Epilepsy & Seizures

Updated clinical guidelines for the early diagnosis and management of cerebral palsy have been issued by the American Academy of Pediatrics.

Coauthored with the American Academy for Cerebral Palsy and Developmental Medicine, the report builds on new evidence for improved care and outcomes since the 2006 consensus guidelines.

Cerebral palsy, the most common neuromotor disorder of childhood, is often accompanied by cognitive impairments, epilepsy, sensory impairments, behavioral problems, communication difficulties, breathing and sleep problems, gastrointestinal and nutritional problems, and bone and orthopedic problems.

In the United States, the estimated prevalence of cerebral palsy ranges from 1.5 to 4 per 1,000 live births.

“Early identification and initiation of evidence-based motor therapies can improve outcomes by taking advantage of the neuroplasticity in the infant brain,” said the guideline authors in an executive summary.

The guideline, published in Pediatrics, is directed to primary care physicians with pediatrics, family practice, or internal medicine training. “It’s a much more comprehensive overview of the important role that primary care providers play in the lifetime care of people with cerebral palsy,” explained Garey Noritz, MD, chair of the 2021-2022 Executive Committee of the Council on Children with Disabilities. Dr. Noritz, a professor of pediatrics at Ohio State University and division chief of the complex health care program at Nationwide Children’s Hospital, both in Columbus, said: “The combined efforts of the primary care physician and specialty providers are needed to achieve the best outcomes.”

The AAP recommends that primary care pediatricians, neonatologists, and other specialists caring for hospitalized newborns recognize those at high risk of cerebral palsy, diagnose them as early as possible, and promptly refer them for therapy. Primary care physicians are advised to identify motor delays early by formalizing standardized developmental surveillance and screening at 9, 18, and 30 months, and to implement family-centered care across multiple specialists.

“If a motor disorder is suspected, primary care physicians should simultaneously begin a medical evaluation, refer to a specialist for definitive diagnosis, and to therapists for treatment,” Dr. Noritz emphasized.

“The earlier any possible movement disorder is recognized and intervention begins, the better a child can develop a gait pattern and work toward living an independent life, said Manish N. Shah, MD, associate professor of pediatric neurosurgery at the University of Texas, Houston, who was not involved in developing the guidelines.

For children in whom physical therapy and medication have not reduced leg spasticity, a minimally invasive spinal procedure can help release contracted tendons and encourage independent walking. The optimal age for selective dorsal rhizotomy is about 4 years, said Dr. Shah, who is director of the Texas Comprehensive Spasticity Center at Children’s Memorial Hermann Hospital in Houston. “You can turn these children into walkers. As adults, they can get jobs, have their own families. It’s life-changing.”

Importantly, the guidelines address the health care disparities leading to a higher prevalence of cerebral palsy in Black children and in those from families with lower socioeconomic status. “Efforts to combat racism and eliminate barriers to culturally sensitive prenatal, perinatal, and later pediatric care may help to improve outcomes for all children with cerebral palsy,” the authors said.

“Every child with cerebral palsy needs an individual plan, but only 30% or 40% are getting interventions,” said Dr. Shah. The updated guidelines could help payers rethink the 15-20 visits a year that are often approved, compared with the 2-3 visits per week that are needed for speech, physical, and occupational therapy, he pointed out.

“Financial issues often compromise the interdisciplinary and coordinated care associated with favorable outcomes in children with cerebral palsy,” said Heidi Feldman, MD, PhD, a developmental and behavioral pediatric specialist at Stanford (Calif.) Medicine Children’s Health’s Johnson Center for Pregnancy and Newborn Services. “With a new guideline, there may be greater willingness to fund these essential services.”

In the meantime, the AAP recommends that pediatricians advise families about available medical, social, and educational services, such as early intervention services, the Title V Maternal and Child Health block grant program, and special education services through the public school system.

Children with cerebral palsy need the same standardized primary care as any child, including the full schedule of recommended vaccinations and vision and hearing testing. They also need to be monitored and treated for the many problems that commonly co-occur, including chronic pain.

When secondary complications arise, the frequency of visits should increase.

Pneumonia, the leading cause of death in children and adolescents with cerebral palsy, can be prevented or minimized through immunization against respiratory diseases and screening for signs and symptoms of aspiration and sleep-disordered breathing.

The AAP also recommends that symptoms or functional declines undergo full investigation into other potential causes.

Since the sedentary lifestyle associated with cerebral palsy is now known to be related to the higher rates of cardiovascular complications in this patient population, the AAP recommends more attention be paid to physical activity and a healthy diet early in life. Pediatricians are advised to help families locate suitable opportunities for adaptive sports and recreation.

Almost 50% of children and adolescents with cerebral palsy have intellectual disability, 60%-80% have difficulty speaking, and about 25% are nonverbal. To address this, pediatricians should maximize the use of augmentative and alternative communication devices and involve experts in speech and language pathology, according to the guidelines.

“Many individuals with cerebral palsy and severe motor limitations have active, creative minds, and may need assistive technology, such as electronic talking devices, to demonstrate that mental life,” said Dr. Feldman. “Primary care clinicians should advocate for assistive technology.”

For challenging behavior, especially in the patient with limited verbal skills, potential nonbehavioral culprits such as constipation, esophageal reflux disease, and musculoskeletal or dental pain must be ruled out.

In the lead-up to adolescence, youth with cerebral palsy must be prepared for puberty, menstruation, and healthy, safe sexual relationships, much like their nonaffected peers. Since a disproportionate number of children with cerebral palsy experience neglect and physical, sexual, and emotional abuse, however, family stressors should be identified and caregivers referred for support services.

For the transition from pediatric to adult health care, the AAP recommends that structured planning begin between 12 and 14 years of age. Before transfer, the pediatrician should prepare a comprehensive medical summary with the input of the patient, parent/guardian, and pediatric subspecialists.

Without a proper handoff, “there is an increased risk of morbidity, medical complications, unnecessary emergency department visits, hospitalizations, and procedures,” the authors warned.

Transitions are likely to run more smoothly when youth are given the opportunity to understand their medical condition and be involved in decisions about their health. With this in mind, the AAP recommends that pediatricians actively discourage overprotective parents from getting in the way of their child developing “maximal independence.”

No potential conflicts of interest were disclosed by the authors, Dr. Shah, or Dr. Feldman.

*This story was updated on Nov. 28, 2022.
 

Updated clinical guidelines for the early diagnosis and management of cerebral palsy have been issued by the American Academy of Pediatrics.

Coauthored with the American Academy for Cerebral Palsy and Developmental Medicine, the report builds on new evidence for improved care and outcomes since the 2006 consensus guidelines.

Cerebral palsy, the most common neuromotor disorder of childhood, is often accompanied by cognitive impairments, epilepsy, sensory impairments, behavioral problems, communication difficulties, breathing and sleep problems, gastrointestinal and nutritional problems, and bone and orthopedic problems.

In the United States, the estimated prevalence of cerebral palsy ranges from 1.5 to 4 per 1,000 live births.

“Early identification and initiation of evidence-based motor therapies can improve outcomes by taking advantage of the neuroplasticity in the infant brain,” said the guideline authors in an executive summary.

The guideline, published in Pediatrics, is directed to primary care physicians with pediatrics, family practice, or internal medicine training. “It’s a much more comprehensive overview of the important role that primary care providers play in the lifetime care of people with cerebral palsy,” explained Garey Noritz, MD, chair of the 2021-2022 Executive Committee of the Council on Children with Disabilities. Dr. Noritz, a professor of pediatrics at Ohio State University and division chief of the complex health care program at Nationwide Children’s Hospital, both in Columbus, said: “The combined efforts of the primary care physician and specialty providers are needed to achieve the best outcomes.”

The AAP recommends that primary care pediatricians, neonatologists, and other specialists caring for hospitalized newborns recognize those at high risk of cerebral palsy, diagnose them as early as possible, and promptly refer them for therapy. Primary care physicians are advised to identify motor delays early by formalizing standardized developmental surveillance and screening at 9, 18, and 30 months, and to implement family-centered care across multiple specialists.

“If a motor disorder is suspected, primary care physicians should simultaneously begin a medical evaluation, refer to a specialist for definitive diagnosis, and to therapists for treatment,” Dr. Noritz emphasized.

“The earlier any possible movement disorder is recognized and intervention begins, the better a child can develop a gait pattern and work toward living an independent life, said Manish N. Shah, MD, associate professor of pediatric neurosurgery at the University of Texas, Houston, who was not involved in developing the guidelines.

For children in whom physical therapy and medication have not reduced leg spasticity, a minimally invasive spinal procedure can help release contracted tendons and encourage independent walking. The optimal age for selective dorsal rhizotomy is about 4 years, said Dr. Shah, who is director of the Texas Comprehensive Spasticity Center at Children’s Memorial Hermann Hospital in Houston. “You can turn these children into walkers. As adults, they can get jobs, have their own families. It’s life-changing.”

Importantly, the guidelines address the health care disparities leading to a higher prevalence of cerebral palsy in Black children and in those from families with lower socioeconomic status. “Efforts to combat racism and eliminate barriers to culturally sensitive prenatal, perinatal, and later pediatric care may help to improve outcomes for all children with cerebral palsy,” the authors said.

“Every child with cerebral palsy needs an individual plan, but only 30% or 40% are getting interventions,” said Dr. Shah. The updated guidelines could help payers rethink the 15-20 visits a year that are often approved, compared with the 2-3 visits per week that are needed for speech, physical, and occupational therapy, he pointed out.

“Financial issues often compromise the interdisciplinary and coordinated care associated with favorable outcomes in children with cerebral palsy,” said Heidi Feldman, MD, PhD, a developmental and behavioral pediatric specialist at Stanford (Calif.) Medicine Children’s Health’s Johnson Center for Pregnancy and Newborn Services. “With a new guideline, there may be greater willingness to fund these essential services.”

In the meantime, the AAP recommends that pediatricians advise families about available medical, social, and educational services, such as early intervention services, the Title V Maternal and Child Health block grant program, and special education services through the public school system.

Children with cerebral palsy need the same standardized primary care as any child, including the full schedule of recommended vaccinations and vision and hearing testing. They also need to be monitored and treated for the many problems that commonly co-occur, including chronic pain.

When secondary complications arise, the frequency of visits should increase.

Pneumonia, the leading cause of death in children and adolescents with cerebral palsy, can be prevented or minimized through immunization against respiratory diseases and screening for signs and symptoms of aspiration and sleep-disordered breathing.

The AAP also recommends that symptoms or functional declines undergo full investigation into other potential causes.

Since the sedentary lifestyle associated with cerebral palsy is now known to be related to the higher rates of cardiovascular complications in this patient population, the AAP recommends more attention be paid to physical activity and a healthy diet early in life. Pediatricians are advised to help families locate suitable opportunities for adaptive sports and recreation.

Almost 50% of children and adolescents with cerebral palsy have intellectual disability, 60%-80% have difficulty speaking, and about 25% are nonverbal. To address this, pediatricians should maximize the use of augmentative and alternative communication devices and involve experts in speech and language pathology, according to the guidelines.

“Many individuals with cerebral palsy and severe motor limitations have active, creative minds, and may need assistive technology, such as electronic talking devices, to demonstrate that mental life,” said Dr. Feldman. “Primary care clinicians should advocate for assistive technology.”

For challenging behavior, especially in the patient with limited verbal skills, potential nonbehavioral culprits such as constipation, esophageal reflux disease, and musculoskeletal or dental pain must be ruled out.

In the lead-up to adolescence, youth with cerebral palsy must be prepared for puberty, menstruation, and healthy, safe sexual relationships, much like their nonaffected peers. Since a disproportionate number of children with cerebral palsy experience neglect and physical, sexual, and emotional abuse, however, family stressors should be identified and caregivers referred for support services.

For the transition from pediatric to adult health care, the AAP recommends that structured planning begin between 12 and 14 years of age. Before transfer, the pediatrician should prepare a comprehensive medical summary with the input of the patient, parent/guardian, and pediatric subspecialists.

Without a proper handoff, “there is an increased risk of morbidity, medical complications, unnecessary emergency department visits, hospitalizations, and procedures,” the authors warned.

Transitions are likely to run more smoothly when youth are given the opportunity to understand their medical condition and be involved in decisions about their health. With this in mind, the AAP recommends that pediatricians actively discourage overprotective parents from getting in the way of their child developing “maximal independence.”

No potential conflicts of interest were disclosed by the authors, Dr. Shah, or Dr. Feldman.

*This story was updated on Nov. 28, 2022.
 

Updated clinical guidelines for the early diagnosis and management of cerebral palsy have been issued by the American Academy of Pediatrics.

Coauthored with the American Academy for Cerebral Palsy and Developmental Medicine, the report builds on new evidence for improved care and outcomes since the 2006 consensus guidelines.

Cerebral palsy, the most common neuromotor disorder of childhood, is often accompanied by cognitive impairments, epilepsy, sensory impairments, behavioral problems, communication difficulties, breathing and sleep problems, gastrointestinal and nutritional problems, and bone and orthopedic problems.

In the United States, the estimated prevalence of cerebral palsy ranges from 1.5 to 4 per 1,000 live births.

“Early identification and initiation of evidence-based motor therapies can improve outcomes by taking advantage of the neuroplasticity in the infant brain,” said the guideline authors in an executive summary.

The guideline, published in Pediatrics, is directed to primary care physicians with pediatrics, family practice, or internal medicine training. “It’s a much more comprehensive overview of the important role that primary care providers play in the lifetime care of people with cerebral palsy,” explained Garey Noritz, MD, chair of the 2021-2022 Executive Committee of the Council on Children with Disabilities. Dr. Noritz, a professor of pediatrics at Ohio State University and division chief of the complex health care program at Nationwide Children’s Hospital, both in Columbus, said: “The combined efforts of the primary care physician and specialty providers are needed to achieve the best outcomes.”

The AAP recommends that primary care pediatricians, neonatologists, and other specialists caring for hospitalized newborns recognize those at high risk of cerebral palsy, diagnose them as early as possible, and promptly refer them for therapy. Primary care physicians are advised to identify motor delays early by formalizing standardized developmental surveillance and screening at 9, 18, and 30 months, and to implement family-centered care across multiple specialists.

“If a motor disorder is suspected, primary care physicians should simultaneously begin a medical evaluation, refer to a specialist for definitive diagnosis, and to therapists for treatment,” Dr. Noritz emphasized.

“The earlier any possible movement disorder is recognized and intervention begins, the better a child can develop a gait pattern and work toward living an independent life, said Manish N. Shah, MD, associate professor of pediatric neurosurgery at the University of Texas, Houston, who was not involved in developing the guidelines.

For children in whom physical therapy and medication have not reduced leg spasticity, a minimally invasive spinal procedure can help release contracted tendons and encourage independent walking. The optimal age for selective dorsal rhizotomy is about 4 years, said Dr. Shah, who is director of the Texas Comprehensive Spasticity Center at Children’s Memorial Hermann Hospital in Houston. “You can turn these children into walkers. As adults, they can get jobs, have their own families. It’s life-changing.”

Importantly, the guidelines address the health care disparities leading to a higher prevalence of cerebral palsy in Black children and in those from families with lower socioeconomic status. “Efforts to combat racism and eliminate barriers to culturally sensitive prenatal, perinatal, and later pediatric care may help to improve outcomes for all children with cerebral palsy,” the authors said.

“Every child with cerebral palsy needs an individual plan, but only 30% or 40% are getting interventions,” said Dr. Shah. The updated guidelines could help payers rethink the 15-20 visits a year that are often approved, compared with the 2-3 visits per week that are needed for speech, physical, and occupational therapy, he pointed out.

“Financial issues often compromise the interdisciplinary and coordinated care associated with favorable outcomes in children with cerebral palsy,” said Heidi Feldman, MD, PhD, a developmental and behavioral pediatric specialist at Stanford (Calif.) Medicine Children’s Health’s Johnson Center for Pregnancy and Newborn Services. “With a new guideline, there may be greater willingness to fund these essential services.”

In the meantime, the AAP recommends that pediatricians advise families about available medical, social, and educational services, such as early intervention services, the Title V Maternal and Child Health block grant program, and special education services through the public school system.

Children with cerebral palsy need the same standardized primary care as any child, including the full schedule of recommended vaccinations and vision and hearing testing. They also need to be monitored and treated for the many problems that commonly co-occur, including chronic pain.

When secondary complications arise, the frequency of visits should increase.

Pneumonia, the leading cause of death in children and adolescents with cerebral palsy, can be prevented or minimized through immunization against respiratory diseases and screening for signs and symptoms of aspiration and sleep-disordered breathing.

The AAP also recommends that symptoms or functional declines undergo full investigation into other potential causes.

Since the sedentary lifestyle associated with cerebral palsy is now known to be related to the higher rates of cardiovascular complications in this patient population, the AAP recommends more attention be paid to physical activity and a healthy diet early in life. Pediatricians are advised to help families locate suitable opportunities for adaptive sports and recreation.

Almost 50% of children and adolescents with cerebral palsy have intellectual disability, 60%-80% have difficulty speaking, and about 25% are nonverbal. To address this, pediatricians should maximize the use of augmentative and alternative communication devices and involve experts in speech and language pathology, according to the guidelines.

“Many individuals with cerebral palsy and severe motor limitations have active, creative minds, and may need assistive technology, such as electronic talking devices, to demonstrate that mental life,” said Dr. Feldman. “Primary care clinicians should advocate for assistive technology.”

For challenging behavior, especially in the patient with limited verbal skills, potential nonbehavioral culprits such as constipation, esophageal reflux disease, and musculoskeletal or dental pain must be ruled out.

In the lead-up to adolescence, youth with cerebral palsy must be prepared for puberty, menstruation, and healthy, safe sexual relationships, much like their nonaffected peers. Since a disproportionate number of children with cerebral palsy experience neglect and physical, sexual, and emotional abuse, however, family stressors should be identified and caregivers referred for support services.

For the transition from pediatric to adult health care, the AAP recommends that structured planning begin between 12 and 14 years of age. Before transfer, the pediatrician should prepare a comprehensive medical summary with the input of the patient, parent/guardian, and pediatric subspecialists.

Without a proper handoff, “there is an increased risk of morbidity, medical complications, unnecessary emergency department visits, hospitalizations, and procedures,” the authors warned.

Transitions are likely to run more smoothly when youth are given the opportunity to understand their medical condition and be involved in decisions about their health. With this in mind, the AAP recommends that pediatricians actively discourage overprotective parents from getting in the way of their child developing “maximal independence.”

No potential conflicts of interest were disclosed by the authors, Dr. Shah, or Dr. Feldman.

*This story was updated on Nov. 28, 2022.
 

Emergencies happen anywhere, anytime – and sometimes physicians find themselves in situations where they are the only ones who can help. “Is There a Doctor in the House?” is a new series telling these stories.

When the plane crashed, I was asleep. I had arrived the evening before with my wife and three sons at a house on Kezar Lake on the Maine–New Hampshire border. We were going to spend a week there with my wife’s four brothers and their families. I was woken by people screaming my name. I jumped out of bed and ran downstairs. My kids had been watching a float plane circling and gliding along the lake. It had crashed into the water and flipped upside down. My oldest brother-in-law jumped into his ski boat and we sped out to the scene.

All we can see are the plane’s pontoons. The rest is underwater. A woman has already surfaced, screaming. I dive in.

I find the woman’s husband and 3-year-old son struggling to get free from the plane through the smashed windshield. They manage to get to the surface. The pilot is dead, impaled through the chest by the left wing strut.

The big problem: A little girl, whom I would learn later is named Lauren, remained trapped. The water is murky but I can see her, a 5- or 6-year-old girl with this long hair, strapped in upside down and unconscious.

The mom and I dive down over and over, pulling and ripping at the door. We cannot get it open. Finally, I’m able to bend the door open enough where I can reach in, but I can’t undo the seatbelt. In my mind, I’m debating, should I try and go through the front windshield? I’m getting really tired, I can tell there’s fuel in the water, and I don’t want to drown in the plane. So I pop up to the surface and yell, “Does anyone have a knife?”

My brother-in-law shoots back to shore in the boat, screaming, “Get a knife!” My niece gets in the boat with one. I’m standing on the pontoon, and my niece is in the front of the boat calling, “Uncle Todd! Uncle Todd!” and she throws the knife. It goes way over my head. I can’t even jump for it, it’s so high.

