Pediatrics

Children with overweight or obese body mass index measures at preschool age were significantly more likely than were normal weight children to suffer upper- and lower-limb fractures before age 15 years, according to data from almost 470,000 children.

Previous studies of adults have shown associations between obesity and fractures, but the impact of higher BMI at preschool age on fracture incidence later in childhood has not been explored, according to Jennifer C.E. Lane, MD, of the University of Oxford (England), and colleagues. “A focused study of the association between preschool obesity and fracture risk offers the opportunity to better understand the impact of obesity in early life,” they wrote in the Journal of Bone and Mineral Research.

The researchers reviewed data from 466,997 children at 296 primary care centers using the Information System for Research in Primary Care, a Spanish national database, for the years 2003-2013. The children were assessed starting at age 4 years and followed until age 15 years or until they left the region or died, or until the study period ended, on Dec. 31, 2016. The average follow-up time was 4.9 years, and 49% of the children were girls. BMI categories were determined via the World Health Organization growth standards for calculating age- and sex-specific BMI z scores, and the categories were defined as underweight (< −2 BMI z score), normal weight (−2 to +2 BMI z score), overweight (> +2 BMI z score), and obese (> +3 BMI z score).

Overall, children with a BMI in the overweight or obese ranges at first assessment were significantly more likely than were their normal weight counterparts to suffer lower-limb fractures (adjusted hazard ratios, 1.42 and 1.74, respectively) and upper-limb fractures (aHRs, 1.10 and 1.19, respectively) during the follow-up period.

The total incidence of fractures during childhood for those in the study who were underweight, normal weight, overweight, or obese, was 9.20%, 10.06%, 11.28%, and 13.05% respectively.

In a secondary analysis, fracture risk varied by anatomic location and reflected previous findings showing an increased risk of distal limb fractures associated with high BMI, the researchers said.

The findings were limited by several factors, including the smaller-than-average proportion of children with overweight or obese BMI measures, the imprecise nature of the BMI z score as a predictor of obesity in children, and the lack of data on sports, medical issues, and general activity levels, the researchers noted.

However, the results were strengthened by the population-based sample and long-term follow-up, and the work “suggests that interventions to treat obesity in early childhood could have benefits for the primary or secondary prevention of fractures later in childhood, especially in the prevention of fractures within the forearm and hand or foot and ankle,” the authors concluded.

The study was supported in part by the NIHR Biomedical Research Centre, Oxford, and La Marató de TV3 Foundation. Dr. Lane disclosed funding from a Versus Arthritis Clinical Research Fellowship but had no financial conflicts to disclose. Some authors reported relationships with numerous pharmaceutical firms.

SOURCE: Lane JCE et al. J Bone Miner Res. 2020 Apr 7. doi: 10.1002/jbmr.3984

Children with overweight or obese body mass index measures at preschool age were significantly more likely than were normal weight children to suffer upper- and lower-limb fractures before age 15 years, according to data from almost 470,000 children.

Previous studies of adults have shown associations between obesity and fractures, but the impact of higher BMI at preschool age on fracture incidence later in childhood has not been explored, according to Jennifer C.E. Lane, MD, of the University of Oxford (England), and colleagues. “A focused study of the association between preschool obesity and fracture risk offers the opportunity to better understand the impact of obesity in early life,” they wrote in the Journal of Bone and Mineral Research.

The researchers reviewed data from 466,997 children at 296 primary care centers using the Information System for Research in Primary Care, a Spanish national database, for the years 2003-2013. The children were assessed starting at age 4 years and followed until age 15 years or until they left the region or died, or until the study period ended, on Dec. 31, 2016. The average follow-up time was 4.9 years, and 49% of the children were girls. BMI categories were determined via the World Health Organization growth standards for calculating age- and sex-specific BMI z scores, and the categories were defined as underweight (< −2 BMI z score), normal weight (−2 to +2 BMI z score), overweight (> +2 BMI z score), and obese (> +3 BMI z score).

Overall, children with a BMI in the overweight or obese ranges at first assessment were significantly more likely than were their normal weight counterparts to suffer lower-limb fractures (adjusted hazard ratios, 1.42 and 1.74, respectively) and upper-limb fractures (aHRs, 1.10 and 1.19, respectively) during the follow-up period.

The total incidence of fractures during childhood for those in the study who were underweight, normal weight, overweight, or obese, was 9.20%, 10.06%, 11.28%, and 13.05% respectively.

In a secondary analysis, fracture risk varied by anatomic location and reflected previous findings showing an increased risk of distal limb fractures associated with high BMI, the researchers said.

The findings were limited by several factors, including the smaller-than-average proportion of children with overweight or obese BMI measures, the imprecise nature of the BMI z score as a predictor of obesity in children, and the lack of data on sports, medical issues, and general activity levels, the researchers noted.

However, the results were strengthened by the population-based sample and long-term follow-up, and the work “suggests that interventions to treat obesity in early childhood could have benefits for the primary or secondary prevention of fractures later in childhood, especially in the prevention of fractures within the forearm and hand or foot and ankle,” the authors concluded.

The study was supported in part by the NIHR Biomedical Research Centre, Oxford, and La Marató de TV3 Foundation. Dr. Lane disclosed funding from a Versus Arthritis Clinical Research Fellowship but had no financial conflicts to disclose. Some authors reported relationships with numerous pharmaceutical firms.

SOURCE: Lane JCE et al. J Bone Miner Res. 2020 Apr 7. doi: 10.1002/jbmr.3984

Children with overweight or obese body mass index measures at preschool age were significantly more likely than were normal weight children to suffer upper- and lower-limb fractures before age 15 years, according to data from almost 470,000 children.

Previous studies of adults have shown associations between obesity and fractures, but the impact of higher BMI at preschool age on fracture incidence later in childhood has not been explored, according to Jennifer C.E. Lane, MD, of the University of Oxford (England), and colleagues. “A focused study of the association between preschool obesity and fracture risk offers the opportunity to better understand the impact of obesity in early life,” they wrote in the Journal of Bone and Mineral Research.

