Dr. Siegfried, consensus of the committee members was lowest on the need for a test dose of MTX.

Overall, she said in the interview, helping to craft the guidelines caused her to reflect on how her approach to using MTX has evolved over the past 35 years, after treating “many hundreds” of patients. “I was gratified to confirm similar practice patterns among my colleagues,” she added.

The project’s other cochair was Heather Brandling-Bennett, MD, a dermatologist at Seattle Children’s Hospital. This work was supported by a grant from the Pediatric Dermatology Research Alliance (PeDRA), with additional funding from the National Eczema Association and the National Psoriasis Foundation. Dr. Siegfried disclosed ties with AbbVie, Boehringer Ingelheim, Incyte, LEO Pharma, Novan, Novartis, Pierre Fabre, Pfizer, Regeneron, Sanofi Genzyme, UCB, and Verrica. She has participated in contracted research for AI Therapeutics, and has served as principal investigator for Janssen. Many of the guideline coauthors disclosed having received grant support and other funding from pharmaceutical companies.

While the typical dose of methotrexate (MTX) for inflammatory disease in pediatric patients varies in published studies, the maximum dose is considered to be 1 mg/kg and not to exceed 25 mg/week. In addition, test doses are not necessary for pediatric patients starting low dose (1 mg/kg or less) MTX for inflammatory skin disease, and the onset of efficacy with MTX may take 8-16 weeks.

Those are among 46 evidence- and consensus-based recommendations about the use of MTX for inflammatory skin disease in pediatric patients that were developed by a committee of 23 experts and published online in Pediatric Dermatology.

“Methotrexate is a cost-effective, readily accessible, well-tolerated, useful, and time-honored option for children with a spectrum of inflammatory skin diseases,” project cochair Elaine C. Siegfried, MD, professor of pediatrics and dermatology at Saint Louis University, told this news organization. “Although considered an ‘immune suppressant’ by some, it is more accurately classified as an immune modulator and has been widely used for more than 50 years, and remains the standard of care when administered at very high doses and intrathecally in children with acute lymphoblastic leukemia – a practice that supports safety. But many details that support optimized treatment are not widely appreciated.”

• MTX can be discontinued abruptly without adverse effects, other than the risk of disease worsening.
• Folic acid supplementation (starting at 1 mg/day, regardless of weight) is an effective approach to minimizing associated gastrointestinal adverse effects.
• Concomitant use of MTX and antibiotics (including trimethoprim-sulfamethoxazole) and NSAIDS are not contraindicated for most pediatric patients treated for inflammatory skin disease.
• Live virus vaccine boosters such as varicella-zoster virus (VZV) and measles, mumps, and rubella (MMR) are not contraindicated in patients taking MTX; there are insufficient data to make recommendations for or against primary immunization with MMR vaccine in patients taking MTX; inactivated vaccines should be given to patients taking MTX.
• Routine surveillance laboratory monitoring (i.e., CBC with differential, alanine transaminase, aspartate aminotransferase, creatinine) is recommended at baseline, after 1 month of treatment, and every 3-4 months thereafter.
• Transient transaminase elevation (≤ 3 upper limit normal for < 3 months) is not uncommon with low-dose MTX and does not usually require interruption of MTX. The most likely causes are concomitant viral infection, MTX dosing within 24 hours prior to phlebotomy, recent administration of other medications (such as acetaminophen), and/or recent alcohol consumption.
• Liver biopsy is not indicated for routine monitoring of pediatric patients taking low-dose MTX.

According to Dr. Siegfried, consensus of the committee members was lowest on the need for a test dose of MTX.

Overall, she said in the interview, helping to craft the guidelines caused her to reflect on how her approach to using MTX has evolved over the past 35 years, after treating “many hundreds” of patients. “I was gratified to confirm similar practice patterns among my colleagues,” she added.

The project’s other cochair was Heather Brandling-Bennett, MD, a dermatologist at Seattle Children’s Hospital. This work was supported by a grant from the Pediatric Dermatology Research Alliance (PeDRA), with additional funding from the National Eczema Association and the National Psoriasis Foundation. Dr. Siegfried disclosed ties with AbbVie, Boehringer Ingelheim, Incyte, LEO Pharma, Novan, Novartis, Pierre Fabre, Pfizer, Regeneron, Sanofi Genzyme, UCB, and Verrica. She has participated in contracted research for AI Therapeutics, and has served as principal investigator for Janssen. Many of the guideline coauthors disclosed having received grant support and other funding from pharmaceutical companies.