I have to get the knife. So, I dive into the water to try and find it. Somehow, the black knife has landed on the white wing, 4 or 5 feet under the water. Pure luck. It could have sunk down a hundred feet into the lake. I grab the knife and hand it to the mom, Beth. She’s able to cut the seatbelt, and we both pull Lauren to the surface.

I lay her out on the pontoon. She has no pulse and her pupils are fixed and dilated. Her mom is yelling, “She’s dead, isn’t she?” I start CPR. My skin and eyes are burning from the airplane fuel in the water. I get her breathing, and her heart comes back very quickly. Lauren starts to vomit and I’m trying to keep her airway clear. She’s breathing spontaneously and she has a pulse, so I decide it’s time to move her to shore.

We pull the boat up to the dock and Lauren’s now having anoxic seizures. Her brain has been without oxygen, and now she’s getting perfused again. We get her to shore and lay her on the lawn. I’m still doing mouth-to-mouth, but she’s seizing like crazy, and I don’t have any way to control that. Beth is crying and wants to hold her daughter gently while I’m working.

Someone had called 911, and finally this dude shows up with an ambulance, and it’s like something out of World War II. All he has is an oxygen tank, but the mask is old and cracked. It’s too big for Lauren, but it sort of fits me, so I’m sucking in oxygen and blowing it into the girl’s mouth. I’m doing whatever I can, but I don’t have an IV to start. I have no fluids. I got nothing.

As it happens, I’d done my emergency medicine training at Maine Medical Center, so I tell someone to call them and get a Life Flight chopper. We have to drive somewhere where the chopper can land, so we take the ambulance to the parking lot of the closest store called the Wicked Good Store. That’s a common thing in Maine. Everything is “wicked good.”

The whole town is there by that point. The chopper arrives. The ambulance doors pop open and a woman says, “Todd?” And I say, “Heather?”

Heather is an emergency flight nurse whom I’d trained with many years ago. There’s immediate trust. She has all the right equipment. We put in breathing tubes and IVs. We stop Lauren from seizing. The kid is soon stable.

There is only one extra seat in the chopper, so I tell Beth to go. They take off.

Suddenly, I begin to doubt my decision. Lauren had been underwater for 15 minutes at minimum. I know how long that is. Did I do the right thing? Did I resuscitate a brain-dead child? I didn’t think about it at the time, but if that patient had come to me in the emergency department, I’m honestly not sure what I would have done.

So, I go home. And I don’t get a call. The FAA and sheriff arrive to take statements from us. I don’t hear from anyone.

The next day I start calling. No one will tell me anything, so I finally get to one of the pediatric ICU attendings who had trained me. He says Lauren literally woke up and said, “I have to go pee.” And that was it. She was 100% normal. I couldn’t believe it.

Here’s a theory: In kids, there’s something called the glottic reflex. I think her glottic reflex went off as soon as she hit the water, which basically closed her airway. So when she passed out, she could never get enough water in her lungs and still had enough air in there to keep her alive. Later, I got a call from her uncle. He could barely get the words out because he was in tears. He said Lauren was doing beautifully.  

Three days later, I drove to Lauren’s house with my wife and kids. I had her read to me. I watched her play on the jungle gym for motor function. All sorts of stuff. She was totally normal.

Beth told us that the night before the accident, her mother had given the women in her family what she called a “miracle bracelet,” a bracelet that is supposed to give you one miracle in your life. Beth said she had the bracelet on her wrist the day of the accident, and now it’s gone. “Saving Lauren’s life was my miracle,” she said.

Funny thing: For 20 years, I ran all the EMS, police, fire, ambulance, in Boulder, Colo., where I live. I wrote all the protocols, and I would never advise any of my paramedics to dive into jet fuel to save someone. That was risky. But at the time, it was totally automatic. I think it taught me not to give up in certain situations, because you really don’t know.

Dr. Dorfman is an emergency medicine physician in Boulder, Colo., and medical director at Cedalion Health.
 

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

Emergencies happen anywhere, anytime – and sometimes physicians find themselves in situations where they are the only ones who can help. “Is There a Doctor in the House?” is a new series telling these stories.

When the plane crashed, I was asleep. I had arrived the evening before with my wife and three sons at a house on Kezar Lake on the Maine–New Hampshire border. We were going to spend a week there with my wife’s four brothers and their families. I was woken by people screaming my name. I jumped out of bed and ran downstairs. My kids had been watching a float plane circling and gliding along the lake. It had crashed into the water and flipped upside down. My oldest brother-in-law jumped into his ski boat and we sped out to the scene.

All we can see are the plane’s pontoons. The rest is underwater. A woman has already surfaced, screaming. I dive in.

I find the woman’s husband and 3-year-old son struggling to get free from the plane through the smashed windshield. They manage to get to the surface. The pilot is dead, impaled through the chest by the left wing strut.

The big problem: A little girl, whom I would learn later is named Lauren, remained trapped. The water is murky but I can see her, a 5- or 6-year-old girl with this long hair, strapped in upside down and unconscious.

The mom and I dive down over and over, pulling and ripping at the door. We cannot get it open. Finally, I’m able to bend the door open enough where I can reach in, but I can’t undo the seatbelt. In my mind, I’m debating, should I try and go through the front windshield? I’m getting really tired, I can tell there’s fuel in the water, and I don’t want to drown in the plane. So I pop up to the surface and yell, “Does anyone have a knife?”

My brother-in-law shoots back to shore in the boat, screaming, “Get a knife!” My niece gets in the boat with one. I’m standing on the pontoon, and my niece is in the front of the boat calling, “Uncle Todd! Uncle Todd!” and she throws the knife. It goes way over my head. I can’t even jump for it, it’s so high.

I have to get the knife. So, I dive into the water to try and find it. Somehow, the black knife has landed on the white wing, 4 or 5 feet under the water. Pure luck. It could have sunk down a hundred feet into the lake. I grab the knife and hand it to the mom, Beth. She’s able to cut the seatbelt, and we both pull Lauren to the surface.

I lay her out on the pontoon. She has no pulse and her pupils are fixed and dilated. Her mom is yelling, “She’s dead, isn’t she?” I start CPR. My skin and eyes are burning from the airplane fuel in the water. I get her breathing, and her heart comes back very quickly. Lauren starts to vomit and I’m trying to keep her airway clear. She’s breathing spontaneously and she has a pulse, so I decide it’s time to move her to shore.

We pull the boat up to the dock and Lauren’s now having anoxic seizures. Her brain has been without oxygen, and now she’s getting perfused again. We get her to shore and lay her on the lawn. I’m still doing mouth-to-mouth, but she’s seizing like crazy, and I don’t have any way to control that. Beth is crying and wants to hold her daughter gently while I’m working.

Someone had called 911, and finally this dude shows up with an ambulance, and it’s like something out of World War II. All he has is an oxygen tank, but the mask is old and cracked. It’s too big for Lauren, but it sort of fits me, so I’m sucking in oxygen and blowing it into the girl’s mouth. I’m doing whatever I can, but I don’t have an IV to start. I have no fluids. I got nothing.

As it happens, I’d done my emergency medicine training at Maine Medical Center, so I tell someone to call them and get a Life Flight chopper. We have to drive somewhere where the chopper can land, so we take the ambulance to the parking lot of the closest store called the Wicked Good Store. That’s a common thing in Maine. Everything is “wicked good.”

The whole town is there by that point. The chopper arrives. The ambulance doors pop open and a woman says, “Todd?” And I say, “Heather?”

Heather is an emergency flight nurse whom I’d trained with many years ago. There’s immediate trust. She has all the right equipment. We put in breathing tubes and IVs. We stop Lauren from seizing. The kid is soon stable.

There is only one extra seat in the chopper, so I tell Beth to go. They take off.

Suddenly, I begin to doubt my decision. Lauren had been underwater for 15 minutes at minimum. I know how long that is. Did I do the right thing? Did I resuscitate a brain-dead child? I didn’t think about it at the time, but if that patient had come to me in the emergency department, I’m honestly not sure what I would have done.

So, I go home. And I don’t get a call. The FAA and sheriff arrive to take statements from us. I don’t hear from anyone.

The next day I start calling. No one will tell me anything, so I finally get to one of the pediatric ICU attendings who had trained me. He says Lauren literally woke up and said, “I have to go pee.” And that was it. She was 100% normal. I couldn’t believe it.

Here’s a theory: In kids, there’s something called the glottic reflex. I think her glottic reflex went off as soon as she hit the water, which basically closed her airway. So when she passed out, she could never get enough water in her lungs and still had enough air in there to keep her alive. Later, I got a call from her uncle. He could barely get the words out because he was in tears. He said Lauren was doing beautifully.  

Three days later, I drove to Lauren’s house with my wife and kids. I had her read to me. I watched her play on the jungle gym for motor function. All sorts of stuff. She was totally normal.

Beth told us that the night before the accident, her mother had given the women in her family what she called a “miracle bracelet,” a bracelet that is supposed to give you one miracle in your life. Beth said she had the bracelet on her wrist the day of the accident, and now it’s gone. “Saving Lauren’s life was my miracle,” she said.

Funny thing: For 20 years, I ran all the EMS, police, fire, ambulance, in Boulder, Colo., where I live. I wrote all the protocols, and I would never advise any of my paramedics to dive into jet fuel to save someone. That was risky. But at the time, it was totally automatic. I think it taught me not to give up in certain situations, because you really don’t know.

Dr. Dorfman is an emergency medicine physician in Boulder, Colo., and medical director at Cedalion Health.
 

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

Emergencies happen anywhere, anytime – and sometimes physicians find themselves in situations where they are the only ones who can help. “Is There a Doctor in the House?” is a new series telling these stories.

When the plane crashed, I was asleep. I had arrived the evening before with my wife and three sons at a house on Kezar Lake on the Maine–New Hampshire border. We were going to spend a week there with my wife’s four brothers and their families. I was woken by people screaming my name. I jumped out of bed and ran downstairs. My kids had been watching a float plane circling and gliding along the lake. It had crashed into the water and flipped upside down. My oldest brother-in-law jumped into his ski boat and we sped out to the scene.

All we can see are the plane’s pontoons. The rest is underwater. A woman has already surfaced, screaming. I dive in.

I find the woman’s husband and 3-year-old son struggling to get free from the plane through the smashed windshield. They manage to get to the surface. The pilot is dead, impaled through the chest by the left wing strut.

The big problem: A little girl, whom I would learn later is named Lauren, remained trapped. The water is murky but I can see her, a 5- or 6-year-old girl with this long hair, strapped in upside down and unconscious.

The mom and I dive down over and over, pulling and ripping at the door. We cannot get it open. Finally, I’m able to bend the door open enough where I can reach in, but I can’t undo the seatbelt. In my mind, I’m debating, should I try and go through the front windshield? I’m getting really tired, I can tell there’s fuel in the water, and I don’t want to drown in the plane. So I pop up to the surface and yell, “Does anyone have a knife?”

My brother-in-law shoots back to shore in the boat, screaming, “Get a knife!” My niece gets in the boat with one. I’m standing on the pontoon, and my niece is in the front of the boat calling, “Uncle Todd! Uncle Todd!” and she throws the knife. It goes way over my head. I can’t even jump for it, it’s so high.

I have to get the knife. So, I dive into the water to try and find it. Somehow, the black knife has landed on the white wing, 4 or 5 feet under the water. Pure luck. It could have sunk down a hundred feet into the lake. I grab the knife and hand it to the mom, Beth. She’s able to cut the seatbelt, and we both pull Lauren to the surface.

I lay her out on the pontoon. She has no pulse and her pupils are fixed and dilated. Her mom is yelling, “She’s dead, isn’t she?” I start CPR. My skin and eyes are burning from the airplane fuel in the water. I get her breathing, and her heart comes back very quickly. Lauren starts to vomit and I’m trying to keep her airway clear. She’s breathing spontaneously and she has a pulse, so I decide it’s time to move her to shore.

We pull the boat up to the dock and Lauren’s now having anoxic seizures. Her brain has been without oxygen, and now she’s getting perfused again. We get her to shore and lay her on the lawn. I’m still doing mouth-to-mouth, but she’s seizing like crazy, and I don’t have any way to control that. Beth is crying and wants to hold her daughter gently while I’m working.

Someone had called 911, and finally this dude shows up with an ambulance, and it’s like something out of World War II. All he has is an oxygen tank, but the mask is old and cracked. It’s too big for Lauren, but it sort of fits me, so I’m sucking in oxygen and blowing it into the girl’s mouth. I’m doing whatever I can, but I don’t have an IV to start. I have no fluids. I got nothing.

As it happens, I’d done my emergency medicine training at Maine Medical Center, so I tell someone to call them and get a Life Flight chopper. We have to drive somewhere where the chopper can land, so we take the ambulance to the parking lot of the closest store called the Wicked Good Store. That’s a common thing in Maine. Everything is “wicked good.”

The whole town is there by that point. The chopper arrives. The ambulance doors pop open and a woman says, “Todd?” And I say, “Heather?”

Heather is an emergency flight nurse whom I’d trained with many years ago. There’s immediate trust. She has all the right equipment. We put in breathing tubes and IVs. We stop Lauren from seizing. The kid is soon stable.

There is only one extra seat in the chopper, so I tell Beth to go. They take off.

Suddenly, I begin to doubt my decision. Lauren had been underwater for 15 minutes at minimum. I know how long that is. Did I do the right thing? Did I resuscitate a brain-dead child? I didn’t think about it at the time, but if that patient had come to me in the emergency department, I’m honestly not sure what I would have done.

So, I go home. And I don’t get a call. The FAA and sheriff arrive to take statements from us. I don’t hear from anyone.

The next day I start calling. No one will tell me anything, so I finally get to one of the pediatric ICU attendings who had trained me. He says Lauren literally woke up and said, “I have to go pee.” And that was it. She was 100% normal. I couldn’t believe it.

Here’s a theory: In kids, there’s something called the glottic reflex. I think her glottic reflex went off as soon as she hit the water, which basically closed her airway. So when she passed out, she could never get enough water in her lungs and still had enough air in there to keep her alive. Later, I got a call from her uncle. He could barely get the words out because he was in tears. He said Lauren was doing beautifully.  

Three days later, I drove to Lauren’s house with my wife and kids. I had her read to me. I watched her play on the jungle gym for motor function. All sorts of stuff. She was totally normal.

Beth told us that the night before the accident, her mother had given the women in her family what she called a “miracle bracelet,” a bracelet that is supposed to give you one miracle in your life. Beth said she had the bracelet on her wrist the day of the accident, and now it’s gone. “Saving Lauren’s life was my miracle,” she said.

Funny thing: For 20 years, I ran all the EMS, police, fire, ambulance, in Boulder, Colo., where I live. I wrote all the protocols, and I would never advise any of my paramedics to dive into jet fuel to save someone. That was risky. But at the time, it was totally automatic. I think it taught me not to give up in certain situations, because you really don’t know.

Dr. Dorfman is an emergency medicine physician in Boulder, Colo., and medical director at Cedalion Health.
 

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

CINCINNATI – A new analysis of data from a phase 3 clinical trial suggests that an inhaled diazepam nasal spray (Valtoco, Neurelis Inc.) works about as well among patients with Lennox-Gastaut Syndrome (LGS) as it does with other patients with pediatric encephalopathies.

LGS is a severe form of epilepsy that generally begins in early childhood and has a poor prognosis and seizures that are often treatment refractory. The findings of the analysis should be encouraging to physicians who may view patients with LGS as not benefiting from treatment, said Daniel C. Tarquinio, DO, who presented the results at the 2022 annual meeting of the Child Neurology Society.

“Their response to their first appropriate weight-based rescue dose of Valtoco was essentially no different. They were subtly different, but they’re not really meaningful differences. Very few needed a second dose. In practice this is helpful because we know that kids with LGS, we think of them as having worse epilepsy, if you will. But if they need rescue, if we prescribe an appropriate rescue dose based on their weight, that the same rescue will work for them as it will for a kid that doesn’t have – quote unquote – as bad epilepsy that needs rescue,” said Dr. Tarquinio, a child neurologist and epileptologist and founder of the Center for Rare Neurological Diseases.

During the Q&A, Dr. Tarquinio was asked if there is something about the biology of LGS that would suggest it might respond differently to the drug. Dr. Tarquinio said no. “The reason we even looked at this is because many clinicians told us that their sense was [that patients with LGS] did not respond as well to rescue in general no matter what they use. This allowed us to go back and look at a controlled data set and say, at least in our controlled dataset, they respond the same,” he said.

Grace Gombolay, MD, who moderated the session, agreed that the results should be encouraging. “It seems like a lot of clinicians have the sense that Lennox-Gastaut Syndrome is a very terrible refractory epilepsy syndrome, and so doing rescue doesn’t seem to make sense if they don’t really respond. I think it’s helpful to know because there are actually studies showing that Valtoco seems to actually work in those patients, so it’s actually useful clinically to prescribe those patients and give it a shot,” said Dr. Gombolay, director of the Pediatric Neuroimmunology and Multiple Sclerosis Clinic at Emory University, Atlanta.

LGS patients may experience hundreds of seizures per day. “It’s really hard for parents to quantify, did they get better? Did the rescue help or not, because they’re still having some seizures. I think the sense is, ‘oh, this isn’t working.’ That’s probably the bias. I think this is good data that if you are able to get Valtoco for your patients, I think it’s worth a shot even in Lennox-Gastaut,” said Dr. Gombolay.

The researchers conducted a post hoc analysis of the phase 3, open-label, repeat-dose safety study of Valtoco. The study included a 12-month treatment period with visits at day 30 and every 60 days following. Patients had the option of staying on the drug following the end of the treatment period. Seizure and dosing information were obtained from a diary. The study enrolled 163 patients whose physicians believed they would need to be treated with a benzodiazepine at least once every other month to achieve seizure control. Dosing was determined by a combination of age and weight. If a second dose was required, caregivers were instructed to provide it 4-12 hours after the first dose.

In the study cohort, 47.9% of patients were aged 6-17 years. The researchers looked specifically at 73 cases of seizure clusters. In nine cases, the patient had LGS (five male, four female). Nearly all (95.9%) of LGS cluster cases were treated with a single dose and 4.1% were exposed to a second dose. Among 64 cases involving a patient with pediatric epileptic encephalopathies, 89.4% were treated with a single dose and 10.6% received a second. The safety profile was similar between patients with LGS and those with pediatric encephalopathies.

Dr. Gombolay has no relevant financial disclosures.

CINCINNATI – A new analysis of data from a phase 3 clinical trial suggests that an inhaled diazepam nasal spray (Valtoco, Neurelis Inc.) works about as well among patients with Lennox-Gastaut Syndrome (LGS) as it does with other patients with pediatric encephalopathies.

LGS is a severe form of epilepsy that generally begins in early childhood and has a poor prognosis and seizures that are often treatment refractory. The findings of the analysis should be encouraging to physicians who may view patients with LGS as not benefiting from treatment, said Daniel C. Tarquinio, DO, who presented the results at the 2022 annual meeting of the Child Neurology Society.

“Their response to their first appropriate weight-based rescue dose of Valtoco was essentially no different. They were subtly different, but they’re not really meaningful differences. Very few needed a second dose. In practice this is helpful because we know that kids with LGS, we think of them as having worse epilepsy, if you will. But if they need rescue, if we prescribe an appropriate rescue dose based on their weight, that the same rescue will work for them as it will for a kid that doesn’t have – quote unquote – as bad epilepsy that needs rescue,” said Dr. Tarquinio, a child neurologist and epileptologist and founder of the Center for Rare Neurological Diseases.

During the Q&A, Dr. Tarquinio was asked if there is something about the biology of LGS that would suggest it might respond differently to the drug. Dr. Tarquinio said no. “The reason we even looked at this is because many clinicians told us that their sense was [that patients with LGS] did not respond as well to rescue in general no matter what they use. This allowed us to go back and look at a controlled data set and say, at least in our controlled dataset, they respond the same,” he said.

Grace Gombolay, MD, who moderated the session, agreed that the results should be encouraging. “It seems like a lot of clinicians have the sense that Lennox-Gastaut Syndrome is a very terrible refractory epilepsy syndrome, and so doing rescue doesn’t seem to make sense if they don’t really respond. I think it’s helpful to know because there are actually studies showing that Valtoco seems to actually work in those patients, so it’s actually useful clinically to prescribe those patients and give it a shot,” said Dr. Gombolay, director of the Pediatric Neuroimmunology and Multiple Sclerosis Clinic at Emory University, Atlanta.