The researchers reviewed data from 466,997 children at 296 primary care centers using the Information System for Research in Primary Care, a Spanish national database, for the years 2003-2013. The children were assessed starting at age 4 years and followed until age 15 years or until they left the region or died, or until the study period ended, on Dec. 31, 2016. The average follow-up time was 4.9 years, and 49% of the children were girls. BMI categories were determined via the World Health Organization growth standards for calculating age- and sex-specific BMI z scores, and the categories were defined as underweight (< −2 BMI z score), normal weight (−2 to +2 BMI z score), overweight (> +2 BMI z score), and obese (> +3 BMI z score).

Overall, children with a BMI in the overweight or obese ranges at first assessment were significantly more likely than were their normal weight counterparts to suffer lower-limb fractures (adjusted hazard ratios, 1.42 and 1.74, respectively) and upper-limb fractures (aHRs, 1.10 and 1.19, respectively) during the follow-up period.

The total incidence of fractures during childhood for those in the study who were underweight, normal weight, overweight, or obese, was 9.20%, 10.06%, 11.28%, and 13.05% respectively.

In a secondary analysis, fracture risk varied by anatomic location and reflected previous findings showing an increased risk of distal limb fractures associated with high BMI, the researchers said.

The findings were limited by several factors, including the smaller-than-average proportion of children with overweight or obese BMI measures, the imprecise nature of the BMI z score as a predictor of obesity in children, and the lack of data on sports, medical issues, and general activity levels, the researchers noted.

However, the results were strengthened by the population-based sample and long-term follow-up, and the work “suggests that interventions to treat obesity in early childhood could have benefits for the primary or secondary prevention of fractures later in childhood, especially in the prevention of fractures within the forearm and hand or foot and ankle,” the authors concluded.

The study was supported in part by the NIHR Biomedical Research Centre, Oxford, and La Marató de TV3 Foundation. Dr. Lane disclosed funding from a Versus Arthritis Clinical Research Fellowship but had no financial conflicts to disclose. Some authors reported relationships with numerous pharmaceutical firms.

SOURCE: Lane JCE et al. J Bone Miner Res. 2020 Apr 7. doi: 10.1002/jbmr.3984

As physicians and advanced practitioners, we have been preparing to face COVID-19 – anticipating increasing volumes of patients with fevers, cough, and shortness of breath, and potential surges in emergency departments (EDs) and primary care offices. Fortunately, while COVID-19 has demonstrated more mild symptoms in pediatric patients, the heightened public health fears and mandated social isolation have created some unforeseen consequences for pediatric patients. This article presents cases encountered over the course of 2 weeks in our ED that shed light on the unexpected ramifications of living in the time of a pandemic. These encounters should remind us as providers to be diligent and thorough in giving guidance to families during a time when face-to-face medicine has become increasingly difficult and limited.

These stories have been modified to protect patient confidentiality.

recep-bg/E+/Getty Images

Case 1

A 2-week-old full-term infant arrived in the ED after having a fever for 48 hours. The patient’s mother reported that she had called the pediatrician yesterday to ask for advice on treating the fever and was instructed to give acetaminophen and bring the infant into the ED for testing.

When we asked mom why she did not bring the infant in yesterday, she stated that the fever went down with acetaminophen, and the baby was drinking well and urinating normally. Mostly, she was afraid to bring the child into the ED given concern for COVID-19; however, when the fever persisted today, she came in. During the work-up, the infant was noted to have focal seizures and was ultimately diagnosed with bacterial meningitis.

Takeaway: Families may be hesitant to follow pediatrician’s advice to seek medical attention at an ED or doctor’s office because of the fear of being exposed to COVID-19.

• If something is urgent or emergent, be sure to stress the importance to families that the advice is non-negotiable for their child’s health.
• Attempt to call ahead for patients who might be more vulnerable in waiting rooms or overcrowded hospitals.

Case 2

A 5-month-old baby presented to the ED with new-onset seizures. Immediate bedside blood work performed demonstrated a normal blood glucose, but the baby was profoundly hyponatremic. Upon asking the mother if the baby has had any vomiting, diarrhea, or difficulty tolerating feeds, she says that she has been diluting formula because all the stores were out of formula. Today, she gave the baby plain water because they were completely out of formula.

Takeaway: With economists estimating unemployment rates in the United States at 13% at press time (the worst since the Great Depression), many families may lack resources to purchase necessities.

• Even if families have the ability to purchase necessities, they may be difficult to find or unavailable (e.g., formula, medications, diapers).
• Consider reaching out to patients in your practice to ask about their ability to find essentials and with advice on what to do if they run out of formula or diapers, or who they should contact if they cannot refill a medication.
• Are you in a position to speak with your mayor or local council to ensure there are regulations on the hoarding of essential items?
• In a time when breast milk or formula is not available for children younger than 1 year of age, what will you recommend for families? There are no current American Academy of Pediatrics’ guidelines.

Case 3

A school-aged girl was helping her mother sanitize the home during the COVID-19 pandemic. She had her gloves on, her commercial antiseptic cleaner ready to go, but it was not spraying. She turned the bottle around to check the nozzle and sprayed herself in the eyes. The family presented to the ED for alkaline burn to her eyes, which required copious irrigation.

Takeaway: Children are spending more time in the house with access to button batteries, choking hazards, and cleaning supplies.

• Cleaning products can cause chemical burns. These products should not be used by young children.

Case 4

A school-aged boy arrived via emergency medical services (EMS) for altered mental status. He told his father he was feeling dizzy and then lost consciousness. EMS noticed that he had some tonic movements of his lower extremities, and when he arrived in the ED, he had eye deviation and was unresponsive.

Work-up ultimately demonstrated that this patient had a seizure and a dangerously elevated ethanol level from drinking an entire bottle of hand sanitizer. Hand sanitizer may contain high concentrations of ethyl alcohol or isopropyl alcohol, which when ingested can cause intoxication or poisoning.

Takeaway: Many products that we may view as harmless can be toxic if ingested in large amounts.

• Consider making a list of products that families may have acquired and have around the home during this COVID-19 pandemic and instruct families to make sure dangerous items (e.g., acetaminophen, aspirin, hand sanitizer, lighters, firearms, batteries) are locked up and/or out of reach of children.
• Make sure families know the Poison Control phone number (800-222-1222).
   