More than 15 years in the making, the revised AAP Clinical Practice Guideline Revision: Management of Hyperbilirubinemia in the Newborn Infant 35 or More Weeks of Gestation was released in 2022. A key driving force for this revision was the expanded evidence base regarding monitoring and treatment of newborns 35 or more weeks’ gestation to prevent bilirubin encephalopathy and kernicterus.

Here, we summarize the highlights of the new guidelines and point out practical ways to incorporate these guidelines into daily practice.
 

What has changed?

If you are familiar with the previous guidelines (2004 or the 2009 update) for the management of newborn jaundice, you’ll note that the treatment graphs for phototherapy and exchange transfusion have been updated with new, slightly higher thresholds.

Bilirubin thresholds for starting phototherapy are about 2 mg/dL higher overall than indicated in previous iterations of the guidelines.

This change reflects new evidence that infants don’t typically develop bilirubin neurotoxicity until the total serum bilirubin (TSB) reaches levels well above the previous exchange transfusion threshold, justifying a narrow increase in the bilirubin level for starting phototherapy. Also, phototherapy treatment thresholds are now risk-adjusted, with separate curves for each gestational age from 35 weeks to > 38 weeks.

To find the applicable phototherapy threshold, use the infant’s gestational age (rounding down) and determine whether the infant has even a single neurotoxicity risk factor other than prematurity. Neurotoxicity risk factors include a low albumin level, isoimmune hemolytic disease, glucose-6-phosphate dehydrogenase (G6PD) deficiency, or other hemolytic conditions; sepsis; or any significant clinical instability in the previous 24 hours.

For example, a 38^4/7 weeks’ gestation newborn has a TSB of 12 mg/dL at 48 hours of age but no neurotoxicity risk factors. Using the graph Phototherapy Thresholds: No Hyperbilirubinemia Neurotoxicity Risk Factors, should the infant be placed under phototherapy at this time? (Answer: No. The threshold for starting phototherapy on this infant is approximately 16 mg/dL.)

When hyperbilirubinemia becomes a medical emergency

A new term, “escalation of care,” has been adopted to describe actions to take when the newborn’s TSB climbs to within 2 mg/dL of the exchange transfusion threshold – a medical emergency. Instructions on how to ensure intensive phototherapy, and when to initiate an urgent exchange transfusion, are given, including the critical need to maintain intensive phototherapy continuously during infant transport and admission to another facility.

Transcutaneous vs. serum bilirubin

Either a serum TSB or a transcutaneous bilirubin (TcB) should be measured in all infants between 24 and 48 hours after birth or before discharge if that occurs earlier. TcB measurements are valid and reliable when used as a screening test to identify infants who require a TSB measurement. Although the two tests are generally correlated, they are not identical, and treatment decisions should be based on TSB levels. A TSB should be obtained if the TcB exceeds or is within 3 mg/dL of the phototherapy treatment threshold, or if the TcB is ≥ 15 mg/dL.

Following up: When to check another bilirubin level

Prior to these new guidelines, the question of when to get the next bilirubin level was based on Vinod Bhutani, MD’s risk nomogram, which classified newborn bilirubin levels within high-, intermediate-, or low-risk zones for needing phototherapy. A bilirubin level in the high-risk zone indicated the need for earlier follow-up. These risk zones have been replaced with a more specific table that provides recommended postdischarge follow-up based on how close the newborn’s bilirubin level is to the hour-specific threshold for treatment. The closer the latest TSB or TcB level is to the newborn’s risk-based phototherapy threshold, the sooner the follow-up to check another bilirubin level will need to be.

Most infants discharged before 72 hours of age will need follow-up within 2 days. Newborns with TSB levels nearing the level for phototherapy (within 2 mg/dL or less) should remain in the hospital.
 