LGS patients may experience hundreds of seizures per day. “It’s really hard for parents to quantify, did they get better? Did the rescue help or not, because they’re still having some seizures. I think the sense is, ‘oh, this isn’t working.’ That’s probably the bias. I think this is good data that if you are able to get Valtoco for your patients, I think it’s worth a shot even in Lennox-Gastaut,” said Dr. Gombolay.

The researchers conducted a post hoc analysis of the phase 3, open-label, repeat-dose safety study of Valtoco. The study included a 12-month treatment period with visits at day 30 and every 60 days following. Patients had the option of staying on the drug following the end of the treatment period. Seizure and dosing information were obtained from a diary. The study enrolled 163 patients whose physicians believed they would need to be treated with a benzodiazepine at least once every other month to achieve seizure control. Dosing was determined by a combination of age and weight. If a second dose was required, caregivers were instructed to provide it 4-12 hours after the first dose.

In the study cohort, 47.9% of patients were aged 6-17 years. The researchers looked specifically at 73 cases of seizure clusters. In nine cases, the patient had LGS (five male, four female). Nearly all (95.9%) of LGS cluster cases were treated with a single dose and 4.1% were exposed to a second dose. Among 64 cases involving a patient with pediatric epileptic encephalopathies, 89.4% were treated with a single dose and 10.6% received a second. The safety profile was similar between patients with LGS and those with pediatric encephalopathies.

Dr. Gombolay has no relevant financial disclosures.

CINCINNATI – A new analysis of data from a phase 3 clinical trial suggests that an inhaled diazepam nasal spray (Valtoco, Neurelis Inc.) works about as well among patients with Lennox-Gastaut Syndrome (LGS) as it does with other patients with pediatric encephalopathies.

LGS is a severe form of epilepsy that generally begins in early childhood and has a poor prognosis and seizures that are often treatment refractory. The findings of the analysis should be encouraging to physicians who may view patients with LGS as not benefiting from treatment, said Daniel C. Tarquinio, DO, who presented the results at the 2022 annual meeting of the Child Neurology Society.

“Their response to their first appropriate weight-based rescue dose of Valtoco was essentially no different. They were subtly different, but they’re not really meaningful differences. Very few needed a second dose. In practice this is helpful because we know that kids with LGS, we think of them as having worse epilepsy, if you will. But if they need rescue, if we prescribe an appropriate rescue dose based on their weight, that the same rescue will work for them as it will for a kid that doesn’t have – quote unquote – as bad epilepsy that needs rescue,” said Dr. Tarquinio, a child neurologist and epileptologist and founder of the Center for Rare Neurological Diseases.

During the Q&A, Dr. Tarquinio was asked if there is something about the biology of LGS that would suggest it might respond differently to the drug. Dr. Tarquinio said no. “The reason we even looked at this is because many clinicians told us that their sense was [that patients with LGS] did not respond as well to rescue in general no matter what they use. This allowed us to go back and look at a controlled data set and say, at least in our controlled dataset, they respond the same,” he said.

Grace Gombolay, MD, who moderated the session, agreed that the results should be encouraging. “It seems like a lot of clinicians have the sense that Lennox-Gastaut Syndrome is a very terrible refractory epilepsy syndrome, and so doing rescue doesn’t seem to make sense if they don’t really respond. I think it’s helpful to know because there are actually studies showing that Valtoco seems to actually work in those patients, so it’s actually useful clinically to prescribe those patients and give it a shot,” said Dr. Gombolay, director of the Pediatric Neuroimmunology and Multiple Sclerosis Clinic at Emory University, Atlanta.

LGS patients may experience hundreds of seizures per day. “It’s really hard for parents to quantify, did they get better? Did the rescue help or not, because they’re still having some seizures. I think the sense is, ‘oh, this isn’t working.’ That’s probably the bias. I think this is good data that if you are able to get Valtoco for your patients, I think it’s worth a shot even in Lennox-Gastaut,” said Dr. Gombolay.

The researchers conducted a post hoc analysis of the phase 3, open-label, repeat-dose safety study of Valtoco. The study included a 12-month treatment period with visits at day 30 and every 60 days following. Patients had the option of staying on the drug following the end of the treatment period. Seizure and dosing information were obtained from a diary. The study enrolled 163 patients whose physicians believed they would need to be treated with a benzodiazepine at least once every other month to achieve seizure control. Dosing was determined by a combination of age and weight. If a second dose was required, caregivers were instructed to provide it 4-12 hours after the first dose.

In the study cohort, 47.9% of patients were aged 6-17 years. The researchers looked specifically at 73 cases of seizure clusters. In nine cases, the patient had LGS (five male, four female). Nearly all (95.9%) of LGS cluster cases were treated with a single dose and 4.1% were exposed to a second dose. Among 64 cases involving a patient with pediatric epileptic encephalopathies, 89.4% were treated with a single dose and 10.6% received a second. The safety profile was similar between patients with LGS and those with pediatric encephalopathies.

Dr. Gombolay has no relevant financial disclosures.

Pediatric patients with epilepsy have an increased risk of cardiovascular complications later in life, but little is known about how they progress. A new study finds that abnormalities in electrocardiograms are linked to an earlier age of diagnosis and longer epilepsy duration.

The findings could help researchers in the search for biomarkers that could predict later problems in children with epilepsy. “In pediatric neurology I think we’re a little bit removed from some of the cardiovascular complications that can happen within epilepsy, but cardiovascular complications are well established, especially in adults that have epilepsy. Adults with epilepsy are more likely to have coronary artery disease, atherosclerosis, arrhythmias, heart attacks, and sudden cardiac death. It’s a pretty substantial difference compared with their nonepileptic peers. So knowing that, the big question is, how do these changes develop, and how do we really counsel our patients in regards to these complications?” said Brittnie Bartlett, MD, during her presentation of the research at the 2022 annual meeting of the Child Neurology Society.

Identifying factors that increase cardiac complications

Previous studies suggested that epilepsy duration might be linked to cardiovascular complications. In children with Dravet syndrome, epilepsy duration has been shown to be associated with cardiac complications. Pathological T wave alternans, which indicates ventricular instability, has been observed in adults with longstanding epilepsy but not adults with newly diagnosed epilepsy.

“So our question in this preliminary report of our data is: What factors in our general pediatric epilepsy cohort can we identify that put them at a greater risk for having EKG changes, and specifically, we wanted to verify these findings from the other studies that epilepsy duration is, in fact, a risk factor for these EKG changes in general [among children] with epilepsy aside from channelopathies,” said Dr. Bartlett, who is an assistant professor at Baylor College of Medicine and a child neurologist at Texas Children’s Hospital, both in Houston.

She presented a striking finding that cardiovascular changes appear early. “The most important thing I want you all to make note of is the fact that, in this baseline study that we got on these kids, 47% already had changes that we were seeing on their EKGs,” said Dr. Bartlett.

The researchers also looked for factors associated with EKG changes, and found that duration of epilepsy and age at diagnosis were the two salient factors. “Our kids that did have EKG changes present had an average epilepsy duration of 73 months, as opposed to [the children] that did not have EKG changes and had an average epilepsy duration of 46 months,” said Dr. Bartlett.

Other factors, such epilepsy type, etiology, refractory epilepsy, and seizure frequency had no statistically significant association with EKG changes. They also saw no associations with high-risk seizure medications, even though some antiseizure drugs have been shown to be linked to EKG changes.

“We were able to confirm our hypothesis that EKG changes were more prevalent with longer duration of epilepsy. Unfortunately, we weren’t able to find any other clues that would help us counsel our patients, but this is part of a longitudinal prospective study that we’ll be following these kids over a couple of years’ time, so maybe we’ll be able to tease out some of these differences. Ideally, we’d be able to find some kind of a biomarker for future cardiovascular complications, and right now we’re working with some multivariable models to verify some of these findings,” said Dr. Bartlett.

Implications for clinical practice

During the Q&A, Dr. Bartlett was asked if all kids with epilepsy should undergo an EKG. She recommended against it for now. “At this point, I don’t think we have enough clear data to support getting an EKG on every kid with epilepsy. I do think it’s good practice to do them on all kids with channelopathies. As a general practice, I tend to have a low threshold towards many kids with epilepsy, but a lot of these cardiovascular risk factors tend to pop up more in adulthood, so it’s more preventative,” she said.

Grace Gombolay, MD, who moderated the session where the poster was presented, was asked for comment on the study. “What’s surprising about it is that up to half of patients actually had EKG changes, different what from what we see in normal population, and it’s interesting to think about the implications. One of the things that our epilepsy patients are at risk for is SUDEP – sudden, unexplained death in epilepsy. It’s interesting to think about what these EKG changes mean for clinical care. I think it’s too early to say at this time, but this might be one of those markers for SUDEP,” said Dr. Gombolay, who is an assistant professor at Emory University, Atlanta, and director of the Pediatric Neuroimmunology and Multiple Sclerosis Clinic at Children’s Healthcare of Atlanta.

The researchers prospectively studied 213 patients who were recruited. 46% were female, 42% were white, 41% were Hispanic, and 13% were African American. The mean age at enrollment was 116 months, and mean age of seizure onset was 45 months.

The researchers found that 47% had abnormal EKG readings. None of the changes were pathologic, but they may reflect changes to cardiac electrophysiology, according to Dr. Bartlett. Those with abnormal readings were older on average (11.6 vs. 8.3 years; P < .005) and had a longer epilepsy duration (73 vs. 46 months; P = .004).

Dr. Gombolay has no relevant financial disclosures.

Pediatric patients with epilepsy have an increased risk of cardiovascular complications later in life, but little is known about how they progress. A new study finds that abnormalities in electrocardiograms are linked to an earlier age of diagnosis and longer epilepsy duration.

The findings could help researchers in the search for biomarkers that could predict later problems in children with epilepsy. “In pediatric neurology I think we’re a little bit removed from some of the cardiovascular complications that can happen within epilepsy, but cardiovascular complications are well established, especially in adults that have epilepsy. Adults with epilepsy are more likely to have coronary artery disease, atherosclerosis, arrhythmias, heart attacks, and sudden cardiac death. It’s a pretty substantial difference compared with their nonepileptic peers. So knowing that, the big question is, how do these changes develop, and how do we really counsel our patients in regards to these complications?” said Brittnie Bartlett, MD, during her presentation of the research at the 2022 annual meeting of the Child Neurology Society.

Identifying factors that increase cardiac complications

Previous studies suggested that epilepsy duration might be linked to cardiovascular complications. In children with Dravet syndrome, epilepsy duration has been shown to be associated with cardiac complications. Pathological T wave alternans, which indicates ventricular instability, has been observed in adults with longstanding epilepsy but not adults with newly diagnosed epilepsy.

“So our question in this preliminary report of our data is: What factors in our general pediatric epilepsy cohort can we identify that put them at a greater risk for having EKG changes, and specifically, we wanted to verify these findings from the other studies that epilepsy duration is, in fact, a risk factor for these EKG changes in general [among children] with epilepsy aside from channelopathies,” said Dr. Bartlett, who is an assistant professor at Baylor College of Medicine and a child neurologist at Texas Children’s Hospital, both in Houston.

She presented a striking finding that cardiovascular changes appear early. “The most important thing I want you all to make note of is the fact that, in this baseline study that we got on these kids, 47% already had changes that we were seeing on their EKGs,” said Dr. Bartlett.

The researchers also looked for factors associated with EKG changes, and found that duration of epilepsy and age at diagnosis were the two salient factors. “Our kids that did have EKG changes present had an average epilepsy duration of 73 months, as opposed to [the children] that did not have EKG changes and had an average epilepsy duration of 46 months,” said Dr. Bartlett.

Other factors, such epilepsy type, etiology, refractory epilepsy, and seizure frequency had no statistically significant association with EKG changes. They also saw no associations with high-risk seizure medications, even though some antiseizure drugs have been shown to be linked to EKG changes.

“We were able to confirm our hypothesis that EKG changes were more prevalent with longer duration of epilepsy. Unfortunately, we weren’t able to find any other clues that would help us counsel our patients, but this is part of a longitudinal prospective study that we’ll be following these kids over a couple of years’ time, so maybe we’ll be able to tease out some of these differences. Ideally, we’d be able to find some kind of a biomarker for future cardiovascular complications, and right now we’re working with some multivariable models to verify some of these findings,” said Dr. Bartlett.

Implications for clinical practice

During the Q&A, Dr. Bartlett was asked if all kids with epilepsy should undergo an EKG. She recommended against it for now. “At this point, I don’t think we have enough clear data to support getting an EKG on every kid with epilepsy. I do think it’s good practice to do them on all kids with channelopathies. As a general practice, I tend to have a low threshold towards many kids with epilepsy, but a lot of these cardiovascular risk factors tend to pop up more in adulthood, so it’s more preventative,” she said.

Grace Gombolay, MD, who moderated the session where the poster was presented, was asked for comment on the study. “What’s surprising about it is that up to half of patients actually had EKG changes, different what from what we see in normal population, and it’s interesting to think about the implications. One of the things that our epilepsy patients are at risk for is SUDEP – sudden, unexplained death in epilepsy. It’s interesting to think about what these EKG changes mean for clinical care. I think it’s too early to say at this time, but this might be one of those markers for SUDEP,” said Dr. Gombolay, who is an assistant professor at Emory University, Atlanta, and director of the Pediatric Neuroimmunology and Multiple Sclerosis Clinic at Children’s Healthcare of Atlanta.

The researchers prospectively studied 213 patients who were recruited. 46% were female, 42% were white, 41% were Hispanic, and 13% were African American. The mean age at enrollment was 116 months, and mean age of seizure onset was 45 months.

The researchers found that 47% had abnormal EKG readings. None of the changes were pathologic, but they may reflect changes to cardiac electrophysiology, according to Dr. Bartlett. Those with abnormal readings were older on average (11.6 vs. 8.3 years; P < .005) and had a longer epilepsy duration (73 vs. 46 months; P = .004).

Dr. Gombolay has no relevant financial disclosures.

Pediatric patients with epilepsy have an increased risk of cardiovascular complications later in life, but little is known about how they progress. A new study finds that abnormalities in electrocardiograms are linked to an earlier age of diagnosis and longer epilepsy duration.

The findings could help researchers in the search for biomarkers that could predict later problems in children with epilepsy. “In pediatric neurology I think we’re a little bit removed from some of the cardiovascular complications that can happen within epilepsy, but cardiovascular complications are well established, especially in adults that have epilepsy. Adults with epilepsy are more likely to have coronary artery disease, atherosclerosis, arrhythmias, heart attacks, and sudden cardiac death. It’s a pretty substantial difference compared with their nonepileptic peers. So knowing that, the big question is, how do these changes develop, and how do we really counsel our patients in regards to these complications?” said Brittnie Bartlett, MD, during her presentation of the research at the 2022 annual meeting of the Child Neurology Society.

Identifying factors that increase cardiac complications

Previous studies suggested that epilepsy duration might be linked to cardiovascular complications. In children with Dravet syndrome, epilepsy duration has been shown to be associated with cardiac complications. Pathological T wave alternans, which indicates ventricular instability, has been observed in adults with longstanding epilepsy but not adults with newly diagnosed epilepsy.

“So our question in this preliminary report of our data is: What factors in our general pediatric epilepsy cohort can we identify that put them at a greater risk for having EKG changes, and specifically, we wanted to verify these findings from the other studies that epilepsy duration is, in fact, a risk factor for these EKG changes in general [among children] with epilepsy aside from channelopathies,” said Dr. Bartlett, who is an assistant professor at Baylor College of Medicine and a child neurologist at Texas Children’s Hospital, both in Houston.

She presented a striking finding that cardiovascular changes appear early. “The most important thing I want you all to make note of is the fact that, in this baseline study that we got on these kids, 47% already had changes that we were seeing on their EKGs,” said Dr. Bartlett.

The researchers also looked for factors associated with EKG changes, and found that duration of epilepsy and age at diagnosis were the two salient factors. “Our kids that did have EKG changes present had an average epilepsy duration of 73 months, as opposed to [the children] that did not have EKG changes and had an average epilepsy duration of 46 months,” said Dr. Bartlett.

Other factors, such epilepsy type, etiology, refractory epilepsy, and seizure frequency had no statistically significant association with EKG changes. They also saw no associations with high-risk seizure medications, even though some antiseizure drugs have been shown to be linked to EKG changes.

“We were able to confirm our hypothesis that EKG changes were more prevalent with longer duration of epilepsy. Unfortunately, we weren’t able to find any other clues that would help us counsel our patients, but this is part of a longitudinal prospective study that we’ll be following these kids over a couple of years’ time, so maybe we’ll be able to tease out some of these differences. Ideally, we’d be able to find some kind of a biomarker for future cardiovascular complications, and right now we’re working with some multivariable models to verify some of these findings,” said Dr. Bartlett.

Implications for clinical practice

During the Q&A, Dr. Bartlett was asked if all kids with epilepsy should undergo an EKG. She recommended against it for now. “At this point, I don’t think we have enough clear data to support getting an EKG on every kid with epilepsy. I do think it’s good practice to do them on all kids with channelopathies. As a general practice, I tend to have a low threshold towards many kids with epilepsy, but a lot of these cardiovascular risk factors tend to pop up more in adulthood, so it’s more preventative,” she said.

Grace Gombolay, MD, who moderated the session where the poster was presented, was asked for comment on the study. “What’s surprising about it is that up to half of patients actually had EKG changes, different what from what we see in normal population, and it’s interesting to think about the implications. One of the things that our epilepsy patients are at risk for is SUDEP – sudden, unexplained death in epilepsy. It’s interesting to think about what these EKG changes mean for clinical care. I think it’s too early to say at this time, but this might be one of those markers for SUDEP,” said Dr. Gombolay, who is an assistant professor at Emory University, Atlanta, and director of the Pediatric Neuroimmunology and Multiple Sclerosis Clinic at Children’s Healthcare of Atlanta.

The researchers prospectively studied 213 patients who were recruited. 46% were female, 42% were white, 41% were Hispanic, and 13% were African American. The mean age at enrollment was 116 months, and mean age of seizure onset was 45 months.

The researchers found that 47% had abnormal EKG readings. None of the changes were pathologic, but they may reflect changes to cardiac electrophysiology, according to Dr. Bartlett. Those with abnormal readings were older on average (11.6 vs. 8.3 years; P < .005) and had a longer epilepsy duration (73 vs. 46 months; P = .004).

Dr. Gombolay has no relevant financial disclosures.

Bariatric surgery may raise the risk of developing epilepsy, new research suggests. Analyzing health records, investigators compared almost 17,000 patients who had undergone bariatric surgery with more than 620,000 individuals with obesity who had not undergone the surgery.

During a minimum 3-year follow-up period, the surgery group had a 45% higher risk of developing epilepsy than the nonsurgery group. Moreover, patients who had a stroke after their bariatric surgery were 14 times more likely to develop epilepsy than those who did not have a stroke.

“When considering having bariatric surgery, people should talk to their doctors about the benefits and risks,” senior investigator Jorge Burneo, MD, professor of neurology, biostatistics, and epidemiology and endowed chair in epilepsy at Western University, London, told this news organization.

“While there are many health benefits of weight loss, our findings suggest that epilepsy is a long-term risk of bariatric surgery for weight loss,” Dr. Burneo said.

The findings were published online in Neurology.
 

Unrecognized risk factor?

Bariatric surgery has become more common as global rates of obesity have increased. The surgery has been shown to reduce the risk for serious obesity-related conditions, the researchers note.

However, “in addition to the positive outcomes of bariatric surgery, several long-term neurological complications have also been identified,” they write.

One previous study reported increased epilepsy risk following gastric bypass. Those findings “suggest that bariatric surgery may be an unrecognized epilepsy risk factor; however, this possible association has not been thoroughly explored,” write the investigators.

Dr. Burneo said he conducted the study because he has seen patients with epilepsy in his clinic who were “without risk factors, with normal MRIs, who shared the history of having bariatric surgery before the development of epilepsy.”

The researchers’ primary objective was to “assess whether epilepsy risk is elevated following bariatric surgery for weight loss relative to a nonsurgical cohort of patients who are obese,” he noted.