   

Case 5

An adolescent female currently being treated with immunosuppressants arrived from home with fever. Her medical history revealed that the patient’s guardian recently passed away from suspected COVID-19. The patient was tested and is herself found to be positive for COVID-19. The patient is currently being cared for by relatives who also live in the same home. They require extensive education and teaching regarding the patient’s medication regimen, while also dealing with the loss of their loved one and the fear of personal exposure.

Takeaway: Communicate with families – especially those with special health care needs – about issues of guardianship in case a child’s primary caretaker falls ill.

• Discuss with families about having easily accessible lists of medications and medical conditions.
• Involve social work and child life specialists to help children and their families deal with life-altering changes and losses suffered during this time, as well as fears related to mortality and exposure.

Case 6

A 3-year-old boy arrived covered in bruises and complaining of stomachache. While the mother denies any known abuse, she states that her significant other has been getting more and more “worked up having to deal with the child’s behavior all day every day.” The preschool the child previously attended has closed due to the pandemic.

Takeaway: Abuse is more common when the parents perceive that there is little community support and when families feel a lack of connection to the community.¹ Huang et al. examined the relationship between the economy and nonaccidental trauma, showing a doubling in the rate of nonaccidental head trauma during economic recession.²

• Allow families to know that they are not alone and that child care is difficult
• Offer advice on what caretakers can do if they feel alone or at their mental or physical limit.
• Provide strategies on your practice’s website if a situation at home becomes tense and strained.

Case 7

An adolescent female arrived to the ED with increased suicidality. She normally follows with her psychiatrist once a month and her therapist once a week. Since the beginning of COVID-19 restrictions, she has been using telemedicine for her therapy visits. While previously doing well, she reports that her suicidal ideations have worsened because of feeling isolated from her friends now that school is out and she is not allowed to see them. Although compliant with her medications, her thoughts have increased to the point where she has to be admitted to inpatient psychiatry.

Takeaway: Anxiety, depression, and suicide may increase in a down economy. After the 2008 global economic crisis, rates of suicide drastically increased.³

• Recognize the limitations of telemedicine (technology limitations, patient cooperation, etc.)
• Social isolation may contribute to worsening mental health
• Know when to advise patients to seek in-person evaluation and care for medical and mental health concerns.

Pediatricians are at the forefront of preventative medicine. Families rely on pediatricians for trustworthy and accurate anticipatory guidance, a need that is only heightened during times of local and national stress. The social isolation, fear, and lack of resources accompanying this pandemic have serious consequences for our families. What can you and your practice do to keep children safe in the time of COVID-19?

Dr. Angelica DesPain is a pediatric emergency medicine fellow at Children’s National Hospital in Washington. Dr. Rachel Hatcliffe is an attending physician at the hospital. Neither physician had any relevant financial disclosures. Email Dr. DesPain and/or Dr. Hatcliffe at [email protected].

References

1. Child Dev. 1978;49:604-16.

2. J Neurosurg Pediatr 2011 Aug;8(2):171-6.

3. BMJ 2013;347:f5239.

As physicians and advanced practitioners, we have been preparing to face COVID-19 – anticipating increasing volumes of patients with fevers, cough, and shortness of breath, and potential surges in emergency departments (EDs) and primary care offices. Fortunately, while COVID-19 has demonstrated more mild symptoms in pediatric patients, the heightened public health fears and mandated social isolation have created some unforeseen consequences for pediatric patients. This article presents cases encountered over the course of 2 weeks in our ED that shed light on the unexpected ramifications of living in the time of a pandemic. These encounters should remind us as providers to be diligent and thorough in giving guidance to families during a time when face-to-face medicine has become increasingly difficult and limited.

These stories have been modified to protect patient confidentiality.

recep-bg/E+/Getty Images

Case 1

A 2-week-old full-term infant arrived in the ED after having a fever for 48 hours. The patient’s mother reported that she had called the pediatrician yesterday to ask for advice on treating the fever and was instructed to give acetaminophen and bring the infant into the ED for testing.

When we asked mom why she did not bring the infant in yesterday, she stated that the fever went down with acetaminophen, and the baby was drinking well and urinating normally. Mostly, she was afraid to bring the child into the ED given concern for COVID-19; however, when the fever persisted today, she came in. During the work-up, the infant was noted to have focal seizures and was ultimately diagnosed with bacterial meningitis.

Takeaway: Families may be hesitant to follow pediatrician’s advice to seek medical attention at an ED or doctor’s office because of the fear of being exposed to COVID-19.

• If something is urgent or emergent, be sure to stress the importance to families that the advice is non-negotiable for their child’s health.
• Attempt to call ahead for patients who might be more vulnerable in waiting rooms or overcrowded hospitals.

Case 2

A 5-month-old baby presented to the ED with new-onset seizures. Immediate bedside blood work performed demonstrated a normal blood glucose, but the baby was profoundly hyponatremic. Upon asking the mother if the baby has had any vomiting, diarrhea, or difficulty tolerating feeds, she says that she has been diluting formula because all the stores were out of formula. Today, she gave the baby plain water because they were completely out of formula.

Takeaway: With economists estimating unemployment rates in the United States at 13% at press time (the worst since the Great Depression), many families may lack resources to purchase necessities.

• Even if families have the ability to purchase necessities, they may be difficult to find or unavailable (e.g., formula, medications, diapers).
• Consider reaching out to patients in your practice to ask about their ability to find essentials and with advice on what to do if they run out of formula or diapers, or who they should contact if they cannot refill a medication.
• Are you in a position to speak with your mayor or local council to ensure there are regulations on the hoarding of essential items?
• In a time when breast milk or formula is not available for children younger than 1 year of age, what will you recommend for families? There are no current American Academy of Pediatrics’ guidelines.

Case 3

A school-aged girl was helping her mother sanitize the home during the COVID-19 pandemic. She had her gloves on, her commercial antiseptic cleaner ready to go, but it was not spraying. She turned the bottle around to check the nozzle and sprayed herself in the eyes. The family presented to the ED for alkaline burn to her eyes, which required copious irrigation.