Five tips for using the new guidelines

Bilitool.org, a popular and useful app, has already been updated to reflect the changes in the new guidelines, making it easy to apply the new thresholds and create a follow-up plan for each patient.

The guidelines provide recommendations for when to check rebound bilirubin levels after stopping phototherapy (hint: babies with neurotoxic risk factors). A TcB device should not be used while the infant is being treated with phototherapy. However, a TcB can be measured once the baby has been off phototherapy for at least 24 hours.

If you have at least two bilirubin measurements, you can calculate the “rate of rise” in bilirubin level. A rapid rate of rise, which serves as a clinical indicator of hemolysis, is defined as ≥ 0.3 mg/dL per hour in the first 24 hours or ≥ 0.2 mg/dL per hour after the first 24 hours of life. This is especially helpful when hemolysis is suspected even if the newborn’s direct antibody test (DAT) is negative. In this scenario, the infant is considered to have a neurotoxic risk factor.

When you initiate phototherapy, be aware of the infant’s bilirubin level threshold for stopping phototherapy (2 mg/dL below the starting phototherapy threshold), as well as the threshold for escalation of care (2 mg/dL below the exchange transfusion threshold).

Because the thresholds for starting phototherapy and initiating exchange transfusion are slightly higher and specific to gestational age, clinicians can more confidently use less phototherapy.
 

Other guideline highlights

The neurotoxic risk factors and corresponding thresholds are important. If the newborn has one or more neurotoxic risk factors other than prematurity, the neurotoxic risk threshold graph should be used when assessing the need for treatment. Neurotoxic risk thresholds should also be used for newborns whose bilirubin levels continue rising on phototherapy.

The guidelines emphasize that G6PD is one of the most important causes of hazardous hyperbilirubinemia leading to kernicterus in the United States and worldwide. Overall, 13% of African American males and about 4% of African American females have G6PD deficiency.

Finally, the guidelines remind clinicians that an important way to reduce the chances that phototherapy will be needed is to encourage early and frequent feeding (8-12 times in 24 hours).

The AAP Clinical Practice Guideline Revision: Management of Hyperbilirubinemia in the Newborn Infant 35 or More Weeks of Gestation contains a great deal more information, but these basic principles should allow practitioners to begin to incorporate these guidelines into daily practice.

Dr. Amaya is associate professor, department of pediatrics, Medical University of South Carolina, Charleston, and medical director, level 1 nursery, department of pediatrics, MUSC general academic pediatrics. She disclosed ties with Medical University of South Carolina. Dr. Balog is clinical associate professor of pediatrics, Medical University of South Carolina, Charleston. She has no relevant financial relationships. Dr. Basco is professor, department of pediatrics, Medical University of South Carolina, Charleston; director, division of general pediatrics, department of pediatrics, MUSC Children’s Hospital. He has disclosed no relevant financial relationships.

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

More than 15 years in the making, the revised AAP Clinical Practice Guideline Revision: Management of Hyperbilirubinemia in the Newborn Infant 35 or More Weeks of Gestation was released in 2022. A key driving force for this revision was the expanded evidence base regarding monitoring and treatment of newborns 35 or more weeks’ gestation to prevent bilirubin encephalopathy and kernicterus.

Here, we summarize the highlights of the new guidelines and point out practical ways to incorporate these guidelines into daily practice.
 

What has changed?

If you are familiar with the previous guidelines (2004 or the 2009 update) for the management of newborn jaundice, you’ll note that the treatment graphs for phototherapy and exchange transfusion have been updated with new, slightly higher thresholds.

Bilirubin thresholds for starting phototherapy are about 2 mg/dL higher overall than indicated in previous iterations of the guidelines.

This change reflects new evidence that infants don’t typically develop bilirubin neurotoxicity until the total serum bilirubin (TSB) reaches levels well above the previous exchange transfusion threshold, justifying a narrow increase in the bilirubin level for starting phototherapy. Also, phototherapy treatment thresholds are now risk-adjusted, with separate curves for each gestational age from 35 weeks to > 38 weeks.