The study used linked administrative health databases in Ontario, Canada. Patients were accrued from July 1, 2010, to Dec. 31, 2016, and were followed until Dec. 31, 2019. The analysis included 639,472 participants, 2.7% of whom had undergone bariatric surgery.

The “exposed” cohort consisted of all Ontario residents aged 18 years or older who had undergone bariatric surgery during the 6-year period (n = 16,958; 65.1% women; mean age, 47.4 years), while the “unexposed” cohort consisted of patients hospitalized with a diagnosis of obesity who had not undergone bariatric surgery (n = 622,514; 62.8% women; mean age, 47.6 years).

Patients with a history of seizures, epilepsy, epilepsy risk factors, prior brain surgery, psychiatric disorders, or drug or alcohol abuse/dependence were excluded from the analysis.

The researchers collected data on patients’ sociodemographic characteristics at the index date, as well as Charlson Comorbidity Index scores during the 2 years prior to index, and data regarding several specific comorbidities, such as diabetes mellitus, hypertension, sleep apnea, depression/anxiety, and cardiovascular factors.

The exposed and unexposed cohorts were followed for a median period of 5.8 and 5.9 person-years, respectively.
 

‘Unclear’ mechanisms

Before weighting, 0.4% of participants in the exposed cohort (n = 73) developed epilepsy, versus 0.2% of participants in the unexposed cohort (n = 1,260) by the end of the follow-up period.

In the weighted cohorts, there were 50.1 epilepsy diagnoses per 100,000 person-years, versus 34.1 per 100,000 person-years (rate difference, 16 per 100,000 person-years).

The multivariable analysis of the weighted cohort showed the hazard ratio for epilepsy cases that were associated with bariatric surgery was 1.45 (95% confidence interval, 1.35-1.56), after adjusting for sleep apnea and including stroke as a time-varying covariate.

Having a stroke during the follow-up period increased epilepsy 14-fold in the exposed cohort (HR, 14.03; 95% CI, 4.25-46.25).

The investigators note that they were unable to measure obesity status or body mass index throughout the study and that some obesity-related comorbidities “may affect epilepsy risk.”

In addition, Dr. Burneo reported that the study did not investigate potential causes and mechanisms of the association between bariatric surgery and epilepsy risk.

Hypotheses “include potential nutritional deficiencies, receipt of general anesthesia, or other unclear causes,” he said.

“Future research should investigate epilepsy as a potential long-term complication of bariatric surgery, exploring the possible effects of this procedure,” Dr. Burneo added.
 

Risk-benefit discussion

In a comment, Jacqueline French, MD, professor of neurology at NYU Grossman School of Medicine, and director of NYU’s Epilepsy Study Consortium, said she was “not 100% surprised by the findings” because she has seen in her clinical practice “a number of patients who developed epilepsy after bariatric surgery or had a history of bariatric surgery at the time they developed epilepsy.”

On the other hand, she has also seen patients who did not have a history of bariatric surgery and who developed epilepsy.

“I’m unable to tell if there is an association, although I’ve had it at the back of my head as a thought and wondered about it,” said Dr. French, who is also the chief medical and innovation officer at the Epilepsy Foundation. She was not involved with the study.

She noted that possible mechanisms underlying the association are that gastric bypass surgery leads to a “significant alteration” in nutrient absorption. Moreover, “we now know that the microbiome is associated with epilepsy” and that changes occur in the gut microbiome after bariatric surgery, Dr. French said.

There are two take-home messages for practicing clinicians, she added.

“Although the risk [of developing epilepsy] is very low, it should be presented as part of the risks and benefits to patients considering bariatric surgery,” she said.

“It’s equally important to follow up on the potential differences in these patients who go on to develop epilepsy following bariatric surgery,” said Dr. French. “Is there a certain metabolic profile or some nutrient previously absorbed that now is not absorbed that might predispose people to risk?”

This would be “enormously important to know because it might not just pertain to these people but to a whole other cohort of people who develop epilepsy,” Dr. French concluded.

The study was funded by the Ontario Ministry of Health and Ministry of Long-Term Care and by the Jack Cowin Endowed Chair in Epilepsy Research at Western University. Dr. Burneo holds the Jack Cowin Endowed Chair in Epilepsy Research at Western University. The other investigators and Dr. French have reported no relevant financial relationships.

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

Bariatric surgery may raise the risk of developing epilepsy, new research suggests. Analyzing health records, investigators compared almost 17,000 patients who had undergone bariatric surgery with more than 620,000 individuals with obesity who had not undergone the surgery.

During a minimum 3-year follow-up period, the surgery group had a 45% higher risk of developing epilepsy than the nonsurgery group. Moreover, patients who had a stroke after their bariatric surgery were 14 times more likely to develop epilepsy than those who did not have a stroke.

“When considering having bariatric surgery, people should talk to their doctors about the benefits and risks,” senior investigator Jorge Burneo, MD, professor of neurology, biostatistics, and epidemiology and endowed chair in epilepsy at Western University, London, told this news organization.

“While there are many health benefits of weight loss, our findings suggest that epilepsy is a long-term risk of bariatric surgery for weight loss,” Dr. Burneo said.

The findings were published online in Neurology.
 

Unrecognized risk factor?

Bariatric surgery has become more common as global rates of obesity have increased. The surgery has been shown to reduce the risk for serious obesity-related conditions, the researchers note.

However, “in addition to the positive outcomes of bariatric surgery, several long-term neurological complications have also been identified,” they write.

One previous study reported increased epilepsy risk following gastric bypass. Those findings “suggest that bariatric surgery may be an unrecognized epilepsy risk factor; however, this possible association has not been thoroughly explored,” write the investigators.

Dr. Burneo said he conducted the study because he has seen patients with epilepsy in his clinic who were “without risk factors, with normal MRIs, who shared the history of having bariatric surgery before the development of epilepsy.”

The researchers’ primary objective was to “assess whether epilepsy risk is elevated following bariatric surgery for weight loss relative to a nonsurgical cohort of patients who are obese,” he noted.

The study used linked administrative health databases in Ontario, Canada. Patients were accrued from July 1, 2010, to Dec. 31, 2016, and were followed until Dec. 31, 2019. The analysis included 639,472 participants, 2.7% of whom had undergone bariatric surgery.

The “exposed” cohort consisted of all Ontario residents aged 18 years or older who had undergone bariatric surgery during the 6-year period (n = 16,958; 65.1% women; mean age, 47.4 years), while the “unexposed” cohort consisted of patients hospitalized with a diagnosis of obesity who had not undergone bariatric surgery (n = 622,514; 62.8% women; mean age, 47.6 years).

Patients with a history of seizures, epilepsy, epilepsy risk factors, prior brain surgery, psychiatric disorders, or drug or alcohol abuse/dependence were excluded from the analysis.

The researchers collected data on patients’ sociodemographic characteristics at the index date, as well as Charlson Comorbidity Index scores during the 2 years prior to index, and data regarding several specific comorbidities, such as diabetes mellitus, hypertension, sleep apnea, depression/anxiety, and cardiovascular factors.

The exposed and unexposed cohorts were followed for a median period of 5.8 and 5.9 person-years, respectively.
 

‘Unclear’ mechanisms

Before weighting, 0.4% of participants in the exposed cohort (n = 73) developed epilepsy, versus 0.2% of participants in the unexposed cohort (n = 1,260) by the end of the follow-up period.

In the weighted cohorts, there were 50.1 epilepsy diagnoses per 100,000 person-years, versus 34.1 per 100,000 person-years (rate difference, 16 per 100,000 person-years).

The multivariable analysis of the weighted cohort showed the hazard ratio for epilepsy cases that were associated with bariatric surgery was 1.45 (95% confidence interval, 1.35-1.56), after adjusting for sleep apnea and including stroke as a time-varying covariate.

Having a stroke during the follow-up period increased epilepsy 14-fold in the exposed cohort (HR, 14.03; 95% CI, 4.25-46.25).

The investigators note that they were unable to measure obesity status or body mass index throughout the study and that some obesity-related comorbidities “may affect epilepsy risk.”

In addition, Dr. Burneo reported that the study did not investigate potential causes and mechanisms of the association between bariatric surgery and epilepsy risk.

Hypotheses “include potential nutritional deficiencies, receipt of general anesthesia, or other unclear causes,” he said.

“Future research should investigate epilepsy as a potential long-term complication of bariatric surgery, exploring the possible effects of this procedure,” Dr. Burneo added.
 

Risk-benefit discussion

In a comment, Jacqueline French, MD, professor of neurology at NYU Grossman School of Medicine, and director of NYU’s Epilepsy Study Consortium, said she was “not 100% surprised by the findings” because she has seen in her clinical practice “a number of patients who developed epilepsy after bariatric surgery or had a history of bariatric surgery at the time they developed epilepsy.”

On the other hand, she has also seen patients who did not have a history of bariatric surgery and who developed epilepsy.

“I’m unable to tell if there is an association, although I’ve had it at the back of my head as a thought and wondered about it,” said Dr. French, who is also the chief medical and innovation officer at the Epilepsy Foundation. She was not involved with the study.

She noted that possible mechanisms underlying the association are that gastric bypass surgery leads to a “significant alteration” in nutrient absorption. Moreover, “we now know that the microbiome is associated with epilepsy” and that changes occur in the gut microbiome after bariatric surgery, Dr. French said.

There are two take-home messages for practicing clinicians, she added.

“Although the risk [of developing epilepsy] is very low, it should be presented as part of the risks and benefits to patients considering bariatric surgery,” she said.

“It’s equally important to follow up on the potential differences in these patients who go on to develop epilepsy following bariatric surgery,” said Dr. French. “Is there a certain metabolic profile or some nutrient previously absorbed that now is not absorbed that might predispose people to risk?”

This would be “enormously important to know because it might not just pertain to these people but to a whole other cohort of people who develop epilepsy,” Dr. French concluded.

The study was funded by the Ontario Ministry of Health and Ministry of Long-Term Care and by the Jack Cowin Endowed Chair in Epilepsy Research at Western University. Dr. Burneo holds the Jack Cowin Endowed Chair in Epilepsy Research at Western University. The other investigators and Dr. French have reported no relevant financial relationships.

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

Bariatric surgery may raise the risk of developing epilepsy, new research suggests. Analyzing health records, investigators compared almost 17,000 patients who had undergone bariatric surgery with more than 620,000 individuals with obesity who had not undergone the surgery.

During a minimum 3-year follow-up period, the surgery group had a 45% higher risk of developing epilepsy than the nonsurgery group. Moreover, patients who had a stroke after their bariatric surgery were 14 times more likely to develop epilepsy than those who did not have a stroke.

“When considering having bariatric surgery, people should talk to their doctors about the benefits and risks,” senior investigator Jorge Burneo, MD, professor of neurology, biostatistics, and epidemiology and endowed chair in epilepsy at Western University, London, told this news organization.

“While there are many health benefits of weight loss, our findings suggest that epilepsy is a long-term risk of bariatric surgery for weight loss,” Dr. Burneo said.

The findings were published online in Neurology.
 

Unrecognized risk factor?

Bariatric surgery has become more common as global rates of obesity have increased. The surgery has been shown to reduce the risk for serious obesity-related conditions, the researchers note.

However, “in addition to the positive outcomes of bariatric surgery, several long-term neurological complications have also been identified,” they write.

One previous study reported increased epilepsy risk following gastric bypass. Those findings “suggest that bariatric surgery may be an unrecognized epilepsy risk factor; however, this possible association has not been thoroughly explored,” write the investigators.

Dr. Burneo said he conducted the study because he has seen patients with epilepsy in his clinic who were “without risk factors, with normal MRIs, who shared the history of having bariatric surgery before the development of epilepsy.”

The researchers’ primary objective was to “assess whether epilepsy risk is elevated following bariatric surgery for weight loss relative to a nonsurgical cohort of patients who are obese,” he noted.

The study used linked administrative health databases in Ontario, Canada. Patients were accrued from July 1, 2010, to Dec. 31, 2016, and were followed until Dec. 31, 2019. The analysis included 639,472 participants, 2.7% of whom had undergone bariatric surgery.

The “exposed” cohort consisted of all Ontario residents aged 18 years or older who had undergone bariatric surgery during the 6-year period (n = 16,958; 65.1% women; mean age, 47.4 years), while the “unexposed” cohort consisted of patients hospitalized with a diagnosis of obesity who had not undergone bariatric surgery (n = 622,514; 62.8% women; mean age, 47.6 years).

Patients with a history of seizures, epilepsy, epilepsy risk factors, prior brain surgery, psychiatric disorders, or drug or alcohol abuse/dependence were excluded from the analysis.

The researchers collected data on patients’ sociodemographic characteristics at the index date, as well as Charlson Comorbidity Index scores during the 2 years prior to index, and data regarding several specific comorbidities, such as diabetes mellitus, hypertension, sleep apnea, depression/anxiety, and cardiovascular factors.

The exposed and unexposed cohorts were followed for a median period of 5.8 and 5.9 person-years, respectively.
 

‘Unclear’ mechanisms

Before weighting, 0.4% of participants in the exposed cohort (n = 73) developed epilepsy, versus 0.2% of participants in the unexposed cohort (n = 1,260) by the end of the follow-up period.

In the weighted cohorts, there were 50.1 epilepsy diagnoses per 100,000 person-years, versus 34.1 per 100,000 person-years (rate difference, 16 per 100,000 person-years).

The multivariable analysis of the weighted cohort showed the hazard ratio for epilepsy cases that were associated with bariatric surgery was 1.45 (95% confidence interval, 1.35-1.56), after adjusting for sleep apnea and including stroke as a time-varying covariate.

Having a stroke during the follow-up period increased epilepsy 14-fold in the exposed cohort (HR, 14.03; 95% CI, 4.25-46.25).

The investigators note that they were unable to measure obesity status or body mass index throughout the study and that some obesity-related comorbidities “may affect epilepsy risk.”

In addition, Dr. Burneo reported that the study did not investigate potential causes and mechanisms of the association between bariatric surgery and epilepsy risk.

Hypotheses “include potential nutritional deficiencies, receipt of general anesthesia, or other unclear causes,” he said.

“Future research should investigate epilepsy as a potential long-term complication of bariatric surgery, exploring the possible effects of this procedure,” Dr. Burneo added.
 

Risk-benefit discussion

In a comment, Jacqueline French, MD, professor of neurology at NYU Grossman School of Medicine, and director of NYU’s Epilepsy Study Consortium, said she was “not 100% surprised by the findings” because she has seen in her clinical practice “a number of patients who developed epilepsy after bariatric surgery or had a history of bariatric surgery at the time they developed epilepsy.”

On the other hand, she has also seen patients who did not have a history of bariatric surgery and who developed epilepsy.

“I’m unable to tell if there is an association, although I’ve had it at the back of my head as a thought and wondered about it,” said Dr. French, who is also the chief medical and innovation officer at the Epilepsy Foundation. She was not involved with the study.

She noted that possible mechanisms underlying the association are that gastric bypass surgery leads to a “significant alteration” in nutrient absorption. Moreover, “we now know that the microbiome is associated with epilepsy” and that changes occur in the gut microbiome after bariatric surgery, Dr. French said.

There are two take-home messages for practicing clinicians, she added.

“Although the risk [of developing epilepsy] is very low, it should be presented as part of the risks and benefits to patients considering bariatric surgery,” she said.

“It’s equally important to follow up on the potential differences in these patients who go on to develop epilepsy following bariatric surgery,” said Dr. French. “Is there a certain metabolic profile or some nutrient previously absorbed that now is not absorbed that might predispose people to risk?”

This would be “enormously important to know because it might not just pertain to these people but to a whole other cohort of people who develop epilepsy,” Dr. French concluded.

The study was funded by the Ontario Ministry of Health and Ministry of Long-Term Care and by the Jack Cowin Endowed Chair in Epilepsy Research at Western University. Dr. Burneo holds the Jack Cowin Endowed Chair in Epilepsy Research at Western University. The other investigators and Dr. French have reported no relevant financial relationships.

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

Prenatal exposure to high-dose folic acid is associated with a greater than twofold increased risk for cancer in children of mothers with epilepsy, new data from a Scandinavian registry of more than 3 million pregnancies suggests.

The increased risk for cancer did not change after considering other factors that could explain the risk, such as use of antiseizure medication (ASM).

There was no increased risk for cancer in children of mothers without epilepsy who used high-dose folic acid.

The results of this study “should be considered when the risks and benefits of folic acid supplements for women with epilepsy are discussed and before decisions about optimal dose recommendations are made,” the authors write.

“Although we believe that the association between prescription fills for high-dose folic acid and cancer in children born to mothers with epilepsy is robust, it is important to underline that these are the findings of one study only,” first author Håkon Magne Vegrim, MD, with University of Bergen (Norway) told this news organization.

The study was published online in JAMA Neurology.
 

Risks and benefits

Women with epilepsy are advised to take high doses of folic acid before and during pregnancy owing to the risk for congenital malformations associated with ASM. Whether high-dose folic acid is associated with increases in the risk for childhood cancer is unknown.

To investigate, the researchers analyzed registry data from Denmark, Norway, and Sweden for 3.3 million children followed to a median age of 7.3 years.

Among the 27,784 children born to mothers with epilepsy, 5,934 (21.4%) were exposed to high-dose folic acid (mean dose, 4.3 mg), with a cancer incidence rate of 42.5 per 100,000 person-years in 18 exposed cancer cases compared with 18.4 per 100,000 person-years in 29 unexposed cancer cases – yielding an adjusted hazard ratio of 2.7 (95% confidence interval, 1.2-6.3).

The absolute risk with exposure was 1.5% (95% CI, 0.5%-3.5%) in children of mothers with epilepsy compared with 0.6% (95% CI, 0.3%-1.1%) in children of mothers with epilepsy who were not exposed high-dose folic acid.

Prenatal exposure to high-dose folic acid was not associated with an increased risk for cancer in children of mothers without epilepsy.

In children of mothers without epilepsy, 46,646 (1.4%) were exposed to high-dose folic acid (mean dose, 2.9 mg). There were 69 exposed and 4,927 unexposed cancer cases and an aHR for cancer of 1.1 (95% CI, 0.9-1.4) and absolute risk for cancer of 0.4% (95% CI, 0.3%-0.5%).

There was no association between any specific ASM and childhood cancer.

“Removing mothers with any prescription fills for carbamazepine and valproate was not associated with the point estimate. Hence, these two ASMs were not important effect modifiers for the cancer association,” the investigators note in their study.

They also note that the most common childhood cancer types in children among mothers with epilepsy who took high-dose folic acid did not differ from the distribution in the general population.

“We need to get more knowledge about the potential mechanisms behind high-dose folic acid and childhood cancer, and it is important to identify the optimal dose to balance risks and benefits – and whether folic acid supplementation should be more individualized, based on factors like the serum level of folate and what type of antiseizure medication that is being used,” said Dr. Vegrim.
 

Practice changing?

Weighing in on the study, Elizabeth E. Gerard, MD, director of the Women with Epilepsy Program and associate professor of neurology at Northwestern University in Chicago, said, “There are known benefits of folic acid supplementation during pregnancy including a decreased risk of neural tube defects in the general population and improved neurodevelopmental outcomes in children born to mothers with and without epilepsy.”

“However, despite some expert guidelines recommending high-dose folic acid supplementation, there is a lack of certainty surrounding the ‘just right’ dose for patients with epilepsy who may become pregnant,” said Dr. Gerard, who wasn’t involved in the study.

Dr. Gerard, a member of the American Epilepsy Society, noted that other epidemiologic studies of folic acid supplementation and cancer have had “contradictory results, thus further research on this association will be needed. Additionally, differences in maternal/fetal folate metabolism and blood levels may be an important factor to study in the future.

“That said, this study definitely should cause us to pause and reevaluate the common practice of high-dose folic acid supplementation for patients with epilepsy who are considering pregnancy,” said Dr. Gerard.

The study was supported by the NordForsk Nordic Program on Health and Welfare. Dr. Vegrim and Dr. Gerard report no relevant financial relationships.

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

Prenatal exposure to high-dose folic acid is associated with a greater than twofold increased risk for cancer in children of mothers with epilepsy, new data from a Scandinavian registry of more than 3 million pregnancies suggests.