Takeaway: Children are spending more time in the house with access to button batteries, choking hazards, and cleaning supplies.

• Cleaning products can cause chemical burns. These products should not be used by young children.

Case 4

A school-aged boy arrived via emergency medical services (EMS) for altered mental status. He told his father he was feeling dizzy and then lost consciousness. EMS noticed that he had some tonic movements of his lower extremities, and when he arrived in the ED, he had eye deviation and was unresponsive.

Work-up ultimately demonstrated that this patient had a seizure and a dangerously elevated ethanol level from drinking an entire bottle of hand sanitizer. Hand sanitizer may contain high concentrations of ethyl alcohol or isopropyl alcohol, which when ingested can cause intoxication or poisoning.

Takeaway: Many products that we may view as harmless can be toxic if ingested in large amounts.

• Consider making a list of products that families may have acquired and have around the home during this COVID-19 pandemic and instruct families to make sure dangerous items (e.g., acetaminophen, aspirin, hand sanitizer, lighters, firearms, batteries) are locked up and/or out of reach of children.
• Make sure families know the Poison Control phone number (800-222-1222).
   

   

Case 5

An adolescent female currently being treated with immunosuppressants arrived from home with fever. Her medical history revealed that the patient’s guardian recently passed away from suspected COVID-19. The patient was tested and is herself found to be positive for COVID-19. The patient is currently being cared for by relatives who also live in the same home. They require extensive education and teaching regarding the patient’s medication regimen, while also dealing with the loss of their loved one and the fear of personal exposure.

Takeaway: Communicate with families – especially those with special health care needs – about issues of guardianship in case a child’s primary caretaker falls ill.

• Discuss with families about having easily accessible lists of medications and medical conditions.
• Involve social work and child life specialists to help children and their families deal with life-altering changes and losses suffered during this time, as well as fears related to mortality and exposure.

Case 6

A 3-year-old boy arrived covered in bruises and complaining of stomachache. While the mother denies any known abuse, she states that her significant other has been getting more and more “worked up having to deal with the child’s behavior all day every day.” The preschool the child previously attended has closed due to the pandemic.

Takeaway: Abuse is more common when the parents perceive that there is little community support and when families feel a lack of connection to the community.¹ Huang et al. examined the relationship between the economy and nonaccidental trauma, showing a doubling in the rate of nonaccidental head trauma during economic recession.²

• Allow families to know that they are not alone and that child care is difficult
• Offer advice on what caretakers can do if they feel alone or at their mental or physical limit.
• Provide strategies on your practice’s website if a situation at home becomes tense and strained.

Case 7

An adolescent female arrived to the ED with increased suicidality. She normally follows with her psychiatrist once a month and her therapist once a week. Since the beginning of COVID-19 restrictions, she has been using telemedicine for her therapy visits. While previously doing well, she reports that her suicidal ideations have worsened because of feeling isolated from her friends now that school is out and she is not allowed to see them. Although compliant with her medications, her thoughts have increased to the point where she has to be admitted to inpatient psychiatry.

Takeaway: Anxiety, depression, and suicide may increase in a down economy. After the 2008 global economic crisis, rates of suicide drastically increased.³

• Recognize the limitations of telemedicine (technology limitations, patient cooperation, etc.)
• Social isolation may contribute to worsening mental health
• Know when to advise patients to seek in-person evaluation and care for medical and mental health concerns.

Pediatricians are at the forefront of preventative medicine. Families rely on pediatricians for trustworthy and accurate anticipatory guidance, a need that is only heightened during times of local and national stress. The social isolation, fear, and lack of resources accompanying this pandemic have serious consequences for our families. What can you and your practice do to keep children safe in the time of COVID-19?

Dr. Angelica DesPain is a pediatric emergency medicine fellow at Children’s National Hospital in Washington. Dr. Rachel Hatcliffe is an attending physician at the hospital. Neither physician had any relevant financial disclosures. Email Dr. DesPain and/or Dr. Hatcliffe at [email protected].

References

1. Child Dev. 1978;49:604-16.

2. J Neurosurg Pediatr 2011 Aug;8(2):171-6.

3. BMJ 2013;347:f5239.

As physicians and advanced practitioners, we have been preparing to face COVID-19 – anticipating increasing volumes of patients with fevers, cough, and shortness of breath, and potential surges in emergency departments (EDs) and primary care offices. Fortunately, while COVID-19 has demonstrated more mild symptoms in pediatric patients, the heightened public health fears and mandated social isolation have created some unforeseen consequences for pediatric patients. This article presents cases encountered over the course of 2 weeks in our ED that shed light on the unexpected ramifications of living in the time of a pandemic. These encounters should remind us as providers to be diligent and thorough in giving guidance to families during a time when face-to-face medicine has become increasingly difficult and limited.

These stories have been modified to protect patient confidentiality.

recep-bg/E+/Getty Images

Case 1

A 2-week-old full-term infant arrived in the ED after having a fever for 48 hours. The patient’s mother reported that she had called the pediatrician yesterday to ask for advice on treating the fever and was instructed to give acetaminophen and bring the infant into the ED for testing.

When we asked mom why she did not bring the infant in yesterday, she stated that the fever went down with acetaminophen, and the baby was drinking well and urinating normally. Mostly, she was afraid to bring the child into the ED given concern for COVID-19; however, when the fever persisted today, she came in. During the work-up, the infant was noted to have focal seizures and was ultimately diagnosed with bacterial meningitis.

Takeaway: Families may be hesitant to follow pediatrician’s advice to seek medical attention at an ED or doctor’s office because of the fear of being exposed to COVID-19.

• If something is urgent or emergent, be sure to stress the importance to families that the advice is non-negotiable for their child’s health.
• Attempt to call ahead for patients who might be more vulnerable in waiting rooms or overcrowded hospitals.

Case 2

A 5-month-old baby presented to the ED with new-onset seizures. Immediate bedside blood work performed demonstrated a normal blood glucose, but the baby was profoundly hyponatremic. Upon asking the mother if the baby has had any vomiting, diarrhea, or difficulty tolerating feeds, she says that she has been diluting formula because all the stores were out of formula. Today, she gave the baby plain water because they were completely out of formula.