To find the applicable phototherapy threshold, use the infant’s gestational age (rounding down) and determine whether the infant has even a single neurotoxicity risk factor other than prematurity. Neurotoxicity risk factors include a low albumin level, isoimmune hemolytic disease, glucose-6-phosphate dehydrogenase (G6PD) deficiency, or other hemolytic conditions; sepsis; or any significant clinical instability in the previous 24 hours.

For example, a 38^4/7 weeks’ gestation newborn has a TSB of 12 mg/dL at 48 hours of age but no neurotoxicity risk factors. Using the graph Phototherapy Thresholds: No Hyperbilirubinemia Neurotoxicity Risk Factors, should the infant be placed under phototherapy at this time? (Answer: No. The threshold for starting phototherapy on this infant is approximately 16 mg/dL.)

When hyperbilirubinemia becomes a medical emergency

A new term, “escalation of care,” has been adopted to describe actions to take when the newborn’s TSB climbs to within 2 mg/dL of the exchange transfusion threshold – a medical emergency. Instructions on how to ensure intensive phototherapy, and when to initiate an urgent exchange transfusion, are given, including the critical need to maintain intensive phototherapy continuously during infant transport and admission to another facility.

Transcutaneous vs. serum bilirubin

Either a serum TSB or a transcutaneous bilirubin (TcB) should be measured in all infants between 24 and 48 hours after birth or before discharge if that occurs earlier. TcB measurements are valid and reliable when used as a screening test to identify infants who require a TSB measurement. Although the two tests are generally correlated, they are not identical, and treatment decisions should be based on TSB levels. A TSB should be obtained if the TcB exceeds or is within 3 mg/dL of the phototherapy treatment threshold, or if the TcB is ≥ 15 mg/dL.

Following up: When to check another bilirubin level

Prior to these new guidelines, the question of when to get the next bilirubin level was based on Vinod Bhutani, MD’s risk nomogram, which classified newborn bilirubin levels within high-, intermediate-, or low-risk zones for needing phototherapy. A bilirubin level in the high-risk zone indicated the need for earlier follow-up. These risk zones have been replaced with a more specific table that provides recommended postdischarge follow-up based on how close the newborn’s bilirubin level is to the hour-specific threshold for treatment. The closer the latest TSB or TcB level is to the newborn’s risk-based phototherapy threshold, the sooner the follow-up to check another bilirubin level will need to be.

Most infants discharged before 72 hours of age will need follow-up within 2 days. Newborns with TSB levels nearing the level for phototherapy (within 2 mg/dL or less) should remain in the hospital.
 

Five tips for using the new guidelines

Bilitool.org, a popular and useful app, has already been updated to reflect the changes in the new guidelines, making it easy to apply the new thresholds and create a follow-up plan for each patient.

The guidelines provide recommendations for when to check rebound bilirubin levels after stopping phototherapy (hint: babies with neurotoxic risk factors). A TcB device should not be used while the infant is being treated with phototherapy. However, a TcB can be measured once the baby has been off phototherapy for at least 24 hours.

If you have at least two bilirubin measurements, you can calculate the “rate of rise” in bilirubin level. A rapid rate of rise, which serves as a clinical indicator of hemolysis, is defined as ≥ 0.3 mg/dL per hour in the first 24 hours or ≥ 0.2 mg/dL per hour after the first 24 hours of life. This is especially helpful when hemolysis is suspected even if the newborn’s direct antibody test (DAT) is negative. In this scenario, the infant is considered to have a neurotoxic risk factor.

When you initiate phototherapy, be aware of the infant’s bilirubin level threshold for stopping phototherapy (2 mg/dL below the starting phototherapy threshold), as well as the threshold for escalation of care (2 mg/dL below the exchange transfusion threshold).

Because the thresholds for starting phototherapy and initiating exchange transfusion are slightly higher and specific to gestational age, clinicians can more confidently use less phototherapy.
 

Other guideline highlights

The neurotoxic risk factors and corresponding thresholds are important. If the newborn has one or more neurotoxic risk factors other than prematurity, the neurotoxic risk threshold graph should be used when assessing the need for treatment. Neurotoxic risk thresholds should also be used for newborns whose bilirubin levels continue rising on phototherapy.

The guidelines emphasize that G6PD is one of the most important causes of hazardous hyperbilirubinemia leading to kernicterus in the United States and worldwide. Overall, 13% of African American males and about 4% of African American females have G6PD deficiency.