The increased risk for cancer did not change after considering other factors that could explain the risk, such as use of antiseizure medication (ASM).

There was no increased risk for cancer in children of mothers without epilepsy who used high-dose folic acid.

The results of this study “should be considered when the risks and benefits of folic acid supplements for women with epilepsy are discussed and before decisions about optimal dose recommendations are made,” the authors write.

“Although we believe that the association between prescription fills for high-dose folic acid and cancer in children born to mothers with epilepsy is robust, it is important to underline that these are the findings of one study only,” first author Håkon Magne Vegrim, MD, with University of Bergen (Norway) told this news organization.

The study was published online in JAMA Neurology.
 

Risks and benefits

Women with epilepsy are advised to take high doses of folic acid before and during pregnancy owing to the risk for congenital malformations associated with ASM. Whether high-dose folic acid is associated with increases in the risk for childhood cancer is unknown.

To investigate, the researchers analyzed registry data from Denmark, Norway, and Sweden for 3.3 million children followed to a median age of 7.3 years.

Among the 27,784 children born to mothers with epilepsy, 5,934 (21.4%) were exposed to high-dose folic acid (mean dose, 4.3 mg), with a cancer incidence rate of 42.5 per 100,000 person-years in 18 exposed cancer cases compared with 18.4 per 100,000 person-years in 29 unexposed cancer cases – yielding an adjusted hazard ratio of 2.7 (95% confidence interval, 1.2-6.3).

The absolute risk with exposure was 1.5% (95% CI, 0.5%-3.5%) in children of mothers with epilepsy compared with 0.6% (95% CI, 0.3%-1.1%) in children of mothers with epilepsy who were not exposed high-dose folic acid.

Prenatal exposure to high-dose folic acid was not associated with an increased risk for cancer in children of mothers without epilepsy.

In children of mothers without epilepsy, 46,646 (1.4%) were exposed to high-dose folic acid (mean dose, 2.9 mg). There were 69 exposed and 4,927 unexposed cancer cases and an aHR for cancer of 1.1 (95% CI, 0.9-1.4) and absolute risk for cancer of 0.4% (95% CI, 0.3%-0.5%).

There was no association between any specific ASM and childhood cancer.

“Removing mothers with any prescription fills for carbamazepine and valproate was not associated with the point estimate. Hence, these two ASMs were not important effect modifiers for the cancer association,” the investigators note in their study.

They also note that the most common childhood cancer types in children among mothers with epilepsy who took high-dose folic acid did not differ from the distribution in the general population.

“We need to get more knowledge about the potential mechanisms behind high-dose folic acid and childhood cancer, and it is important to identify the optimal dose to balance risks and benefits – and whether folic acid supplementation should be more individualized, based on factors like the serum level of folate and what type of antiseizure medication that is being used,” said Dr. Vegrim.
 

Practice changing?

Weighing in on the study, Elizabeth E. Gerard, MD, director of the Women with Epilepsy Program and associate professor of neurology at Northwestern University in Chicago, said, “There are known benefits of folic acid supplementation during pregnancy including a decreased risk of neural tube defects in the general population and improved neurodevelopmental outcomes in children born to mothers with and without epilepsy.”

“However, despite some expert guidelines recommending high-dose folic acid supplementation, there is a lack of certainty surrounding the ‘just right’ dose for patients with epilepsy who may become pregnant,” said Dr. Gerard, who wasn’t involved in the study.

Dr. Gerard, a member of the American Epilepsy Society, noted that other epidemiologic studies of folic acid supplementation and cancer have had “contradictory results, thus further research on this association will be needed. Additionally, differences in maternal/fetal folate metabolism and blood levels may be an important factor to study in the future.

“That said, this study definitely should cause us to pause and reevaluate the common practice of high-dose folic acid supplementation for patients with epilepsy who are considering pregnancy,” said Dr. Gerard.

The study was supported by the NordForsk Nordic Program on Health and Welfare. Dr. Vegrim and Dr. Gerard report no relevant financial relationships.

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

Prenatal exposure to high-dose folic acid is associated with a greater than twofold increased risk for cancer in children of mothers with epilepsy, new data from a Scandinavian registry of more than 3 million pregnancies suggests.

The increased risk for cancer did not change after considering other factors that could explain the risk, such as use of antiseizure medication (ASM).

There was no increased risk for cancer in children of mothers without epilepsy who used high-dose folic acid.

The results of this study “should be considered when the risks and benefits of folic acid supplements for women with epilepsy are discussed and before decisions about optimal dose recommendations are made,” the authors write.

“Although we believe that the association between prescription fills for high-dose folic acid and cancer in children born to mothers with epilepsy is robust, it is important to underline that these are the findings of one study only,” first author Håkon Magne Vegrim, MD, with University of Bergen (Norway) told this news organization.

The study was published online in JAMA Neurology.
 

Risks and benefits

Women with epilepsy are advised to take high doses of folic acid before and during pregnancy owing to the risk for congenital malformations associated with ASM. Whether high-dose folic acid is associated with increases in the risk for childhood cancer is unknown.

To investigate, the researchers analyzed registry data from Denmark, Norway, and Sweden for 3.3 million children followed to a median age of 7.3 years.

Among the 27,784 children born to mothers with epilepsy, 5,934 (21.4%) were exposed to high-dose folic acid (mean dose, 4.3 mg), with a cancer incidence rate of 42.5 per 100,000 person-years in 18 exposed cancer cases compared with 18.4 per 100,000 person-years in 29 unexposed cancer cases – yielding an adjusted hazard ratio of 2.7 (95% confidence interval, 1.2-6.3).

The absolute risk with exposure was 1.5% (95% CI, 0.5%-3.5%) in children of mothers with epilepsy compared with 0.6% (95% CI, 0.3%-1.1%) in children of mothers with epilepsy who were not exposed high-dose folic acid.

Prenatal exposure to high-dose folic acid was not associated with an increased risk for cancer in children of mothers without epilepsy.

In children of mothers without epilepsy, 46,646 (1.4%) were exposed to high-dose folic acid (mean dose, 2.9 mg). There were 69 exposed and 4,927 unexposed cancer cases and an aHR for cancer of 1.1 (95% CI, 0.9-1.4) and absolute risk for cancer of 0.4% (95% CI, 0.3%-0.5%).

There was no association between any specific ASM and childhood cancer.

“Removing mothers with any prescription fills for carbamazepine and valproate was not associated with the point estimate. Hence, these two ASMs were not important effect modifiers for the cancer association,” the investigators note in their study.

They also note that the most common childhood cancer types in children among mothers with epilepsy who took high-dose folic acid did not differ from the distribution in the general population.

“We need to get more knowledge about the potential mechanisms behind high-dose folic acid and childhood cancer, and it is important to identify the optimal dose to balance risks and benefits – and whether folic acid supplementation should be more individualized, based on factors like the serum level of folate and what type of antiseizure medication that is being used,” said Dr. Vegrim.
 

Practice changing?

Weighing in on the study, Elizabeth E. Gerard, MD, director of the Women with Epilepsy Program and associate professor of neurology at Northwestern University in Chicago, said, “There are known benefits of folic acid supplementation during pregnancy including a decreased risk of neural tube defects in the general population and improved neurodevelopmental outcomes in children born to mothers with and without epilepsy.”

“However, despite some expert guidelines recommending high-dose folic acid supplementation, there is a lack of certainty surrounding the ‘just right’ dose for patients with epilepsy who may become pregnant,” said Dr. Gerard, who wasn’t involved in the study.

Dr. Gerard, a member of the American Epilepsy Society, noted that other epidemiologic studies of folic acid supplementation and cancer have had “contradictory results, thus further research on this association will be needed. Additionally, differences in maternal/fetal folate metabolism and blood levels may be an important factor to study in the future.

“That said, this study definitely should cause us to pause and reevaluate the common practice of high-dose folic acid supplementation for patients with epilepsy who are considering pregnancy,” said Dr. Gerard.

The study was supported by the NordForsk Nordic Program on Health and Welfare. Dr. Vegrim and Dr. Gerard report no relevant financial relationships.

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

POMONA, CALIF. – When you first meet 17-month-old Aaron Martinez, it’s not obvious that something is catastrophically wrong.

What you see is a beautiful little boy with smooth, lustrous skin, an abundance of glossy brown hair, and a disarming smile. What you hear are coos and cries that don’t immediately signal anything is horribly awry.

But his parents, Adriana Pinedo and Hector Martinez, know the truth painfully well.

Although Ms. Pinedo’s doctors and midwife had described the pregnancy as “perfect” for all 9 months, Aaron was born with most of his brain cells dead, the result of two strokes and a massive bleed he sustained while in utero.

Doctors aren’t sure what caused the anomalies that left Aaron with virtually no cognitive function or physical mobility. His voluminous hair hides a head whose circumference is too small for his age. He has epilepsy that triggers multiple seizures each day, and his smile is not always what it seems. “It could be a smile; it could be a seizure,” Ms. Pinedo said.

Shortly after Aaron was born, doctors told Ms. Pinedo, 34, and Mr. Martinez, 35, there was no hope and they should “let nature take its course.” They would learn months later that the doctors had not expected the boy to live more than 5 days. It was on Day 5 that his parents put him in home hospice care, an arrangement that has continued into his second year of life.

The family gets weekly visits from hospice nurses, therapists, social workers, and a chaplain in the cramped one-bedroom apartment they rent from the people who live in the main house on the same lot on a quiet residential street in this Inland Empire city.

One of the main criteria for hospice care, established by Medicare largely for seniors but also applied to children, is a diagnosis of 6 months or less to live. Yet over the course of 17 months, Aaron’s medical team has repeatedly recertified his hospice eligibility.

Under a provision of the 2010 Affordable Care Act, children enrolled in Medicaid or the Children’s Health Insurance Program are allowed, unlike adults, to be in hospice while continuing to receive curative or life-extending care. Commercial insurers are not required to cover this “concurrent care,” but many now do.

More than a decade since its inception, concurrent care is widely credited with improving the quality of life for many terminally ill children, easing stress on the family and, in some cases, sustaining hope for a cure. But the arrangement can contribute to a painful dilemma for parents like Ms. Pinedo and Mr. Martinez, who are torn between their fierce commitment to their son and the futility of knowing that his condition leaves him with no future worth hoping for.

“We could lose a life, but if he continues to live this way, we’ll lose three,” said Ms. Pinedo. “There’s no quality of life for him or for us.”

Aaron’s doctors now say he could conceivably live for years. His body hasn’t stopped growing since he was born. He’s in the 96th percentile for height for his age, and his weight is about average.

His parents have talked about “graduating” him from hospice. But he is never stable for long, and they welcome the visits from their hospice team. The seizures, sometimes 30 a day, are a persistent assault on his brain and, as he grows, the medications intended to control them must be changed or the doses recalibrated. He is at continual risk of gastrointestinal problems and potentially deadly fluid buildup in his lungs.

Ms. Pinedo, who works from home for a nonprofit public health organization, spends much of her time with Aaron, while Mr. Martinez works as a landscaper. She has chosen to live in the moment, she said, because otherwise her mind wanders to a future in which either “he could die – or he won’t, and I’ll end up changing the diapers of a 40-year-old man.” Either of those “are going to suck.”

While cancer is one of the major illnesses afflicting children in hospice, many others, like Aaron, have rare congenital defects, severe neurological impairments, or uncommon metabolic deficiencies.

“We have diseases that families tell us are 1 of 10 cases in the world,” said Glen Komatsu, MD, medical director of Torrance, Calif.–based TrinityKids Care, which provides home hospice services to Aaron and more than 70 other kids in Los Angeles and Orange counties.

In the years leading up to the ACA’s implementation, pediatric health advocates lobbied hard for the concurrent care provision. Without the possibility of life-extending care or hope for a cure, many parents refused to put their terminally ill kids in hospice, thinking it was tantamount to giving up on them. That meant the whole family missed out on the support hospice can provide, not just pain relief and comfort for the dying child, but emotional and spiritual care for parents and siblings under extreme duress.

TrinityKids Care, run by the large national Catholic health system Providence, doesn’t just send nurses, social workers, and chaplains into homes. For patients able to participate, and their siblings, it also offers art and science projects, exercise classes, movies, and music. During the pandemic, these activities have been conducted via Zoom, and volunteers deliver needed supplies to the children’s homes.

The ability to get treatments that prolong their lives is a major reason children in concurrent care are more likely than adults to outlive the 6-months-to-live diagnosis required for hospice.

“Concurrent care, by its very intention, very clearly is going to extend their lives, and by extending their lives they’re no longer going to be hospice-eligible if you use the 6-month life expectancy criteria,” said David Steinhorn, MD, a pediatric intensive care physician in Virginia, who has helped develop numerous children’s hospice programs across the United States.

Another factor is that kids, even sick ones, are simply more robust than many older people.

“Sick kids are often otherwise healthy, except for one organ,” said Debra Lotstein, MD, chief of the division of comfort and palliative care at Children’s Hospital Los Angeles. “They may have cancer in their body, but their hearts are good and their lungs are good, compared to a 90-year-old who at baseline is just not as resilient.”

All of Aaron Martinez’s vital organs, except for his brain, seem to be working. “There have been times when we’ve brought him in, and the nurse looks at the chart and looks at him, and she can’t believe it’s that child,” said Mr. Martinez.

When kids live past the 6-month life expectancy, they must be recertified to stay in hospice. In many cases, Dr. Steinhorn said, he is willing to recertify his pediatric patients indefinitely.

Even with doctors advocating for them, it’s not always easy for children to get into hospice care. Most hospices care primarily for adults and are reluctant to take kids.

“The hospice will say: ‘We don’t have the capacity to treat children. Our nurses aren’t trained. It’s different. We just can’t do it,’ ” said Lori Butterworth, cofounder of the Children’s Hospice and Palliative Care Coalition of California in Watsonville. “The other reason is not wanting to, because it’s existentially devastating and sad and hard.”

Finances also play a role. Home hospice care is paid at a per diem rate set by Medicare – slightly over $200 a day for the first 2 months, about $161 a day after that – and it is typically the same for kids and adults. Children, particularly those with rare conditions, often require more intensive and innovative care, so the per diem doesn’t stretch as far.

The concurrent care provision has made taking pediatric patients more viable for hospice organizations, Dr. Steinhorn and others said. Under the ACA, many of the expenses for certain medications and medical services can be shifted to the patient’s primary insurance, leaving hospices responsible for pain relief and comfort care.

Even so, the relatively small number of kids who die each year from protracted ailments hardly makes pediatric hospice an appealing line of business in an industry craving growth, especially one in which private equity investors are active and seeking a big payday.

In California, only 21 of 1,336 hospices reported having a specialized pediatric hospice program, and 59 said they served at least one patient under age 21, according to an analysis of 2020 state data by Cordt Kassner, CEO of Hospice Analytics in Colorado Springs.

Hospice providers that do cater to children often face a more basic challenge: Even with the possibility of concurrent care, many parents still equate hospice with acceptance of death. That was the case initially for Matt and Reese Sonnen, Los Angeles residents whose daughter, Layla, was born with a seizure disorder that had no name: Her brain had simply failed to develop in the womb, and an MRI showed “fluid taking up space where the brain wasn’t,” her mother said.

When Layla’s team first mentioned hospice, “I was in the car on my phone, and I almost crashed the car,” Mrs. Sonnen recalled. “The first thought that came to mind was: ‘It is just the end,’ but we felt she was nowhere near it, because she was strong, she was mighty. She was my little girl. She was going to get through this.”

About 3 months later, as Layla’s nervous system deteriorated, causing her to writhe in pain, her parents agreed to enroll her in hospice with TrinityKids Care. She died weeks later, not long after her second birthday. She was in her mother’s arms, with Mr. Sonnen close by.

“All of a sudden, Layla breathed out a big rush of air. The nurse looked at me and said: ‘That was her last breath.’ I was literally breathing in her last breath,” Mrs. Sonnen recounted. “I never wanted to breathe again, because now I felt I had her in my lungs. Don’t make me laugh, don’t make me exhale.”

Layla’s parents have no regrets about their decision to put her in hospice. “It was the absolute right decision, and in hindsight we should have done it sooner,” Mr. Sonnen said. “She was suffering, and we had blinders on.”

Ms. Pinedo said she is “infinitely grateful” for hospice, despite the heartache of Aaron’s condition. Sometimes the social worker will stop by, she said, just to say hello and drop off a latte, a small gesture that can feel very uplifting. “They’ve been our lifeline,” she said.

Ms. Pinedo talks about a friend of hers with a healthy baby, also named Aaron, who is pregnant with her second child. “All the stuff that was on our list, they’re living. And I love them dearly. But it’s almost hard to look, because it’s like looking at the stuff that you didn’t get. It’s like Christmas Day, staring through the window at the neighbor’s house, and you’re sitting there in the cold.”

Yet she seems palpably torn between that bleak remorse and the unconditional love parents feel toward their children. At one point, Ms. Pinedo interrupted herself midsentence and turned to her son, who was in Mr. Martinez’s arms: “Yes, Papi, you are so stinking cute, and you are still my dream come true.”

This story was produced by KHN, which publishes California Healthline, an editorially independent service of the California Health Care Foundation. KHN (Kaiser Health News) is a national newsroom that produces in-depth journalism about health issues. Together with Policy Analysis and Polling, KHN is one of the three major operating programs at KFF (Kaiser Family Foundation). KFF is an endowed nonprofit organization providing information on health issues to the nation.

POMONA, CALIF. – When you first meet 17-month-old Aaron Martinez, it’s not obvious that something is catastrophically wrong.

What you see is a beautiful little boy with smooth, lustrous skin, an abundance of glossy brown hair, and a disarming smile. What you hear are coos and cries that don’t immediately signal anything is horribly awry.

But his parents, Adriana Pinedo and Hector Martinez, know the truth painfully well.

Although Ms. Pinedo’s doctors and midwife had described the pregnancy as “perfect” for all 9 months, Aaron was born with most of his brain cells dead, the result of two strokes and a massive bleed he sustained while in utero.

Doctors aren’t sure what caused the anomalies that left Aaron with virtually no cognitive function or physical mobility. His voluminous hair hides a head whose circumference is too small for his age. He has epilepsy that triggers multiple seizures each day, and his smile is not always what it seems. “It could be a smile; it could be a seizure,” Ms. Pinedo said.

Shortly after Aaron was born, doctors told Ms. Pinedo, 34, and Mr. Martinez, 35, there was no hope and they should “let nature take its course.” They would learn months later that the doctors had not expected the boy to live more than 5 days. It was on Day 5 that his parents put him in home hospice care, an arrangement that has continued into his second year of life.

The family gets weekly visits from hospice nurses, therapists, social workers, and a chaplain in the cramped one-bedroom apartment they rent from the people who live in the main house on the same lot on a quiet residential street in this Inland Empire city.

One of the main criteria for hospice care, established by Medicare largely for seniors but also applied to children, is a diagnosis of 6 months or less to live. Yet over the course of 17 months, Aaron’s medical team has repeatedly recertified his hospice eligibility.

Under a provision of the 2010 Affordable Care Act, children enrolled in Medicaid or the Children’s Health Insurance Program are allowed, unlike adults, to be in hospice while continuing to receive curative or life-extending care. Commercial insurers are not required to cover this “concurrent care,” but many now do.

More than a decade since its inception, concurrent care is widely credited with improving the quality of life for many terminally ill children, easing stress on the family and, in some cases, sustaining hope for a cure. But the arrangement can contribute to a painful dilemma for parents like Ms. Pinedo and Mr. Martinez, who are torn between their fierce commitment to their son and the futility of knowing that his condition leaves him with no future worth hoping for.

“We could lose a life, but if he continues to live this way, we’ll lose three,” said Ms. Pinedo. “There’s no quality of life for him or for us.”

Aaron’s doctors now say he could conceivably live for years. His body hasn’t stopped growing since he was born. He’s in the 96th percentile for height for his age, and his weight is about average.

His parents have talked about “graduating” him from hospice. But he is never stable for long, and they welcome the visits from their hospice team. The seizures, sometimes 30 a day, are a persistent assault on his brain and, as he grows, the medications intended to control them must be changed or the doses recalibrated. He is at continual risk of gastrointestinal problems and potentially deadly fluid buildup in his lungs.