Takeaway: With economists estimating unemployment rates in the United States at 13% at press time (the worst since the Great Depression), many families may lack resources to purchase necessities.

• Even if families have the ability to purchase necessities, they may be difficult to find or unavailable (e.g., formula, medications, diapers).
• Consider reaching out to patients in your practice to ask about their ability to find essentials and with advice on what to do if they run out of formula or diapers, or who they should contact if they cannot refill a medication.
• Are you in a position to speak with your mayor or local council to ensure there are regulations on the hoarding of essential items?
• In a time when breast milk or formula is not available for children younger than 1 year of age, what will you recommend for families? There are no current American Academy of Pediatrics’ guidelines.

Case 3

A school-aged girl was helping her mother sanitize the home during the COVID-19 pandemic. She had her gloves on, her commercial antiseptic cleaner ready to go, but it was not spraying. She turned the bottle around to check the nozzle and sprayed herself in the eyes. The family presented to the ED for alkaline burn to her eyes, which required copious irrigation.

Takeaway: Children are spending more time in the house with access to button batteries, choking hazards, and cleaning supplies.

• Cleaning products can cause chemical burns. These products should not be used by young children.

Case 4

A school-aged boy arrived via emergency medical services (EMS) for altered mental status. He told his father he was feeling dizzy and then lost consciousness. EMS noticed that he had some tonic movements of his lower extremities, and when he arrived in the ED, he had eye deviation and was unresponsive.

Work-up ultimately demonstrated that this patient had a seizure and a dangerously elevated ethanol level from drinking an entire bottle of hand sanitizer. Hand sanitizer may contain high concentrations of ethyl alcohol or isopropyl alcohol, which when ingested can cause intoxication or poisoning.

Takeaway: Many products that we may view as harmless can be toxic if ingested in large amounts.

• Consider making a list of products that families may have acquired and have around the home during this COVID-19 pandemic and instruct families to make sure dangerous items (e.g., acetaminophen, aspirin, hand sanitizer, lighters, firearms, batteries) are locked up and/or out of reach of children.
• Make sure families know the Poison Control phone number (800-222-1222).
   

   

Case 5

An adolescent female currently being treated with immunosuppressants arrived from home with fever. Her medical history revealed that the patient’s guardian recently passed away from suspected COVID-19. The patient was tested and is herself found to be positive for COVID-19. The patient is currently being cared for by relatives who also live in the same home. They require extensive education and teaching regarding the patient’s medication regimen, while also dealing with the loss of their loved one and the fear of personal exposure.

Takeaway: Communicate with families – especially those with special health care needs – about issues of guardianship in case a child’s primary caretaker falls ill.

• Discuss with families about having easily accessible lists of medications and medical conditions.
• Involve social work and child life specialists to help children and their families deal with life-altering changes and losses suffered during this time, as well as fears related to mortality and exposure.

Case 6

A 3-year-old boy arrived covered in bruises and complaining of stomachache. While the mother denies any known abuse, she states that her significant other has been getting more and more “worked up having to deal with the child’s behavior all day every day.” The preschool the child previously attended has closed due to the pandemic.

Takeaway: Abuse is more common when the parents perceive that there is little community support and when families feel a lack of connection to the community.¹ Huang et al. examined the relationship between the economy and nonaccidental trauma, showing a doubling in the rate of nonaccidental head trauma during economic recession.²

• Allow families to know that they are not alone and that child care is difficult
• Offer advice on what caretakers can do if they feel alone or at their mental or physical limit.
• Provide strategies on your practice’s website if a situation at home becomes tense and strained.

Case 7

An adolescent female arrived to the ED with increased suicidality. She normally follows with her psychiatrist once a month and her therapist once a week. Since the beginning of COVID-19 restrictions, she has been using telemedicine for her therapy visits. While previously doing well, she reports that her suicidal ideations have worsened because of feeling isolated from her friends now that school is out and she is not allowed to see them. Although compliant with her medications, her thoughts have increased to the point where she has to be admitted to inpatient psychiatry.

Takeaway: Anxiety, depression, and suicide may increase in a down economy. After the 2008 global economic crisis, rates of suicide drastically increased.³

• Recognize the limitations of telemedicine (technology limitations, patient cooperation, etc.)
• Social isolation may contribute to worsening mental health
• Know when to advise patients to seek in-person evaluation and care for medical and mental health concerns.

Pediatricians are at the forefront of preventative medicine. Families rely on pediatricians for trustworthy and accurate anticipatory guidance, a need that is only heightened during times of local and national stress. The social isolation, fear, and lack of resources accompanying this pandemic have serious consequences for our families. What can you and your practice do to keep children safe in the time of COVID-19?

Dr. Angelica DesPain is a pediatric emergency medicine fellow at Children’s National Hospital in Washington. Dr. Rachel Hatcliffe is an attending physician at the hospital. Neither physician had any relevant financial disclosures. Email Dr. DesPain and/or Dr. Hatcliffe at [email protected].

References

1. Child Dev. 1978;49:604-16.

2. J Neurosurg Pediatr 2011 Aug;8(2):171-6.

3. BMJ 2013;347:f5239.

Parents of children with cancer and their physicians are willing to opt for less effective treatment to avoid risk of neurocognitive disorders later in life, according to results from a new study.

While some 80% of children with cancer survive to adulthood, most will experience chronic health conditions related to treatment, and many pediatric oncologists will adjust treatment strategies to lessen the likelihood of later effects. For their research published in Pediatrics, Katie A. Greenzang, MD, of the Dana-Farber Cancer Institute in Boston and colleagues aimed to learn how both parents and physicians weighed the risks and benefits.

In a survey of 95 parents and 41 physicians at Dana-Farber, Dr. Greenzang and colleagues proposed hypothetical scenarios involving five common late effects of childhood cancer treatment: neurocognitive impairment, infertility, cardiac toxicity, second malignancies, and impaired development. The parents surveyed, all of whom had children diagnosed with cancer within the previous year, were asked to make decisions as though on behalf of their children, while physicians were asked to do so as on behalf of a newly diagnosed patient.