Finally, the guidelines remind clinicians that an important way to reduce the chances that phototherapy will be needed is to encourage early and frequent feeding (8-12 times in 24 hours).

The AAP Clinical Practice Guideline Revision: Management of Hyperbilirubinemia in the Newborn Infant 35 or More Weeks of Gestation contains a great deal more information, but these basic principles should allow practitioners to begin to incorporate these guidelines into daily practice.

Dr. Amaya is associate professor, department of pediatrics, Medical University of South Carolina, Charleston, and medical director, level 1 nursery, department of pediatrics, MUSC general academic pediatrics. She disclosed ties with Medical University of South Carolina. Dr. Balog is clinical associate professor of pediatrics, Medical University of South Carolina, Charleston. She has no relevant financial relationships. Dr. Basco is professor, department of pediatrics, Medical University of South Carolina, Charleston; director, division of general pediatrics, department of pediatrics, MUSC Children’s Hospital. He has disclosed no relevant financial relationships.

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

More than 15 years in the making, the revised AAP Clinical Practice Guideline Revision: Management of Hyperbilirubinemia in the Newborn Infant 35 or More Weeks of Gestation was released in 2022. A key driving force for this revision was the expanded evidence base regarding monitoring and treatment of newborns 35 or more weeks’ gestation to prevent bilirubin encephalopathy and kernicterus.

Here, we summarize the highlights of the new guidelines and point out practical ways to incorporate these guidelines into daily practice.
 

What has changed?

If you are familiar with the previous guidelines (2004 or the 2009 update) for the management of newborn jaundice, you’ll note that the treatment graphs for phototherapy and exchange transfusion have been updated with new, slightly higher thresholds.

Bilirubin thresholds for starting phototherapy are about 2 mg/dL higher overall than indicated in previous iterations of the guidelines.

This change reflects new evidence that infants don’t typically develop bilirubin neurotoxicity until the total serum bilirubin (TSB) reaches levels well above the previous exchange transfusion threshold, justifying a narrow increase in the bilirubin level for starting phototherapy. Also, phototherapy treatment thresholds are now risk-adjusted, with separate curves for each gestational age from 35 weeks to > 38 weeks.

To find the applicable phototherapy threshold, use the infant’s gestational age (rounding down) and determine whether the infant has even a single neurotoxicity risk factor other than prematurity. Neurotoxicity risk factors include a low albumin level, isoimmune hemolytic disease, glucose-6-phosphate dehydrogenase (G6PD) deficiency, or other hemolytic conditions; sepsis; or any significant clinical instability in the previous 24 hours.

For example, a 38^4/7 weeks’ gestation newborn has a TSB of 12 mg/dL at 48 hours of age but no neurotoxicity risk factors. Using the graph Phototherapy Thresholds: No Hyperbilirubinemia Neurotoxicity Risk Factors, should the infant be placed under phototherapy at this time? (Answer: No. The threshold for starting phototherapy on this infant is approximately 16 mg/dL.)

When hyperbilirubinemia becomes a medical emergency

A new term, “escalation of care,” has been adopted to describe actions to take when the newborn’s TSB climbs to within 2 mg/dL of the exchange transfusion threshold – a medical emergency. Instructions on how to ensure intensive phototherapy, and when to initiate an urgent exchange transfusion, are given, including the critical need to maintain intensive phototherapy continuously during infant transport and admission to another facility.

Transcutaneous vs. serum bilirubin

Either a serum TSB or a transcutaneous bilirubin (TcB) should be measured in all infants between 24 and 48 hours after birth or before discharge if that occurs earlier. TcB measurements are valid and reliable when used as a screening test to identify infants who require a TSB measurement. Although the two tests are generally correlated, they are not identical, and treatment decisions should be based on TSB levels. A TSB should be obtained if the TcB exceeds or is within 3 mg/dL of the phototherapy treatment threshold, or if the TcB is ≥ 15 mg/dL.