Ms. Pinedo, who works from home for a nonprofit public health organization, spends much of her time with Aaron, while Mr. Martinez works as a landscaper. She has chosen to live in the moment, she said, because otherwise her mind wanders to a future in which either “he could die – or he won’t, and I’ll end up changing the diapers of a 40-year-old man.” Either of those “are going to suck.”

While cancer is one of the major illnesses afflicting children in hospice, many others, like Aaron, have rare congenital defects, severe neurological impairments, or uncommon metabolic deficiencies.

“We have diseases that families tell us are 1 of 10 cases in the world,” said Glen Komatsu, MD, medical director of Torrance, Calif.–based TrinityKids Care, which provides home hospice services to Aaron and more than 70 other kids in Los Angeles and Orange counties.

In the years leading up to the ACA’s implementation, pediatric health advocates lobbied hard for the concurrent care provision. Without the possibility of life-extending care or hope for a cure, many parents refused to put their terminally ill kids in hospice, thinking it was tantamount to giving up on them. That meant the whole family missed out on the support hospice can provide, not just pain relief and comfort for the dying child, but emotional and spiritual care for parents and siblings under extreme duress.

TrinityKids Care, run by the large national Catholic health system Providence, doesn’t just send nurses, social workers, and chaplains into homes. For patients able to participate, and their siblings, it also offers art and science projects, exercise classes, movies, and music. During the pandemic, these activities have been conducted via Zoom, and volunteers deliver needed supplies to the children’s homes.

The ability to get treatments that prolong their lives is a major reason children in concurrent care are more likely than adults to outlive the 6-months-to-live diagnosis required for hospice.

“Concurrent care, by its very intention, very clearly is going to extend their lives, and by extending their lives they’re no longer going to be hospice-eligible if you use the 6-month life expectancy criteria,” said David Steinhorn, MD, a pediatric intensive care physician in Virginia, who has helped develop numerous children’s hospice programs across the United States.

Another factor is that kids, even sick ones, are simply more robust than many older people.

“Sick kids are often otherwise healthy, except for one organ,” said Debra Lotstein, MD, chief of the division of comfort and palliative care at Children’s Hospital Los Angeles. “They may have cancer in their body, but their hearts are good and their lungs are good, compared to a 90-year-old who at baseline is just not as resilient.”

All of Aaron Martinez’s vital organs, except for his brain, seem to be working. “There have been times when we’ve brought him in, and the nurse looks at the chart and looks at him, and she can’t believe it’s that child,” said Mr. Martinez.

When kids live past the 6-month life expectancy, they must be recertified to stay in hospice. In many cases, Dr. Steinhorn said, he is willing to recertify his pediatric patients indefinitely.

Even with doctors advocating for them, it’s not always easy for children to get into hospice care. Most hospices care primarily for adults and are reluctant to take kids.

“The hospice will say: ‘We don’t have the capacity to treat children. Our nurses aren’t trained. It’s different. We just can’t do it,’ ” said Lori Butterworth, cofounder of the Children’s Hospice and Palliative Care Coalition of California in Watsonville. “The other reason is not wanting to, because it’s existentially devastating and sad and hard.”

Finances also play a role. Home hospice care is paid at a per diem rate set by Medicare – slightly over $200 a day for the first 2 months, about $161 a day after that – and it is typically the same for kids and adults. Children, particularly those with rare conditions, often require more intensive and innovative care, so the per diem doesn’t stretch as far.

The concurrent care provision has made taking pediatric patients more viable for hospice organizations, Dr. Steinhorn and others said. Under the ACA, many of the expenses for certain medications and medical services can be shifted to the patient’s primary insurance, leaving hospices responsible for pain relief and comfort care.

Even so, the relatively small number of kids who die each year from protracted ailments hardly makes pediatric hospice an appealing line of business in an industry craving growth, especially one in which private equity investors are active and seeking a big payday.

In California, only 21 of 1,336 hospices reported having a specialized pediatric hospice program, and 59 said they served at least one patient under age 21, according to an analysis of 2020 state data by Cordt Kassner, CEO of Hospice Analytics in Colorado Springs.

Hospice providers that do cater to children often face a more basic challenge: Even with the possibility of concurrent care, many parents still equate hospice with acceptance of death. That was the case initially for Matt and Reese Sonnen, Los Angeles residents whose daughter, Layla, was born with a seizure disorder that had no name: Her brain had simply failed to develop in the womb, and an MRI showed “fluid taking up space where the brain wasn’t,” her mother said.

When Layla’s team first mentioned hospice, “I was in the car on my phone, and I almost crashed the car,” Mrs. Sonnen recalled. “The first thought that came to mind was: ‘It is just the end,’ but we felt she was nowhere near it, because she was strong, she was mighty. She was my little girl. She was going to get through this.”

About 3 months later, as Layla’s nervous system deteriorated, causing her to writhe in pain, her parents agreed to enroll her in hospice with TrinityKids Care. She died weeks later, not long after her second birthday. She was in her mother’s arms, with Mr. Sonnen close by.

“All of a sudden, Layla breathed out a big rush of air. The nurse looked at me and said: ‘That was her last breath.’ I was literally breathing in her last breath,” Mrs. Sonnen recounted. “I never wanted to breathe again, because now I felt I had her in my lungs. Don’t make me laugh, don’t make me exhale.”

Layla’s parents have no regrets about their decision to put her in hospice. “It was the absolute right decision, and in hindsight we should have done it sooner,” Mr. Sonnen said. “She was suffering, and we had blinders on.”

Ms. Pinedo said she is “infinitely grateful” for hospice, despite the heartache of Aaron’s condition. Sometimes the social worker will stop by, she said, just to say hello and drop off a latte, a small gesture that can feel very uplifting. “They’ve been our lifeline,” she said.

Ms. Pinedo talks about a friend of hers with a healthy baby, also named Aaron, who is pregnant with her second child. “All the stuff that was on our list, they’re living. And I love them dearly. But it’s almost hard to look, because it’s like looking at the stuff that you didn’t get. It’s like Christmas Day, staring through the window at the neighbor’s house, and you’re sitting there in the cold.”

Yet she seems palpably torn between that bleak remorse and the unconditional love parents feel toward their children. At one point, Ms. Pinedo interrupted herself midsentence and turned to her son, who was in Mr. Martinez’s arms: “Yes, Papi, you are so stinking cute, and you are still my dream come true.”

This story was produced by KHN, which publishes California Healthline, an editorially independent service of the California Health Care Foundation. KHN (Kaiser Health News) is a national newsroom that produces in-depth journalism about health issues. Together with Policy Analysis and Polling, KHN is one of the three major operating programs at KFF (Kaiser Family Foundation). KFF is an endowed nonprofit organization providing information on health issues to the nation.

POMONA, CALIF. – When you first meet 17-month-old Aaron Martinez, it’s not obvious that something is catastrophically wrong.

What you see is a beautiful little boy with smooth, lustrous skin, an abundance of glossy brown hair, and a disarming smile. What you hear are coos and cries that don’t immediately signal anything is horribly awry.

But his parents, Adriana Pinedo and Hector Martinez, know the truth painfully well.

Although Ms. Pinedo’s doctors and midwife had described the pregnancy as “perfect” for all 9 months, Aaron was born with most of his brain cells dead, the result of two strokes and a massive bleed he sustained while in utero.

Doctors aren’t sure what caused the anomalies that left Aaron with virtually no cognitive function or physical mobility. His voluminous hair hides a head whose circumference is too small for his age. He has epilepsy that triggers multiple seizures each day, and his smile is not always what it seems. “It could be a smile; it could be a seizure,” Ms. Pinedo said.

Shortly after Aaron was born, doctors told Ms. Pinedo, 34, and Mr. Martinez, 35, there was no hope and they should “let nature take its course.” They would learn months later that the doctors had not expected the boy to live more than 5 days. It was on Day 5 that his parents put him in home hospice care, an arrangement that has continued into his second year of life.

The family gets weekly visits from hospice nurses, therapists, social workers, and a chaplain in the cramped one-bedroom apartment they rent from the people who live in the main house on the same lot on a quiet residential street in this Inland Empire city.

One of the main criteria for hospice care, established by Medicare largely for seniors but also applied to children, is a diagnosis of 6 months or less to live. Yet over the course of 17 months, Aaron’s medical team has repeatedly recertified his hospice eligibility.

Under a provision of the 2010 Affordable Care Act, children enrolled in Medicaid or the Children’s Health Insurance Program are allowed, unlike adults, to be in hospice while continuing to receive curative or life-extending care. Commercial insurers are not required to cover this “concurrent care,” but many now do.

More than a decade since its inception, concurrent care is widely credited with improving the quality of life for many terminally ill children, easing stress on the family and, in some cases, sustaining hope for a cure. But the arrangement can contribute to a painful dilemma for parents like Ms. Pinedo and Mr. Martinez, who are torn between their fierce commitment to their son and the futility of knowing that his condition leaves him with no future worth hoping for.

“We could lose a life, but if he continues to live this way, we’ll lose three,” said Ms. Pinedo. “There’s no quality of life for him or for us.”

Aaron’s doctors now say he could conceivably live for years. His body hasn’t stopped growing since he was born. He’s in the 96th percentile for height for his age, and his weight is about average.

His parents have talked about “graduating” him from hospice. But he is never stable for long, and they welcome the visits from their hospice team. The seizures, sometimes 30 a day, are a persistent assault on his brain and, as he grows, the medications intended to control them must be changed or the doses recalibrated. He is at continual risk of gastrointestinal problems and potentially deadly fluid buildup in his lungs.

Ms. Pinedo, who works from home for a nonprofit public health organization, spends much of her time with Aaron, while Mr. Martinez works as a landscaper. She has chosen to live in the moment, she said, because otherwise her mind wanders to a future in which either “he could die – or he won’t, and I’ll end up changing the diapers of a 40-year-old man.” Either of those “are going to suck.”

While cancer is one of the major illnesses afflicting children in hospice, many others, like Aaron, have rare congenital defects, severe neurological impairments, or uncommon metabolic deficiencies.

“We have diseases that families tell us are 1 of 10 cases in the world,” said Glen Komatsu, MD, medical director of Torrance, Calif.–based TrinityKids Care, which provides home hospice services to Aaron and more than 70 other kids in Los Angeles and Orange counties.

In the years leading up to the ACA’s implementation, pediatric health advocates lobbied hard for the concurrent care provision. Without the possibility of life-extending care or hope for a cure, many parents refused to put their terminally ill kids in hospice, thinking it was tantamount to giving up on them. That meant the whole family missed out on the support hospice can provide, not just pain relief and comfort for the dying child, but emotional and spiritual care for parents and siblings under extreme duress.

TrinityKids Care, run by the large national Catholic health system Providence, doesn’t just send nurses, social workers, and chaplains into homes. For patients able to participate, and their siblings, it also offers art and science projects, exercise classes, movies, and music. During the pandemic, these activities have been conducted via Zoom, and volunteers deliver needed supplies to the children’s homes.

The ability to get treatments that prolong their lives is a major reason children in concurrent care are more likely than adults to outlive the 6-months-to-live diagnosis required for hospice.

“Concurrent care, by its very intention, very clearly is going to extend their lives, and by extending their lives they’re no longer going to be hospice-eligible if you use the 6-month life expectancy criteria,” said David Steinhorn, MD, a pediatric intensive care physician in Virginia, who has helped develop numerous children’s hospice programs across the United States.

Another factor is that kids, even sick ones, are simply more robust than many older people.

“Sick kids are often otherwise healthy, except for one organ,” said Debra Lotstein, MD, chief of the division of comfort and palliative care at Children’s Hospital Los Angeles. “They may have cancer in their body, but their hearts are good and their lungs are good, compared to a 90-year-old who at baseline is just not as resilient.”

All of Aaron Martinez’s vital organs, except for his brain, seem to be working. “There have been times when we’ve brought him in, and the nurse looks at the chart and looks at him, and she can’t believe it’s that child,” said Mr. Martinez.

When kids live past the 6-month life expectancy, they must be recertified to stay in hospice. In many cases, Dr. Steinhorn said, he is willing to recertify his pediatric patients indefinitely.

Even with doctors advocating for them, it’s not always easy for children to get into hospice care. Most hospices care primarily for adults and are reluctant to take kids.

“The hospice will say: ‘We don’t have the capacity to treat children. Our nurses aren’t trained. It’s different. We just can’t do it,’ ” said Lori Butterworth, cofounder of the Children’s Hospice and Palliative Care Coalition of California in Watsonville. “The other reason is not wanting to, because it’s existentially devastating and sad and hard.”

Finances also play a role. Home hospice care is paid at a per diem rate set by Medicare – slightly over $200 a day for the first 2 months, about $161 a day after that – and it is typically the same for kids and adults. Children, particularly those with rare conditions, often require more intensive and innovative care, so the per diem doesn’t stretch as far.

The concurrent care provision has made taking pediatric patients more viable for hospice organizations, Dr. Steinhorn and others said. Under the ACA, many of the expenses for certain medications and medical services can be shifted to the patient’s primary insurance, leaving hospices responsible for pain relief and comfort care.

Even so, the relatively small number of kids who die each year from protracted ailments hardly makes pediatric hospice an appealing line of business in an industry craving growth, especially one in which private equity investors are active and seeking a big payday.

In California, only 21 of 1,336 hospices reported having a specialized pediatric hospice program, and 59 said they served at least one patient under age 21, according to an analysis of 2020 state data by Cordt Kassner, CEO of Hospice Analytics in Colorado Springs.

Hospice providers that do cater to children often face a more basic challenge: Even with the possibility of concurrent care, many parents still equate hospice with acceptance of death. That was the case initially for Matt and Reese Sonnen, Los Angeles residents whose daughter, Layla, was born with a seizure disorder that had no name: Her brain had simply failed to develop in the womb, and an MRI showed “fluid taking up space where the brain wasn’t,” her mother said.

When Layla’s team first mentioned hospice, “I was in the car on my phone, and I almost crashed the car,” Mrs. Sonnen recalled. “The first thought that came to mind was: ‘It is just the end,’ but we felt she was nowhere near it, because she was strong, she was mighty. She was my little girl. She was going to get through this.”

About 3 months later, as Layla’s nervous system deteriorated, causing her to writhe in pain, her parents agreed to enroll her in hospice with TrinityKids Care. She died weeks later, not long after her second birthday. She was in her mother’s arms, with Mr. Sonnen close by.

“All of a sudden, Layla breathed out a big rush of air. The nurse looked at me and said: ‘That was her last breath.’ I was literally breathing in her last breath,” Mrs. Sonnen recounted. “I never wanted to breathe again, because now I felt I had her in my lungs. Don’t make me laugh, don’t make me exhale.”

Layla’s parents have no regrets about their decision to put her in hospice. “It was the absolute right decision, and in hindsight we should have done it sooner,” Mr. Sonnen said. “She was suffering, and we had blinders on.”

Ms. Pinedo said she is “infinitely grateful” for hospice, despite the heartache of Aaron’s condition. Sometimes the social worker will stop by, she said, just to say hello and drop off a latte, a small gesture that can feel very uplifting. “They’ve been our lifeline,” she said.

Ms. Pinedo talks about a friend of hers with a healthy baby, also named Aaron, who is pregnant with her second child. “All the stuff that was on our list, they’re living. And I love them dearly. But it’s almost hard to look, because it’s like looking at the stuff that you didn’t get. It’s like Christmas Day, staring through the window at the neighbor’s house, and you’re sitting there in the cold.”

Yet she seems palpably torn between that bleak remorse and the unconditional love parents feel toward their children. At one point, Ms. Pinedo interrupted herself midsentence and turned to her son, who was in Mr. Martinez’s arms: “Yes, Papi, you are so stinking cute, and you are still my dream come true.”

This story was produced by KHN, which publishes California Healthline, an editorially independent service of the California Health Care Foundation. KHN (Kaiser Health News) is a national newsroom that produces in-depth journalism about health issues. Together with Policy Analysis and Polling, KHN is one of the three major operating programs at KFF (Kaiser Family Foundation). KFF is an endowed nonprofit organization providing information on health issues to the nation.

Most patients with drug-resistant epilepsy should receive a referral for a surgical evaluation as soon as it’s clear their disease is drug resistant, according to expert consensus recommendations from the International League Against Epilepsy (ILAE) published in the journal Epilepsia.

Comprehensive epilepsy care

Such a referral is not ”a commitment to undergo brain surgery,” wrote the authors of the new recommendations study, but surgical evaluations offer patients an opportunity to learn about the range of therapies available to them and to have their diagnosis verified, as well as learning about the cause and type of epilepsy they have, even if they ultimately do not pursue surgery.

”In fact, most patients with drug-resistant epilepsy do not end up undergoing surgery after referral, but still benefit from comprehensive epilepsy care improving quality of life and lowering mortality,” wrote lead author Lara Jehi, MD, professor of neurology and epilepsy specialist at Cleveland Clinic, and her colleagues. “A better characterization of the epilepsy can also help optimize medical therapy and address somatic, cognitive, behavioral, and psychiatric comorbidities.”
 

Is the diagnosis correct?

They noted that about one-third of patients referred to epilepsy centers with an apparent diagnosis of drug-resistant epilepsy actually have psychogenic nonepileptic seizures (PNES) – not epilepsy – and an early, accurate diagnosis of PNES can ensure they receive psychotherapy, stop taking antiseizure medications, and have better outcomes.

“These recommendations are necessary, as the delay to surgery and the overall underutilization of surgery have not improved much over the last 20 years,” said Selim R. Benbadis, MD, professor of neurology and director of the comprehensive epilepsy program at the University of South Florida and Tampa General Hospital. “Comprehensive epilepsy centers offer more than surgery, including correct and precise diagnosis, drug options, three [Food and Drug Administration]–approved neurostimulation options, and more,” said Dr. Benbadis, who was not involved in the development of these recommendations.
 

Consensus recommendations

On behalf of the the ILAE’s Surgical Therapies Commission, the authors used the Delphi consensus process to develop expert consensus recommendations on when to refer patients with epilepsy to surgery. They conducted three Delphi rounds on 51 clinical scenarios with 61 epileptologists (38% of participants), epilepsy neurosurgeons (34%), neurologists (23%), neuropsychiatrists (2%), and neuropsychologists (3%) from 28 countries. Most of clinicians focused on adults (39%) or adults and children (41%) while 20% focused only on pediatric epilepsy.

The physicians involved had a median 22 years of practice and represented all six ILAE regions: 30% from North America, 28% from Europe, 18% from Asia/Oceania, 13% from Latin America, 7% from the Eastern Mediterranean, and 4% from Africa.

The result of these rounds were three key recommendations arising from the consensus of experts consulted. First, every patient up to 70 years old who has drug-resistant epilepsy should be offered the option of a surgical evaluation as soon as it’s apparent that they have drug resistance. The option for surgical evaluation should be provided independent of their sex or socioeconomic status and regardless of how long they have had epilepsy, their seizure type, their epilepsy type, localization, and their comorbidities, ”including severe psychiatric comorbidity like psychogenic nonepileptic seizures (PNES) or substance abuse if patients are cooperative with management,” the authors wrote.

”Resective surgery can improve quality of life and cognitive outcomes and is the only treatment demonstrated to improve survival and reverse excess mortality attributed to drug-resistant epilepsy,” the authors wrote. Evidence supports that surgical evaluation is the most cost-effective approach to treating drug-resistant epilepsy, they added. Yet, it still takes about 20 years with epilepsy before an adult patient might be referred, ”and the neurology community remains ambivalent due to ongoing barriers and misconceptions about epilepsy surgery,” they wrote.

The second recommendation is to consider a surgical referral for older patients with drug-resistant epilepsy who have no surgical contraindication. Physicians can also consider a referral for patients of any age who are seizure free while taking one to two antiseizure drugs but who have a brain lesion in the noneloquent cortex.

The third recommendation is not to offer surgery if a patient has an active substance dependency and is not cooperative with management.

“Although there is some evidence that seizure outcomes are no different in individuals with active substance use disorder who have epilepsy surgery, the literature suggests increased perioperative surgical and anesthetic risk in this cohort,” the authors wrote. ”Patients with active substance abuse are more likely to be nonadherent with their seizure medications, and to leave the hospital against medical advice.”

One area where the participants did not reach consensus was regarding whether to refer patients who did not become seizure-free after trying just one “tolerated and appropriately chosen” antiseizure medication. Half (49%) said they would be unlikely to refer or would never refer that patient while 44% said they would likely or always refer them, and 7% weren’t sure.
 