Avoiding severe cognitive impairment mattered more than an increased chance of a cure to both parents and physicians. Neurocognitive impairment was the risk that most affected treatment choices, with parents more likely to choose a treatment associated with no or mild neurocognitive impairment, compared with one that caused severe impairment (odds ratio, 2.83 for no impairment vs. severe impairment; P less than .001), which was also the case with physicians (OR, 4.01; P less than .001).

Parents would accept an 18% chance of another malignancy for a 10% greater chance of a cure, while physicians accepted a 15% risk. Parents were willing to tolerate a 31% risk of cardiac toxicity in exchange for the better chance of a cure, while physicians accepted a 22% higher risk.

The results, the researchers wrote in their analysis, offered a window into the level and type of later-life risks that parents can accept when making choices about cancer treatment and where those choices appear to differ from those made by physicians.

“Oncologists increasingly design clinical trials [for children with cancer] with dual goals of optimizing cure while minimizing late effects,” Dr. Greenzang and colleagues wrote. “In doing so, they make judgments about the relative value of short- and long-term outcomes in patients’ lives. Yet oncologists have largely done so in the absence of information about how parents prioritize avoidance of late effects relative to the chance of cure.”

In an editorial comment accompanying the study, Tara A. Brinkman, PhD, of St. Jude Children’s Research Hospital in Memphis, Tenn., and James G. Gurney, PhD, of the University of Memphis noted that the findings “may have narrow clinical application” because many of the late-life effects presented in the survey will not present singly but will co-occur in survivors of childhood cancer. “Hypothetical scenarios that do not depict the full burden of late effects may not reflect a realistic understanding of the complexity of decisions to be made in a real-life diagnostic setting,” they said.

But the editorialists praised the study for revealing that many parents did not accurately perceive the true likelihood of late effects for their children. Parents in the survey tended to underestimate the risk for all the late effects besides infertility, which revealed a need for “better education about late effects early in the diagnostic and treatment process,” Dr. Brinkman and Dr. Gurney said, emphasizing that discussions should begin at diagnosis and continue beyond treatment “and long into the maintenance and surveillance period after the declaration of cure.”

Dr. Greenzang and colleagues’ study was funded by the National Institutes of Health and an Agency for Healthcare Research and Quality grant. The investigators declared no relevant financial disclosures. Dr. Brinkman and Dr. Gurney reported no relevant financial disclosures.

SOURCE: Greenzang et al. Pediatrics. 2020;145(5):e20193552.

Parents of children with cancer and their physicians are willing to opt for less effective treatment to avoid risk of neurocognitive disorders later in life, according to results from a new study.

While some 80% of children with cancer survive to adulthood, most will experience chronic health conditions related to treatment, and many pediatric oncologists will adjust treatment strategies to lessen the likelihood of later effects. For their research published in Pediatrics, Katie A. Greenzang, MD, of the Dana-Farber Cancer Institute in Boston and colleagues aimed to learn how both parents and physicians weighed the risks and benefits.

In a survey of 95 parents and 41 physicians at Dana-Farber, Dr. Greenzang and colleagues proposed hypothetical scenarios involving five common late effects of childhood cancer treatment: neurocognitive impairment, infertility, cardiac toxicity, second malignancies, and impaired development. The parents surveyed, all of whom had children diagnosed with cancer within the previous year, were asked to make decisions as though on behalf of their children, while physicians were asked to do so as on behalf of a newly diagnosed patient.

Avoiding severe cognitive impairment mattered more than an increased chance of a cure to both parents and physicians. Neurocognitive impairment was the risk that most affected treatment choices, with parents more likely to choose a treatment associated with no or mild neurocognitive impairment, compared with one that caused severe impairment (odds ratio, 2.83 for no impairment vs. severe impairment; P less than .001), which was also the case with physicians (OR, 4.01; P less than .001).

Parents would accept an 18% chance of another malignancy for a 10% greater chance of a cure, while physicians accepted a 15% risk. Parents were willing to tolerate a 31% risk of cardiac toxicity in exchange for the better chance of a cure, while physicians accepted a 22% higher risk.

The results, the researchers wrote in their analysis, offered a window into the level and type of later-life risks that parents can accept when making choices about cancer treatment and where those choices appear to differ from those made by physicians.

“Oncologists increasingly design clinical trials [for children with cancer] with dual goals of optimizing cure while minimizing late effects,” Dr. Greenzang and colleagues wrote. “In doing so, they make judgments about the relative value of short- and long-term outcomes in patients’ lives. Yet oncologists have largely done so in the absence of information about how parents prioritize avoidance of late effects relative to the chance of cure.”

In an editorial comment accompanying the study, Tara A. Brinkman, PhD, of St. Jude Children’s Research Hospital in Memphis, Tenn., and James G. Gurney, PhD, of the University of Memphis noted that the findings “may have narrow clinical application” because many of the late-life effects presented in the survey will not present singly but will co-occur in survivors of childhood cancer. “Hypothetical scenarios that do not depict the full burden of late effects may not reflect a realistic understanding of the complexity of decisions to be made in a real-life diagnostic setting,” they said.

But the editorialists praised the study for revealing that many parents did not accurately perceive the true likelihood of late effects for their children. Parents in the survey tended to underestimate the risk for all the late effects besides infertility, which revealed a need for “better education about late effects early in the diagnostic and treatment process,” Dr. Brinkman and Dr. Gurney said, emphasizing that discussions should begin at diagnosis and continue beyond treatment “and long into the maintenance and surveillance period after the declaration of cure.”

Dr. Greenzang and colleagues’ study was funded by the National Institutes of Health and an Agency for Healthcare Research and Quality grant. The investigators declared no relevant financial disclosures. Dr. Brinkman and Dr. Gurney reported no relevant financial disclosures.

SOURCE: Greenzang et al. Pediatrics. 2020;145(5):e20193552.

Parents of children with cancer and their physicians are willing to opt for less effective treatment to avoid risk of neurocognitive disorders later in life, according to results from a new study.