Following up: When to check another bilirubin level

Prior to these new guidelines, the question of when to get the next bilirubin level was based on Vinod Bhutani, MD’s risk nomogram, which classified newborn bilirubin levels within high-, intermediate-, or low-risk zones for needing phototherapy. A bilirubin level in the high-risk zone indicated the need for earlier follow-up. These risk zones have been replaced with a more specific table that provides recommended postdischarge follow-up based on how close the newborn’s bilirubin level is to the hour-specific threshold for treatment. The closer the latest TSB or TcB level is to the newborn’s risk-based phototherapy threshold, the sooner the follow-up to check another bilirubin level will need to be.

Most infants discharged before 72 hours of age will need follow-up within 2 days. Newborns with TSB levels nearing the level for phototherapy (within 2 mg/dL or less) should remain in the hospital.
 

Five tips for using the new guidelines

Bilitool.org, a popular and useful app, has already been updated to reflect the changes in the new guidelines, making it easy to apply the new thresholds and create a follow-up plan for each patient.

The guidelines provide recommendations for when to check rebound bilirubin levels after stopping phototherapy (hint: babies with neurotoxic risk factors). A TcB device should not be used while the infant is being treated with phototherapy. However, a TcB can be measured once the baby has been off phototherapy for at least 24 hours.

If you have at least two bilirubin measurements, you can calculate the “rate of rise” in bilirubin level. A rapid rate of rise, which serves as a clinical indicator of hemolysis, is defined as ≥ 0.3 mg/dL per hour in the first 24 hours or ≥ 0.2 mg/dL per hour after the first 24 hours of life. This is especially helpful when hemolysis is suspected even if the newborn’s direct antibody test (DAT) is negative. In this scenario, the infant is considered to have a neurotoxic risk factor.

When you initiate phototherapy, be aware of the infant’s bilirubin level threshold for stopping phototherapy (2 mg/dL below the starting phototherapy threshold), as well as the threshold for escalation of care (2 mg/dL below the exchange transfusion threshold).

Because the thresholds for starting phototherapy and initiating exchange transfusion are slightly higher and specific to gestational age, clinicians can more confidently use less phototherapy.
 

Other guideline highlights

The neurotoxic risk factors and corresponding thresholds are important. If the newborn has one or more neurotoxic risk factors other than prematurity, the neurotoxic risk threshold graph should be used when assessing the need for treatment. Neurotoxic risk thresholds should also be used for newborns whose bilirubin levels continue rising on phototherapy.

The guidelines emphasize that G6PD is one of the most important causes of hazardous hyperbilirubinemia leading to kernicterus in the United States and worldwide. Overall, 13% of African American males and about 4% of African American females have G6PD deficiency.

Finally, the guidelines remind clinicians that an important way to reduce the chances that phototherapy will be needed is to encourage early and frequent feeding (8-12 times in 24 hours).

The AAP Clinical Practice Guideline Revision: Management of Hyperbilirubinemia in the Newborn Infant 35 or More Weeks of Gestation contains a great deal more information, but these basic principles should allow practitioners to begin to incorporate these guidelines into daily practice.

Dr. Amaya is associate professor, department of pediatrics, Medical University of South Carolina, Charleston, and medical director, level 1 nursery, department of pediatrics, MUSC general academic pediatrics. She disclosed ties with Medical University of South Carolina. Dr. Balog is clinical associate professor of pediatrics, Medical University of South Carolina, Charleston. She has no relevant financial relationships. Dr. Basco is professor, department of pediatrics, Medical University of South Carolina, Charleston; director, division of general pediatrics, department of pediatrics, MUSC Children’s Hospital. He has disclosed no relevant financial relationships.

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

Teenagers with diabetes who use a continuous glucose monitor (CGM) employ a wide variety of alarm settings to alert them when their blood sugar may be too high or too low. But sometimes those thresholds generate too many alarms – which in turn might lead patients to ignore the devices, according to a study presented at the 2023 annual meeting of the Endocrine Society.

“These alarms alert people with diabetes and their caregivers of pending glycemic changes. However, little work has been done studying CGM alarm settings in pediatric clinical populations,” said Victoria Ochs, BS, a medical student at the Indiana University, Indianapolis, who helped conduct the study.