The ‘next level’ of epilepsy care

“Similar recommendations have been published before, by the National Association of Epilepsy Centers, more than once, and have not changed the referral patterns,” Dr. Benbadis said. “They are not implemented by the average general neurologist.” While there are many reasons for this, one with a relativity simple fix is to adjust the language doctors use to when talking with patients about getting an evaluation, Dr. Benbadis said. ”The key is to rephrase: Instead of referrals ‘for surgery,’ which can be scary to many neurologists and patients, we should use more general terms, like referrals for the ‘next level of care by epilepsy specialists,’ ” said Dr. Benbadis, who advocated for this change in terminology in a 2019 editorial. Such language is less frightening and can ease patients’ concerns about going to an epilepsy center where they can learn about more options than just surgery.

Further, surgical options have expanded in recent years, including the development of laser interstitial thermal therapy and neuromodulation. “Identifying candidacy for any of these approaches starts with a surgical referral, so a timely evaluation is key,” the authors wrote.
 

Referral delays persist

Despite the strong evidence for timely referrals, delays have persisted for decades, said Dr. Benbadis, echoing what the authors describe. ”Despite the results of two randomized controlled trials showing that surgery for temporal lobe epilepsy in adults, and resective surgery in children, is superior to continued antiseizure medications both in terms of seizure freedom and improved quality of life, the mean epilepsy duration to temporal lobe resection has persisted at over 20 years,” the authors wrote. ”Although drug resistance is reached with a mean latency of 9 years in epilepsy surgery candidates, these patients have experienced a decade of unabating seizures with detrimental effects including cognitive and psychiatric comorbidities, poor psychosocial outcomes, potential injuries, and risk of death.”

Surgery is not a ‘dangerous last resort’

The authors point out a variety of likely reasons for these delays, including patients experiencing temporary remissions with a new drug, lack of adequate health care access, overestimating surgery risks, and underestimating the seriousness and risk of death from ongoing seizures.

Dr. Benbadis agreed, referring to a “combination of lack of knowledge and unrealistic views about surgery outcomes and complications.” Patients and their neurologists think surgery is a “dangerous last resort, fraught with complications, and they don’t know the outcome, so it’s mainly that they are not very well-educated about epilepsy surgery,” he said. Complacency about a patient’s infrequent seizures plays a role as well, he added. “Their patient is having one seizure every 2 months, and they might say, ‘well, that’s okay, that’s not that bad,’ but it is when we can cure it.”

Similar factors are barriers to epilepsy surgery: “lack of knowledge or misconceptions about surgical risks, negative behaviors, or cultural issues and access issues.”

Another major barrier, both within neurology and throughout medicine in general, is that large academic centers that accept referrals, including epilepsy centers, have poor communication, follow-up, and scheduling, Dr. Benbadis said.

The authors provided a table with suggestions on potential solutions to those barriers, including identifying online resources to help doctors identify possible surgery candidates, such as www.toolsforepilepsy.com, and a range of educational resources. Ways to improve access and cost include mobile clinics, telehealth, coordinating with an epilepsy organization, and employing a multidisciplinary team that includes a social worker to help with support such as transportation and health insurance.

Most patients with drug-resistant epilepsy should receive a referral for a surgical evaluation as soon as it’s clear their disease is drug resistant, according to expert consensus recommendations from the International League Against Epilepsy (ILAE) published in the journal Epilepsia.

Comprehensive epilepsy care

Such a referral is not ”a commitment to undergo brain surgery,” wrote the authors of the new recommendations study, but surgical evaluations offer patients an opportunity to learn about the range of therapies available to them and to have their diagnosis verified, as well as learning about the cause and type of epilepsy they have, even if they ultimately do not pursue surgery.

”In fact, most patients with drug-resistant epilepsy do not end up undergoing surgery after referral, but still benefit from comprehensive epilepsy care improving quality of life and lowering mortality,” wrote lead author Lara Jehi, MD, professor of neurology and epilepsy specialist at Cleveland Clinic, and her colleagues. “A better characterization of the epilepsy can also help optimize medical therapy and address somatic, cognitive, behavioral, and psychiatric comorbidities.”
 

Is the diagnosis correct?

They noted that about one-third of patients referred to epilepsy centers with an apparent diagnosis of drug-resistant epilepsy actually have psychogenic nonepileptic seizures (PNES) – not epilepsy – and an early, accurate diagnosis of PNES can ensure they receive psychotherapy, stop taking antiseizure medications, and have better outcomes.

“These recommendations are necessary, as the delay to surgery and the overall underutilization of surgery have not improved much over the last 20 years,” said Selim R. Benbadis, MD, professor of neurology and director of the comprehensive epilepsy program at the University of South Florida and Tampa General Hospital. “Comprehensive epilepsy centers offer more than surgery, including correct and precise diagnosis, drug options, three [Food and Drug Administration]–approved neurostimulation options, and more,” said Dr. Benbadis, who was not involved in the development of these recommendations.
 

Consensus recommendations

On behalf of the the ILAE’s Surgical Therapies Commission, the authors used the Delphi consensus process to develop expert consensus recommendations on when to refer patients with epilepsy to surgery. They conducted three Delphi rounds on 51 clinical scenarios with 61 epileptologists (38% of participants), epilepsy neurosurgeons (34%), neurologists (23%), neuropsychiatrists (2%), and neuropsychologists (3%) from 28 countries. Most of clinicians focused on adults (39%) or adults and children (41%) while 20% focused only on pediatric epilepsy.

The physicians involved had a median 22 years of practice and represented all six ILAE regions: 30% from North America, 28% from Europe, 18% from Asia/Oceania, 13% from Latin America, 7% from the Eastern Mediterranean, and 4% from Africa.

The result of these rounds were three key recommendations arising from the consensus of experts consulted. First, every patient up to 70 years old who has drug-resistant epilepsy should be offered the option of a surgical evaluation as soon as it’s apparent that they have drug resistance. The option for surgical evaluation should be provided independent of their sex or socioeconomic status and regardless of how long they have had epilepsy, their seizure type, their epilepsy type, localization, and their comorbidities, ”including severe psychiatric comorbidity like psychogenic nonepileptic seizures (PNES) or substance abuse if patients are cooperative with management,” the authors wrote.

”Resective surgery can improve quality of life and cognitive outcomes and is the only treatment demonstrated to improve survival and reverse excess mortality attributed to drug-resistant epilepsy,” the authors wrote. Evidence supports that surgical evaluation is the most cost-effective approach to treating drug-resistant epilepsy, they added. Yet, it still takes about 20 years with epilepsy before an adult patient might be referred, ”and the neurology community remains ambivalent due to ongoing barriers and misconceptions about epilepsy surgery,” they wrote.

The second recommendation is to consider a surgical referral for older patients with drug-resistant epilepsy who have no surgical contraindication. Physicians can also consider a referral for patients of any age who are seizure free while taking one to two antiseizure drugs but who have a brain lesion in the noneloquent cortex.

The third recommendation is not to offer surgery if a patient has an active substance dependency and is not cooperative with management.

“Although there is some evidence that seizure outcomes are no different in individuals with active substance use disorder who have epilepsy surgery, the literature suggests increased perioperative surgical and anesthetic risk in this cohort,” the authors wrote. ”Patients with active substance abuse are more likely to be nonadherent with their seizure medications, and to leave the hospital against medical advice.”

One area where the participants did not reach consensus was regarding whether to refer patients who did not become seizure-free after trying just one “tolerated and appropriately chosen” antiseizure medication. Half (49%) said they would be unlikely to refer or would never refer that patient while 44% said they would likely or always refer them, and 7% weren’t sure.
 

The ‘next level’ of epilepsy care

“Similar recommendations have been published before, by the National Association of Epilepsy Centers, more than once, and have not changed the referral patterns,” Dr. Benbadis said. “They are not implemented by the average general neurologist.” While there are many reasons for this, one with a relativity simple fix is to adjust the language doctors use to when talking with patients about getting an evaluation, Dr. Benbadis said. ”The key is to rephrase: Instead of referrals ‘for surgery,’ which can be scary to many neurologists and patients, we should use more general terms, like referrals for the ‘next level of care by epilepsy specialists,’ ” said Dr. Benbadis, who advocated for this change in terminology in a 2019 editorial. Such language is less frightening and can ease patients’ concerns about going to an epilepsy center where they can learn about more options than just surgery.

Further, surgical options have expanded in recent years, including the development of laser interstitial thermal therapy and neuromodulation. “Identifying candidacy for any of these approaches starts with a surgical referral, so a timely evaluation is key,” the authors wrote.
 

Referral delays persist

Despite the strong evidence for timely referrals, delays have persisted for decades, said Dr. Benbadis, echoing what the authors describe. ”Despite the results of two randomized controlled trials showing that surgery for temporal lobe epilepsy in adults, and resective surgery in children, is superior to continued antiseizure medications both in terms of seizure freedom and improved quality of life, the mean epilepsy duration to temporal lobe resection has persisted at over 20 years,” the authors wrote. ”Although drug resistance is reached with a mean latency of 9 years in epilepsy surgery candidates, these patients have experienced a decade of unabating seizures with detrimental effects including cognitive and psychiatric comorbidities, poor psychosocial outcomes, potential injuries, and risk of death.”

Surgery is not a ‘dangerous last resort’

The authors point out a variety of likely reasons for these delays, including patients experiencing temporary remissions with a new drug, lack of adequate health care access, overestimating surgery risks, and underestimating the seriousness and risk of death from ongoing seizures.

Dr. Benbadis agreed, referring to a “combination of lack of knowledge and unrealistic views about surgery outcomes and complications.” Patients and their neurologists think surgery is a “dangerous last resort, fraught with complications, and they don’t know the outcome, so it’s mainly that they are not very well-educated about epilepsy surgery,” he said. Complacency about a patient’s infrequent seizures plays a role as well, he added. “Their patient is having one seizure every 2 months, and they might say, ‘well, that’s okay, that’s not that bad,’ but it is when we can cure it.”

Similar factors are barriers to epilepsy surgery: “lack of knowledge or misconceptions about surgical risks, negative behaviors, or cultural issues and access issues.”

Another major barrier, both within neurology and throughout medicine in general, is that large academic centers that accept referrals, including epilepsy centers, have poor communication, follow-up, and scheduling, Dr. Benbadis said.

The authors provided a table with suggestions on potential solutions to those barriers, including identifying online resources to help doctors identify possible surgery candidates, such as www.toolsforepilepsy.com, and a range of educational resources. Ways to improve access and cost include mobile clinics, telehealth, coordinating with an epilepsy organization, and employing a multidisciplinary team that includes a social worker to help with support such as transportation and health insurance.

Most patients with drug-resistant epilepsy should receive a referral for a surgical evaluation as soon as it’s clear their disease is drug resistant, according to expert consensus recommendations from the International League Against Epilepsy (ILAE) published in the journal Epilepsia.

Comprehensive epilepsy care

Such a referral is not ”a commitment to undergo brain surgery,” wrote the authors of the new recommendations study, but surgical evaluations offer patients an opportunity to learn about the range of therapies available to them and to have their diagnosis verified, as well as learning about the cause and type of epilepsy they have, even if they ultimately do not pursue surgery.

”In fact, most patients with drug-resistant epilepsy do not end up undergoing surgery after referral, but still benefit from comprehensive epilepsy care improving quality of life and lowering mortality,” wrote lead author Lara Jehi, MD, professor of neurology and epilepsy specialist at Cleveland Clinic, and her colleagues. “A better characterization of the epilepsy can also help optimize medical therapy and address somatic, cognitive, behavioral, and psychiatric comorbidities.”
 

Is the diagnosis correct?

They noted that about one-third of patients referred to epilepsy centers with an apparent diagnosis of drug-resistant epilepsy actually have psychogenic nonepileptic seizures (PNES) – not epilepsy – and an early, accurate diagnosis of PNES can ensure they receive psychotherapy, stop taking antiseizure medications, and have better outcomes.

“These recommendations are necessary, as the delay to surgery and the overall underutilization of surgery have not improved much over the last 20 years,” said Selim R. Benbadis, MD, professor of neurology and director of the comprehensive epilepsy program at the University of South Florida and Tampa General Hospital. “Comprehensive epilepsy centers offer more than surgery, including correct and precise diagnosis, drug options, three [Food and Drug Administration]–approved neurostimulation options, and more,” said Dr. Benbadis, who was not involved in the development of these recommendations.
 

Consensus recommendations

On behalf of the the ILAE’s Surgical Therapies Commission, the authors used the Delphi consensus process to develop expert consensus recommendations on when to refer patients with epilepsy to surgery. They conducted three Delphi rounds on 51 clinical scenarios with 61 epileptologists (38% of participants), epilepsy neurosurgeons (34%), neurologists (23%), neuropsychiatrists (2%), and neuropsychologists (3%) from 28 countries. Most of clinicians focused on adults (39%) or adults and children (41%) while 20% focused only on pediatric epilepsy.

The physicians involved had a median 22 years of practice and represented all six ILAE regions: 30% from North America, 28% from Europe, 18% from Asia/Oceania, 13% from Latin America, 7% from the Eastern Mediterranean, and 4% from Africa.

The result of these rounds were three key recommendations arising from the consensus of experts consulted. First, every patient up to 70 years old who has drug-resistant epilepsy should be offered the option of a surgical evaluation as soon as it’s apparent that they have drug resistance. The option for surgical evaluation should be provided independent of their sex or socioeconomic status and regardless of how long they have had epilepsy, their seizure type, their epilepsy type, localization, and their comorbidities, ”including severe psychiatric comorbidity like psychogenic nonepileptic seizures (PNES) or substance abuse if patients are cooperative with management,” the authors wrote.

”Resective surgery can improve quality of life and cognitive outcomes and is the only treatment demonstrated to improve survival and reverse excess mortality attributed to drug-resistant epilepsy,” the authors wrote. Evidence supports that surgical evaluation is the most cost-effective approach to treating drug-resistant epilepsy, they added. Yet, it still takes about 20 years with epilepsy before an adult patient might be referred, ”and the neurology community remains ambivalent due to ongoing barriers and misconceptions about epilepsy surgery,” they wrote.

The second recommendation is to consider a surgical referral for older patients with drug-resistant epilepsy who have no surgical contraindication. Physicians can also consider a referral for patients of any age who are seizure free while taking one to two antiseizure drugs but who have a brain lesion in the noneloquent cortex.

The third recommendation is not to offer surgery if a patient has an active substance dependency and is not cooperative with management.

“Although there is some evidence that seizure outcomes are no different in individuals with active substance use disorder who have epilepsy surgery, the literature suggests increased perioperative surgical and anesthetic risk in this cohort,” the authors wrote. ”Patients with active substance abuse are more likely to be nonadherent with their seizure medications, and to leave the hospital against medical advice.”

One area where the participants did not reach consensus was regarding whether to refer patients who did not become seizure-free after trying just one “tolerated and appropriately chosen” antiseizure medication. Half (49%) said they would be unlikely to refer or would never refer that patient while 44% said they would likely or always refer them, and 7% weren’t sure.
 

The ‘next level’ of epilepsy care

“Similar recommendations have been published before, by the National Association of Epilepsy Centers, more than once, and have not changed the referral patterns,” Dr. Benbadis said. “They are not implemented by the average general neurologist.” While there are many reasons for this, one with a relativity simple fix is to adjust the language doctors use to when talking with patients about getting an evaluation, Dr. Benbadis said. ”The key is to rephrase: Instead of referrals ‘for surgery,’ which can be scary to many neurologists and patients, we should use more general terms, like referrals for the ‘next level of care by epilepsy specialists,’ ” said Dr. Benbadis, who advocated for this change in terminology in a 2019 editorial. Such language is less frightening and can ease patients’ concerns about going to an epilepsy center where they can learn about more options than just surgery.

Further, surgical options have expanded in recent years, including the development of laser interstitial thermal therapy and neuromodulation. “Identifying candidacy for any of these approaches starts with a surgical referral, so a timely evaluation is key,” the authors wrote.
 

Referral delays persist

Despite the strong evidence for timely referrals, delays have persisted for decades, said Dr. Benbadis, echoing what the authors describe. ”Despite the results of two randomized controlled trials showing that surgery for temporal lobe epilepsy in adults, and resective surgery in children, is superior to continued antiseizure medications both in terms of seizure freedom and improved quality of life, the mean epilepsy duration to temporal lobe resection has persisted at over 20 years,” the authors wrote. ”Although drug resistance is reached with a mean latency of 9 years in epilepsy surgery candidates, these patients have experienced a decade of unabating seizures with detrimental effects including cognitive and psychiatric comorbidities, poor psychosocial outcomes, potential injuries, and risk of death.”

Surgery is not a ‘dangerous last resort’

The authors point out a variety of likely reasons for these delays, including patients experiencing temporary remissions with a new drug, lack of adequate health care access, overestimating surgery risks, and underestimating the seriousness and risk of death from ongoing seizures.

Dr. Benbadis agreed, referring to a “combination of lack of knowledge and unrealistic views about surgery outcomes and complications.” Patients and their neurologists think surgery is a “dangerous last resort, fraught with complications, and they don’t know the outcome, so it’s mainly that they are not very well-educated about epilepsy surgery,” he said. Complacency about a patient’s infrequent seizures plays a role as well, he added. “Their patient is having one seizure every 2 months, and they might say, ‘well, that’s okay, that’s not that bad,’ but it is when we can cure it.”

Similar factors are barriers to epilepsy surgery: “lack of knowledge or misconceptions about surgical risks, negative behaviors, or cultural issues and access issues.”

Another major barrier, both within neurology and throughout medicine in general, is that large academic centers that accept referrals, including epilepsy centers, have poor communication, follow-up, and scheduling, Dr. Benbadis said.

The authors provided a table with suggestions on potential solutions to those barriers, including identifying online resources to help doctors identify possible surgery candidates, such as www.toolsforepilepsy.com, and a range of educational resources. Ways to improve access and cost include mobile clinics, telehealth, coordinating with an epilepsy organization, and employing a multidisciplinary team that includes a social worker to help with support such as transportation and health insurance.

In the United States, the cost of brand-name medications for treating epilepsy soared during the period 2010-2018, while the cost of generic antiseizure medications (ASMs) decreased, a new analysis shows.

After adjustment for inflation, the cost of a 1-year supply of brand-name ASMs grew 277%, while generics became 42% less expensive.

“Our study makes transparent striking trends in brand name prescribing patterns,” the study team wrote.

Since 2010, the costs for brand-name ASMs have “consistently” increased. Costs were particularly boosted by increases in prescriptions for lacosamide (Vimpat), in addition to a “steep increase in the cost per pill, with brand-name drugs costing 10 times more than their generic counterparts,” first author Samuel Waller Terman, MD, of the University of Michigan, Ann Arbor, added in a news release.

The study was published online  in Neurology.
 

Is a 10-fold increase in cost worth it?

To evaluate trends in ASM prescriptions and costs, the researchers used a random sample of 20% of Medicare beneficiaries with coverage from 2008 to 2018. There were 77,000 to 133,000 patients with epilepsy each year.

Over time, likely because of increasing availability of generics, brand-name ASMs made up a smaller proportion of pills prescribed, from 56% in 2008 to 14% in 2018, but still made up 79% of prescription drug costs in 2018.

The annual cost of brand-name ASMs rose from $2,800 in 2008 to $10,700 in 2018, while the cost of generic drugs decreased from $800 to $460 during that time.

An increased number of prescriptions for lacosamide was responsible for 45% of the total increase in brand-name costs.

As of 2018, lacosamide comprised 30% of all brand-name pill supply (followed by pregabalin, at 15%) and 30% of all brand-name costs (followed by clobazam and pregabalin, both at 9%), the investigators reported.

Brand-name antiepileptic drug costs decreased from 2008 to 2010, but after the introduction of lacosamide, total brand-name costs steadily rose from $72 million in 2010 (in 2018 dollars) to $256 million in 2018, they noted.

Because the dataset consists of a 20% random Medicare sample, total Medicare costs for brand-name ASMs for beneficiaries with epilepsy alone likely rose from roughly $360 million in 2010 to $1.3 billion in 2018, they added.

“Clinicians must remain cognizant of this societal cost magnitude when judging whether the 10-fold increased expense per pill for brand name medications is worth the possible benefits,” they wrote.