While some 80% of children with cancer survive to adulthood, most will experience chronic health conditions related to treatment, and many pediatric oncologists will adjust treatment strategies to lessen the likelihood of later effects. For their research published in Pediatrics, Katie A. Greenzang, MD, of the Dana-Farber Cancer Institute in Boston and colleagues aimed to learn how both parents and physicians weighed the risks and benefits.

In a survey of 95 parents and 41 physicians at Dana-Farber, Dr. Greenzang and colleagues proposed hypothetical scenarios involving five common late effects of childhood cancer treatment: neurocognitive impairment, infertility, cardiac toxicity, second malignancies, and impaired development. The parents surveyed, all of whom had children diagnosed with cancer within the previous year, were asked to make decisions as though on behalf of their children, while physicians were asked to do so as on behalf of a newly diagnosed patient.

Avoiding severe cognitive impairment mattered more than an increased chance of a cure to both parents and physicians. Neurocognitive impairment was the risk that most affected treatment choices, with parents more likely to choose a treatment associated with no or mild neurocognitive impairment, compared with one that caused severe impairment (odds ratio, 2.83 for no impairment vs. severe impairment; P less than .001), which was also the case with physicians (OR, 4.01; P less than .001).

Parents would accept an 18% chance of another malignancy for a 10% greater chance of a cure, while physicians accepted a 15% risk. Parents were willing to tolerate a 31% risk of cardiac toxicity in exchange for the better chance of a cure, while physicians accepted a 22% higher risk.

The results, the researchers wrote in their analysis, offered a window into the level and type of later-life risks that parents can accept when making choices about cancer treatment and where those choices appear to differ from those made by physicians.

“Oncologists increasingly design clinical trials [for children with cancer] with dual goals of optimizing cure while minimizing late effects,” Dr. Greenzang and colleagues wrote. “In doing so, they make judgments about the relative value of short- and long-term outcomes in patients’ lives. Yet oncologists have largely done so in the absence of information about how parents prioritize avoidance of late effects relative to the chance of cure.”

In an editorial comment accompanying the study, Tara A. Brinkman, PhD, of St. Jude Children’s Research Hospital in Memphis, Tenn., and James G. Gurney, PhD, of the University of Memphis noted that the findings “may have narrow clinical application” because many of the late-life effects presented in the survey will not present singly but will co-occur in survivors of childhood cancer. “Hypothetical scenarios that do not depict the full burden of late effects may not reflect a realistic understanding of the complexity of decisions to be made in a real-life diagnostic setting,” they said.

But the editorialists praised the study for revealing that many parents did not accurately perceive the true likelihood of late effects for their children. Parents in the survey tended to underestimate the risk for all the late effects besides infertility, which revealed a need for “better education about late effects early in the diagnostic and treatment process,” Dr. Brinkman and Dr. Gurney said, emphasizing that discussions should begin at diagnosis and continue beyond treatment “and long into the maintenance and surveillance period after the declaration of cure.”

Dr. Greenzang and colleagues’ study was funded by the National Institutes of Health and an Agency for Healthcare Research and Quality grant. The investigators declared no relevant financial disclosures. Dr. Brinkman and Dr. Gurney reported no relevant financial disclosures.

SOURCE: Greenzang et al. Pediatrics. 2020;145(5):e20193552.

In the clinical opinion of Kaiane A. Habeshian, MD, dermatologists shouldn’t think twice about using systemic agents in pediatric patients with severe dermatologic diseases.

“By the time patients come to us pediatric dermatologists, they have been treated by multiple other doctors, and are frustrated,” Dr. Habeshian said during a virtual meeting held by the George Washington University department of dermatology. “Childhood eczema affects not only patients, but the whole family. For instance, if the child is not sleeping due to itch, their parents are probably not sleeping, either. Parental well-being and workplace productivity are affected, and finances are affected.”

Only a limited number of medications are Food and Drug Administration approved in pediatric patients for common dermatologic indications. These include dupilumab for atopic dermatitis (AD), etanercept and ustekinumab for psoriasis, adalimumab for hidradenitis suppurativa, and omalizumab for chronic idiopathic urticaria. “The approvals are mainly for the adolescent age group, except for etanercept, which is approved at the age of 4 years and above,” said Dr. Habeshian of the department of dermatology at Children’s National Hospital, Washington.

In clinical practice, off-label, nontargeted systemic agents are used mostly commonly in pediatric skin disease, particularly methotrexate and cyclosporine for both AD and psoriasis. “These agents are approved for other indications in infants and have many years of data to describe their use in these other conditions, although comprehensive randomized, controlled studies in pediatric patients for dermatologic conditions are lacking,” she said. “What’s in clinical trials for pediatric skin disease? There are multiple ongoing clinical studies of biologic agents in pediatric dermatology, mainly for psoriasis and also for dupilumab in younger patients, as well as a JAK [Janus kinase] inhibitor for alopecia areata.”

Dr. Habeshian noted that while some clinicians may have a knee-jerk reaction to go straight to dupilumab, which was approved in March of 2019 for adolescents with moderate to severe AD, that agent is not currently approved for the most sizable pediatric population with this condition – those under 12 years of age. “FDA approval is important in part because it helps establish safety and optimal dosing, which is often different and weight based in children,” she said. “In addition, FDA approval significantly impacts access to these newer, more expensive medications.”

Speaking from her experience treating patients in the DC/Maryland/Virginia area, Medicaid has consistently denied dupilumab coverage in children under age 12, “even in severe eczema that is suboptimally controlled with both methotrexate and cyclosporine, despite multiple levels of appeal, including letters of medical necessity and peer-to-peer evaluation,” she said. “This can vary across the country among states. However, dupilumab has been completely unattainable in those under 12 in our practice.”

When dupilumab is approved, most insurers first require step therapy with off-label agents for at least 3 months, as well as documented failure of topical corticosteroids, calcineurin inhibitors, crisaborole ointment, and phototherapy (if done). “It’s important to document an objective measure of severity at the very first visit with the SCORAD [scoring atopic dermatitis] or IGA [investigator global assessment],” she said. “Often, that is required if there is any hope for coverage. A familiarity with these requirements is often acquired through trial and error, and may change over time. This can lead to many delays in getting patients these treatments.” Additional information to consider documenting include the disease impact on quality of life, sleep, and school attendance, any hospitalizations for AD flares or secondary infections, and comorbid disease such as asthma.