Ms. Ochs and colleagues analyzed 2 weeks of real-time CGM alarm settings from 150 children with diabetes treated at Indiana. Their average age was 14 years; 47% were female, 89% of were White, 9.5% were Black, and 1.5% were Asian. Approximately half the patients used insulin pumps (51%) in addition to the monitoring devices.  

For both alarms that indicated blood sugar was too low or too high, settings among the children often varied widely from thresholds recommended by the University of Colorado’s Barbara Davis Center for Diabetes, Aurora. Those thresholds are 70 mg/dL of glucose for low and 180 mg/dL for high glucose. At Indiana, the median alert level for low was set to 74 mg/dL (range: 60-100), while the median for high was 242 mg/dL (range: 120-400). 

“If we have it set at 100, what exactly is the purpose of that? Is it just to make you more anxious that you’re going to drop low at some point?” asked Cari Berget, MPH, RN, CDE, who specializes in pediatric diabetes at the University of Colorado, speaking of the low blood sugar alarm. Setting this alarm at 70 md/dL instead could lead to concrete action when it does go off – such as consuming carbohydrates to boost blood sugar, she said. 

“Alarms should result in action most of the time,” said Ms. Berget, associate director of Colorado’s PANTHER program, which established the alarm thresholds used in the Indiana study. Alarm setting is not one-size-fits-all, Ms. Berget noted: Some people might want 70 mg/dL to warn of low blood sugar, whereas others prefer 75 or 80 mg/dL. 

As for alerts about hyperglycemia, Ms. Berget said patients often exceed the high range of 180 mg/dL immediately after a meal. Ideally these sugars will subside on their own within 3 hours, a process aided by insulin shots or pumps. Setting a threshold for high blood sugar too low, such as 120 mg/dL, could result in ceaseless alarms even if the person is not at risk for harm.

“If you receive an alarm and there’s no action for you to take, then we need to change how we’re setting these alarms,” Ms. Berget said. She advised parents and children to be thoughtful about setting their CGM alarm thresholds to be most useful to them.

Ms. Ochs said in some cases families have CGM devices shipped directly to their homes and never consult with anyone about optimal alarm settings.

“It would be useful to talk to families about what baseline information they had,” Ms. Ochs told this news organization. “It would be nice to talk to diabetes educators, and I think it would be nice to talk to physicians.”

Ms. Ochs reports no relevant financial relationships. Ms. Berget has consulted for Dexcom and Insulet.
 

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

Teenagers with diabetes who use a continuous glucose monitor (CGM) employ a wide variety of alarm settings to alert them when their blood sugar may be too high or too low. But sometimes those thresholds generate too many alarms – which in turn might lead patients to ignore the devices, according to a study presented at the 2023 annual meeting of the Endocrine Society.

“These alarms alert people with diabetes and their caregivers of pending glycemic changes. However, little work has been done studying CGM alarm settings in pediatric clinical populations,” said Victoria Ochs, BS, a medical student at the Indiana University, Indianapolis, who helped conduct the study.

Ms. Ochs and colleagues analyzed 2 weeks of real-time CGM alarm settings from 150 children with diabetes treated at Indiana. Their average age was 14 years; 47% were female, 89% of were White, 9.5% were Black, and 1.5% were Asian. Approximately half the patients used insulin pumps (51%) in addition to the monitoring devices.  

For both alarms that indicated blood sugar was too low or too high, settings among the children often varied widely from thresholds recommended by the University of Colorado’s Barbara Davis Center for Diabetes, Aurora. Those thresholds are 70 mg/dL of glucose for low and 180 mg/dL for high glucose. At Indiana, the median alert level for low was set to 74 mg/dL (range: 60-100), while the median for high was 242 mg/dL (range: 120-400). 

“If we have it set at 100, what exactly is the purpose of that? Is it just to make you more anxious that you’re going to drop low at some point?” asked Cari Berget, MPH, RN, CDE, who specializes in pediatric diabetes at the University of Colorado, speaking of the low blood sugar alarm. Setting this alarm at 70 md/dL instead could lead to concrete action when it does go off – such as consuming carbohydrates to boost blood sugar, she said. 