“While newer-generation drugs have potential advantages such as limited drug interactions and different side effect profiles, there have been conflicting studies on whether they are cost effective,” Dr. Terman noted in a news release.
 

A barrier to treatment

The authors of an accompanying editorial propose that the problem of prescription drug costs could be solved through a combination of competition and government regulation of prices. Patients and physicians are the most important stakeholders in this issue.

“When something represents 14% of the total use, but contributes 79% of the cost, it would be wise to consider alternatives, assuming that these alternatives are not of lower quality,” wrote Wyatt Bensken, with Case Western Reserve University, Cleveland, and Iván Sánchez Fernández, MD, with Boston Medical Center.

“When there are several ASMs with a similar mechanism of action, similar efficacy, similar safety and tolerability profile, and different costs, it would be unwise to choose the more expensive alternative just because it is newer,” they said.

This study, they added, provides data to “understand, and begin to act, on the challenging problem of the cost of prescription ASMs. After all, what is the point of having a large number of ASMs if their cost severely limits their use?”

A limitation of the study is that only Medicare prescription claims were included, so the results may not apply to younger patients with private insurance.

The study received no direct funding. The authors and editorialists have disclosed no relevant financial relationships.

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

In the United States, the cost of brand-name medications for treating epilepsy soared during the period 2010-2018, while the cost of generic antiseizure medications (ASMs) decreased, a new analysis shows.

After adjustment for inflation, the cost of a 1-year supply of brand-name ASMs grew 277%, while generics became 42% less expensive.

“Our study makes transparent striking trends in brand name prescribing patterns,” the study team wrote.

Since 2010, the costs for brand-name ASMs have “consistently” increased. Costs were particularly boosted by increases in prescriptions for lacosamide (Vimpat), in addition to a “steep increase in the cost per pill, with brand-name drugs costing 10 times more than their generic counterparts,” first author Samuel Waller Terman, MD, of the University of Michigan, Ann Arbor, added in a news release.

The study was published online  in Neurology.
 

Is a 10-fold increase in cost worth it?

To evaluate trends in ASM prescriptions and costs, the researchers used a random sample of 20% of Medicare beneficiaries with coverage from 2008 to 2018. There were 77,000 to 133,000 patients with epilepsy each year.

Over time, likely because of increasing availability of generics, brand-name ASMs made up a smaller proportion of pills prescribed, from 56% in 2008 to 14% in 2018, but still made up 79% of prescription drug costs in 2018.

The annual cost of brand-name ASMs rose from $2,800 in 2008 to $10,700 in 2018, while the cost of generic drugs decreased from $800 to $460 during that time.

An increased number of prescriptions for lacosamide was responsible for 45% of the total increase in brand-name costs.

As of 2018, lacosamide comprised 30% of all brand-name pill supply (followed by pregabalin, at 15%) and 30% of all brand-name costs (followed by clobazam and pregabalin, both at 9%), the investigators reported.

Brand-name antiepileptic drug costs decreased from 2008 to 2010, but after the introduction of lacosamide, total brand-name costs steadily rose from $72 million in 2010 (in 2018 dollars) to $256 million in 2018, they noted.

Because the dataset consists of a 20% random Medicare sample, total Medicare costs for brand-name ASMs for beneficiaries with epilepsy alone likely rose from roughly $360 million in 2010 to $1.3 billion in 2018, they added.

“Clinicians must remain cognizant of this societal cost magnitude when judging whether the 10-fold increased expense per pill for brand name medications is worth the possible benefits,” they wrote.

“While newer-generation drugs have potential advantages such as limited drug interactions and different side effect profiles, there have been conflicting studies on whether they are cost effective,” Dr. Terman noted in a news release.
 

A barrier to treatment

The authors of an accompanying editorial propose that the problem of prescription drug costs could be solved through a combination of competition and government regulation of prices. Patients and physicians are the most important stakeholders in this issue.

“When something represents 14% of the total use, but contributes 79% of the cost, it would be wise to consider alternatives, assuming that these alternatives are not of lower quality,” wrote Wyatt Bensken, with Case Western Reserve University, Cleveland, and Iván Sánchez Fernández, MD, with Boston Medical Center.

“When there are several ASMs with a similar mechanism of action, similar efficacy, similar safety and tolerability profile, and different costs, it would be unwise to choose the more expensive alternative just because it is newer,” they said.

This study, they added, provides data to “understand, and begin to act, on the challenging problem of the cost of prescription ASMs. After all, what is the point of having a large number of ASMs if their cost severely limits their use?”

A limitation of the study is that only Medicare prescription claims were included, so the results may not apply to younger patients with private insurance.

The study received no direct funding. The authors and editorialists have disclosed no relevant financial relationships.

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

In the United States, the cost of brand-name medications for treating epilepsy soared during the period 2010-2018, while the cost of generic antiseizure medications (ASMs) decreased, a new analysis shows.

After adjustment for inflation, the cost of a 1-year supply of brand-name ASMs grew 277%, while generics became 42% less expensive.

“Our study makes transparent striking trends in brand name prescribing patterns,” the study team wrote.

Since 2010, the costs for brand-name ASMs have “consistently” increased. Costs were particularly boosted by increases in prescriptions for lacosamide (Vimpat), in addition to a “steep increase in the cost per pill, with brand-name drugs costing 10 times more than their generic counterparts,” first author Samuel Waller Terman, MD, of the University of Michigan, Ann Arbor, added in a news release.

The study was published online  in Neurology.
 

Is a 10-fold increase in cost worth it?

To evaluate trends in ASM prescriptions and costs, the researchers used a random sample of 20% of Medicare beneficiaries with coverage from 2008 to 2018. There were 77,000 to 133,000 patients with epilepsy each year.

Over time, likely because of increasing availability of generics, brand-name ASMs made up a smaller proportion of pills prescribed, from 56% in 2008 to 14% in 2018, but still made up 79% of prescription drug costs in 2018.

The annual cost of brand-name ASMs rose from $2,800 in 2008 to $10,700 in 2018, while the cost of generic drugs decreased from $800 to $460 during that time.

An increased number of prescriptions for lacosamide was responsible for 45% of the total increase in brand-name costs.

As of 2018, lacosamide comprised 30% of all brand-name pill supply (followed by pregabalin, at 15%) and 30% of all brand-name costs (followed by clobazam and pregabalin, both at 9%), the investigators reported.

Brand-name antiepileptic drug costs decreased from 2008 to 2010, but after the introduction of lacosamide, total brand-name costs steadily rose from $72 million in 2010 (in 2018 dollars) to $256 million in 2018, they noted.

Because the dataset consists of a 20% random Medicare sample, total Medicare costs for brand-name ASMs for beneficiaries with epilepsy alone likely rose from roughly $360 million in 2010 to $1.3 billion in 2018, they added.

“Clinicians must remain cognizant of this societal cost magnitude when judging whether the 10-fold increased expense per pill for brand name medications is worth the possible benefits,” they wrote.

“While newer-generation drugs have potential advantages such as limited drug interactions and different side effect profiles, there have been conflicting studies on whether they are cost effective,” Dr. Terman noted in a news release.
 

A barrier to treatment

The authors of an accompanying editorial propose that the problem of prescription drug costs could be solved through a combination of competition and government regulation of prices. Patients and physicians are the most important stakeholders in this issue.

“When something represents 14% of the total use, but contributes 79% of the cost, it would be wise to consider alternatives, assuming that these alternatives are not of lower quality,” wrote Wyatt Bensken, with Case Western Reserve University, Cleveland, and Iván Sánchez Fernández, MD, with Boston Medical Center.

“When there are several ASMs with a similar mechanism of action, similar efficacy, similar safety and tolerability profile, and different costs, it would be unwise to choose the more expensive alternative just because it is newer,” they said.

This study, they added, provides data to “understand, and begin to act, on the challenging problem of the cost of prescription ASMs. After all, what is the point of having a large number of ASMs if their cost severely limits their use?”

A limitation of the study is that only Medicare prescription claims were included, so the results may not apply to younger patients with private insurance.

The study received no direct funding. The authors and editorialists have disclosed no relevant financial relationships.

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

CHARLOTTE, N.C. – Overnight sleep electroencephalography (EEG) contains an abundance of brain wave data that could be mined to identify an individual’s risk for a host of health outcomes, including dementia, cognitive impairment, and cardiovascular events, a researcher reported at the annual meeting of the Associated Professional Sleep Societies. “Sleep EEGs contain decodable information about the risk of unfavorable outcomes,” said Haoqi Sun, PhD, an instructor of neurology at Massachusetts General Hospital, Boston, and lead study author. “The results suggest that it’s feasible to use sleep to identify people with high risk of unfavorable outcomes and it strengthens the concept of sleep as a window into brain and general health.”

The researchers performed a quantitative analysis of sleep data collected on 8,673 adults who had diagnostic sleep studies that included polysomnography (PSG). The analysis used ICD codes to consider these 11 health outcomes: dementia, mild cognitive impairment (MCI) or dementia, ischemic stroke, intracranial hemorrhage, atrial fibrillation, myocardial infarction, type 2 diabetes, hypertension, bipolar disorder, depression, and mortality.

Then, Dr. Sun explained, they extracted 86 spectral and time-domain features of REM and non-REM sleep from sleep EEG recordings, and analyzed that data by adjusting for eight covariates including age, sex, body mass index, and use of benzodiazepines, antidepressants, sedatives, antiseizure drugs, and stimulants.

Participants were partitioned into three sleep-quality groups: poor, average, and good. The outcome-wise mean prediction difference in 10-year cumulative incidence was 2.3% for the poor sleep group, 0.5% for the average sleep group, and 1.3% for the good sleep group.

The outcomes with the three greatest poor to average risk ratios were dementia (6.2; 95% confidence interval, 4.5-9.3), mortality (5.7; 95% CI, 5-7.5) and MCI or dementia (4; 95% CI, 3.2-4.9).
 

Ready for the clinic?

In an interview, Dr. Sun said the results demonstrated the potential of using EEG brain wave data to predict health outcomes on an individual basis, although he acknowledged that most of the 86 sleep features the researchers used are not readily available in the clinic.

He noted the spectral features used in the study can be captured through software compatible with PSG. “From there you can identify the various bands, the different frequency ranges, and then you can easily see within this range whether a person has a higher power or lower power,” he said. However, the spindle and slow-oscillation features that researchers used in the study are beyond the reach of most clinics.
 

Next steps

This research is in its early stage, Dr. Sun said, but at some point the data collected from sleep studies could be paired with machine learning to make the model workable for evaluating individual patients. “Our goal is to first make this individualized,” he said. “We want to minimize the noise in the recording and minimize the night-to-night variability in the findings. There is some clinical-informed approach and there is also some algorithm-informed approach where you can minimize the variation over time.”

The model also has the potential to predict outcomes, particularly with chronic diseases such as diabetes and dementia, well before a diagnosis is made, he said.
 

‘Fascinating’ and ‘provocative’

Donald Bliwise, PhD, professor of neurology at Emory Sleep Center in Atlanta, said the study was “fascinating; it’s provocative; it’s exciting and interesting,” but added, “Sleep is vital for health. That’s abundantly clear in a study like that, but trying to push it a little bit further with all of these 86 measurements of the EEG, I think it becomes complicated.”

The study methodology, particularly the use of cumulative incidence of various diseases, was laudable, he said, and the use of simpler EEG-measured sleep features, such as alpha band power, “make intuitive sense.”

But it’s less clear on how the more sophisticated features the study model used – for example, kurtosis of theta frequency or coupling between spindle and slow oscillation – rank on sleep quality, he said, adding that the researchers have most likely done that but couldn’t add that into the format of the presentation.

“Kurtosis of the theta frequency band we don’t get on everyone in the sleep lab,” Dr. Bliwise said. “We might be able to, but I don’t know how to quite plug that into a turnkey model.”

The clinical components of the study were conducted by M. Brandon Westover, MD, PhD, at Massachusetts General Hospital, and Robert J. Thomas, MD, at Beth Israel Deaconess Medical Center, both in Boston. The study received support from the American Academy of Sleep Medicine Foundation. Dr. Sun has no relevant disclosures. Dr. Bliwise has no disclosures.

CHARLOTTE, N.C. – Overnight sleep electroencephalography (EEG) contains an abundance of brain wave data that could be mined to identify an individual’s risk for a host of health outcomes, including dementia, cognitive impairment, and cardiovascular events, a researcher reported at the annual meeting of the Associated Professional Sleep Societies. “Sleep EEGs contain decodable information about the risk of unfavorable outcomes,” said Haoqi Sun, PhD, an instructor of neurology at Massachusetts General Hospital, Boston, and lead study author. “The results suggest that it’s feasible to use sleep to identify people with high risk of unfavorable outcomes and it strengthens the concept of sleep as a window into brain and general health.”

The researchers performed a quantitative analysis of sleep data collected on 8,673 adults who had diagnostic sleep studies that included polysomnography (PSG). The analysis used ICD codes to consider these 11 health outcomes: dementia, mild cognitive impairment (MCI) or dementia, ischemic stroke, intracranial hemorrhage, atrial fibrillation, myocardial infarction, type 2 diabetes, hypertension, bipolar disorder, depression, and mortality.

Then, Dr. Sun explained, they extracted 86 spectral and time-domain features of REM and non-REM sleep from sleep EEG recordings, and analyzed that data by adjusting for eight covariates including age, sex, body mass index, and use of benzodiazepines, antidepressants, sedatives, antiseizure drugs, and stimulants.

Participants were partitioned into three sleep-quality groups: poor, average, and good. The outcome-wise mean prediction difference in 10-year cumulative incidence was 2.3% for the poor sleep group, 0.5% for the average sleep group, and 1.3% for the good sleep group.

The outcomes with the three greatest poor to average risk ratios were dementia (6.2; 95% confidence interval, 4.5-9.3), mortality (5.7; 95% CI, 5-7.5) and MCI or dementia (4; 95% CI, 3.2-4.9).
 

Ready for the clinic?

In an interview, Dr. Sun said the results demonstrated the potential of using EEG brain wave data to predict health outcomes on an individual basis, although he acknowledged that most of the 86 sleep features the researchers used are not readily available in the clinic.

He noted the spectral features used in the study can be captured through software compatible with PSG. “From there you can identify the various bands, the different frequency ranges, and then you can easily see within this range whether a person has a higher power or lower power,” he said. However, the spindle and slow-oscillation features that researchers used in the study are beyond the reach of most clinics.
 

Next steps

This research is in its early stage, Dr. Sun said, but at some point the data collected from sleep studies could be paired with machine learning to make the model workable for evaluating individual patients. “Our goal is to first make this individualized,” he said. “We want to minimize the noise in the recording and minimize the night-to-night variability in the findings. There is some clinical-informed approach and there is also some algorithm-informed approach where you can minimize the variation over time.”

The model also has the potential to predict outcomes, particularly with chronic diseases such as diabetes and dementia, well before a diagnosis is made, he said.
 

‘Fascinating’ and ‘provocative’

Donald Bliwise, PhD, professor of neurology at Emory Sleep Center in Atlanta, said the study was “fascinating; it’s provocative; it’s exciting and interesting,” but added, “Sleep is vital for health. That’s abundantly clear in a study like that, but trying to push it a little bit further with all of these 86 measurements of the EEG, I think it becomes complicated.”

The study methodology, particularly the use of cumulative incidence of various diseases, was laudable, he said, and the use of simpler EEG-measured sleep features, such as alpha band power, “make intuitive sense.”

But it’s less clear on how the more sophisticated features the study model used – for example, kurtosis of theta frequency or coupling between spindle and slow oscillation – rank on sleep quality, he said, adding that the researchers have most likely done that but couldn’t add that into the format of the presentation.

“Kurtosis of the theta frequency band we don’t get on everyone in the sleep lab,” Dr. Bliwise said. “We might be able to, but I don’t know how to quite plug that into a turnkey model.”

The clinical components of the study were conducted by M. Brandon Westover, MD, PhD, at Massachusetts General Hospital, and Robert J. Thomas, MD, at Beth Israel Deaconess Medical Center, both in Boston. The study received support from the American Academy of Sleep Medicine Foundation. Dr. Sun has no relevant disclosures. Dr. Bliwise has no disclosures.

CHARLOTTE, N.C. – Overnight sleep electroencephalography (EEG) contains an abundance of brain wave data that could be mined to identify an individual’s risk for a host of health outcomes, including dementia, cognitive impairment, and cardiovascular events, a researcher reported at the annual meeting of the Associated Professional Sleep Societies. “Sleep EEGs contain decodable information about the risk of unfavorable outcomes,” said Haoqi Sun, PhD, an instructor of neurology at Massachusetts General Hospital, Boston, and lead study author. “The results suggest that it’s feasible to use sleep to identify people with high risk of unfavorable outcomes and it strengthens the concept of sleep as a window into brain and general health.”

The researchers performed a quantitative analysis of sleep data collected on 8,673 adults who had diagnostic sleep studies that included polysomnography (PSG). The analysis used ICD codes to consider these 11 health outcomes: dementia, mild cognitive impairment (MCI) or dementia, ischemic stroke, intracranial hemorrhage, atrial fibrillation, myocardial infarction, type 2 diabetes, hypertension, bipolar disorder, depression, and mortality.

Then, Dr. Sun explained, they extracted 86 spectral and time-domain features of REM and non-REM sleep from sleep EEG recordings, and analyzed that data by adjusting for eight covariates including age, sex, body mass index, and use of benzodiazepines, antidepressants, sedatives, antiseizure drugs, and stimulants.

Participants were partitioned into three sleep-quality groups: poor, average, and good. The outcome-wise mean prediction difference in 10-year cumulative incidence was 2.3% for the poor sleep group, 0.5% for the average sleep group, and 1.3% for the good sleep group.

The outcomes with the three greatest poor to average risk ratios were dementia (6.2; 95% confidence interval, 4.5-9.3), mortality (5.7; 95% CI, 5-7.5) and MCI or dementia (4; 95% CI, 3.2-4.9).
 

Ready for the clinic?

In an interview, Dr. Sun said the results demonstrated the potential of using EEG brain wave data to predict health outcomes on an individual basis, although he acknowledged that most of the 86 sleep features the researchers used are not readily available in the clinic.

He noted the spectral features used in the study can be captured through software compatible with PSG. “From there you can identify the various bands, the different frequency ranges, and then you can easily see within this range whether a person has a higher power or lower power,” he said. However, the spindle and slow-oscillation features that researchers used in the study are beyond the reach of most clinics.
 

Next steps

This research is in its early stage, Dr. Sun said, but at some point the data collected from sleep studies could be paired with machine learning to make the model workable for evaluating individual patients. “Our goal is to first make this individualized,” he said. “We want to minimize the noise in the recording and minimize the night-to-night variability in the findings. There is some clinical-informed approach and there is also some algorithm-informed approach where you can minimize the variation over time.”

The model also has the potential to predict outcomes, particularly with chronic diseases such as diabetes and dementia, well before a diagnosis is made, he said.
 

‘Fascinating’ and ‘provocative’

Donald Bliwise, PhD, professor of neurology at Emory Sleep Center in Atlanta, said the study was “fascinating; it’s provocative; it’s exciting and interesting,” but added, “Sleep is vital for health. That’s abundantly clear in a study like that, but trying to push it a little bit further with all of these 86 measurements of the EEG, I think it becomes complicated.”

The study methodology, particularly the use of cumulative incidence of various diseases, was laudable, he said, and the use of simpler EEG-measured sleep features, such as alpha band power, “make intuitive sense.”

But it’s less clear on how the more sophisticated features the study model used – for example, kurtosis of theta frequency or coupling between spindle and slow oscillation – rank on sleep quality, he said, adding that the researchers have most likely done that but couldn’t add that into the format of the presentation.

“Kurtosis of the theta frequency band we don’t get on everyone in the sleep lab,” Dr. Bliwise said. “We might be able to, but I don’t know how to quite plug that into a turnkey model.”

The clinical components of the study were conducted by M. Brandon Westover, MD, PhD, at Massachusetts General Hospital, and Robert J. Thomas, MD, at Beth Israel Deaconess Medical Center, both in Boston. The study received support from the American Academy of Sleep Medicine Foundation. Dr. Sun has no relevant disclosures. Dr. Bliwise has no disclosures.