“Alarms should result in action most of the time,” said Ms. Berget, associate director of Colorado’s PANTHER program, which established the alarm thresholds used in the Indiana study. Alarm setting is not one-size-fits-all, Ms. Berget noted: Some people might want 70 mg/dL to warn of low blood sugar, whereas others prefer 75 or 80 mg/dL. 

As for alerts about hyperglycemia, Ms. Berget said patients often exceed the high range of 180 mg/dL immediately after a meal. Ideally these sugars will subside on their own within 3 hours, a process aided by insulin shots or pumps. Setting a threshold for high blood sugar too low, such as 120 mg/dL, could result in ceaseless alarms even if the person is not at risk for harm.

“If you receive an alarm and there’s no action for you to take, then we need to change how we’re setting these alarms,” Ms. Berget said. She advised parents and children to be thoughtful about setting their CGM alarm thresholds to be most useful to them.

Ms. Ochs said in some cases families have CGM devices shipped directly to their homes and never consult with anyone about optimal alarm settings.

“It would be useful to talk to families about what baseline information they had,” Ms. Ochs told this news organization. “It would be nice to talk to diabetes educators, and I think it would be nice to talk to physicians.”

Ms. Ochs reports no relevant financial relationships. Ms. Berget has consulted for Dexcom and Insulet.
 

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

Teenagers with diabetes who use a continuous glucose monitor (CGM) employ a wide variety of alarm settings to alert them when their blood sugar may be too high or too low. But sometimes those thresholds generate too many alarms – which in turn might lead patients to ignore the devices, according to a study presented at the 2023 annual meeting of the Endocrine Society.

“These alarms alert people with diabetes and their caregivers of pending glycemic changes. However, little work has been done studying CGM alarm settings in pediatric clinical populations,” said Victoria Ochs, BS, a medical student at the Indiana University, Indianapolis, who helped conduct the study.

Ms. Ochs and colleagues analyzed 2 weeks of real-time CGM alarm settings from 150 children with diabetes treated at Indiana. Their average age was 14 years; 47% were female, 89% of were White, 9.5% were Black, and 1.5% were Asian. Approximately half the patients used insulin pumps (51%) in addition to the monitoring devices.  

For both alarms that indicated blood sugar was too low or too high, settings among the children often varied widely from thresholds recommended by the University of Colorado’s Barbara Davis Center for Diabetes, Aurora. Those thresholds are 70 mg/dL of glucose for low and 180 mg/dL for high glucose. At Indiana, the median alert level for low was set to 74 mg/dL (range: 60-100), while the median for high was 242 mg/dL (range: 120-400). 

“If we have it set at 100, what exactly is the purpose of that? Is it just to make you more anxious that you’re going to drop low at some point?” asked Cari Berget, MPH, RN, CDE, who specializes in pediatric diabetes at the University of Colorado, speaking of the low blood sugar alarm. Setting this alarm at 70 md/dL instead could lead to concrete action when it does go off – such as consuming carbohydrates to boost blood sugar, she said. 

“Alarms should result in action most of the time,” said Ms. Berget, associate director of Colorado’s PANTHER program, which established the alarm thresholds used in the Indiana study. Alarm setting is not one-size-fits-all, Ms. Berget noted: Some people might want 70 mg/dL to warn of low blood sugar, whereas others prefer 75 or 80 mg/dL. 

As for alerts about hyperglycemia, Ms. Berget said patients often exceed the high range of 180 mg/dL immediately after a meal. Ideally these sugars will subside on their own within 3 hours, a process aided by insulin shots or pumps. Setting a threshold for high blood sugar too low, such as 120 mg/dL, could result in ceaseless alarms even if the person is not at risk for harm.

“If you receive an alarm and there’s no action for you to take, then we need to change how we’re setting these alarms,” Ms. Berget said. She advised parents and children to be thoughtful about setting their CGM alarm thresholds to be most useful to them.

Ms. Ochs said in some cases families have CGM devices shipped directly to their homes and never consult with anyone about optimal alarm settings.

“It would be useful to talk to families about what baseline information they had,” Ms. Ochs told this news organization. “It would be nice to talk to diabetes educators, and I think it would be nice to talk to physicians.”

Ms. Ochs reports no relevant financial relationships. Ms. Berget has consulted for Dexcom and Insulet.
 

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