Meanwhile, dupilumab is under priority review for children aged 6-11 years with moderate to severe AD, with a target action date of May 26, 2020. “It’s unclear how recent events [with the COVID-19 pandemic] will impact that, but there is something to look forward to, and give us hope for our patients,” she said.

Typically, Dr. Habeshian starts her pediatric patients with moderate to severe AD on methotrexate, which she characterized as “a time-tested, affordable, and very accessible option. It requires a little bit less monitoring upon initiation than cyclosporine, and it can be used for longer periods of time before weaning is required.”

In cases when disease is severe or intolerable, she often starts methotrexate and cyclosporine together. “I will usually start right at the 0.5 mg/kg per week rather than titrating up, because this maximizes the response and reduces the amount of blood work needed, unless they have an underlying risk factor for GI distress, or obese patients who are at increased risk for LFT [liver function test] elevation,” she noted. “Patients will note some improvement as early as 2 weeks on methotrexate, but I counsel them to expect 4-6 weeks for maximum improvement. We do not do a test dose of methotrexate at our institution. If there is a slight LFT elevation upon checking labs, ensure that the labs were done at least 4-6 days after the dose, because transient LFT dose elevations are common in 3-4 days.”

GI distress is by far the most common clinical side effect of methotrexate. “We do not do much intramuscular injection of methotrexate, so we rely a lot on folic acid, which reduces the risk of GI distress and elevated LFTs without reducing efficacy,” she said. “We recommend daily folic acid for simplicity, or folic acid 6 days per week.”

Dr. Habeshian said that many pediatric patients can swallow the 2.5 mg tablets of methotrexate “because they’re quite small, and most patients don’t have a problem taking the methotrexate when it’s crushed and mixed with food such as apple sauce or pudding. However, it is critical to discuss proper handling to avoid lung toxicity.” This includes placing the pills in a plastic bag prior to crushing, avoiding inhalation, and avoiding handling near pregnant women and pets, she noted. In addition, she said, “in adolescents, we need to consider the teratogenicity of methotrexate, as well as the possibility of alcohol consumption worsening liver complications. If I prescribe methotrexate in patients of childbearing age, I will counsel them extensively regarding the risk of fetal death and birth defects. If needed, I will start combined oral contraceptives. Ultimately, I’m willing to use these medicines safely, with significant counseling.”

When addressing the risk of methotrexate overdose, she reminds parents to store the medication in a safe place, out of the reach of children. “Patients are at the highest risk of overdose complications if they are given the medication multiple days in a row rather than a one-time, single high dose,” she said. “The literature suggests that one-time overdoses of methotrexate – deliberate or accidental – are unlikely to cause acute bone marrow suppression or hepatitis. This is probably because GI absorption of methotrexate reaches a saturation point, and the kidneys passively and actively excrete the medication at quite a rapid pace so that the methotrexate is often undetectable in the blood at 24 hours post ingestion. I do prescribe a limited supply to help prevent accidental overdoses. In part, this is because if the patient is receiving the medication daily, they’ll run out very quickly, and it will come the family’s attention and to your attention that it’s not being administered correctly.”

Another treatment option to consider for cases of moderate to severe AD is cyclosporine, “which works extremely quickly,” Dr. Habeshian said. “It is very good to rapidly control severe disease while methotrexate or other modes of treatment kick in. It’s best used as a bridge, given the risks of renal damage with long-term use. I like to limit its use to 6 months.”

Cyclosporine comes in two formulations: a modified oral formulation and a nonmodified oral formulation. The modified formulation is absorbed much better than the unmodified formulation. “We start at 5 mg/kg divided b.i.d., which is higher than the recommended dosing for dermatologic conditions in adults,” she said. “This is because children may not absorb the medication as well and may have improved renal clearance. Higher doses may be needed to achieve the desirable effect. In contrast to methotrexate, cyclosporine is available in a capsule, so it cannot be crushed.”

The choice of medication for psoriasis is generally guided by insurance step therapy requirements and is limited in the pediatric population (new guidelines on the care of pediatric psoriasis patients can be found at J Am Acad Dermatol 2020; 82[1]:161-201). In Dr. Habeshian’s experience, methotrexate is the go-to for most patients. “It treats concomitant psoriatic arthritis and can be used as monotherapy or combined with biologics,” she said. “Cyclosporine is useful for erythrodermic, pustular, and severe plaque psoriasis as a bridge. Other options include etanercept weekly in patients age 4-17 years and ustekinumab weekly dosing in patients age 12-17 years.”

Acitretin can be a useful adjunct for younger patients who are unable to obtain biologic agents. “It is most useful in widespread guttate and pustular psoriasis, but can be used be used in plaque psoriasis as well,” Dr. Habeshian said. “It is usually dosed as 0.1-1 mg/kg per day. Improvement in plaque disease is generally seen in 2-3 months of therapy, so it has a slow onset, whereas improvement in pustular psoriasis is seen within 3 weeks.” The most common side effects are dry skin and mucous membranes, while an important consideration is the potential for inducing premature bone toxicity. “It is thought that the risk is relatively low if the daily and total doses are kept low,” she said. “There is no consensus for monitoring bone health. Some clinicians will consider radiography periodically.”

Dr. Habeshian concluded her talk by noting that clinicians should give vaccinations/boosters before starting systemic therapy in young children. “The safety and efficacy of live immunization administered to children on biologics is not known,” she said. “Therefore, if live vaccination is needed, it’s generally recommended to postpone initiating biologic treatment.” The MMR and varicella vaccines are given at 12-15 months of life, with a booster at 4-6 years. The varicella vaccine should be given at least 6 weeks before starting immunosuppressive therapy, and the MMR vaccine at least 4 weeks before starting therapy.

The virtual meeting included presentations that had been slated for the annual meeting of the American Academy of Dermatology, which was canceled because of the COVID-19 pandemic. Dr. Habeshian reported having no disclosures.

[email protected]

In the clinical opinion of Kaiane A. Habeshian, MD, dermatologists shouldn’t think twice about using systemic agents in pediatric patients with severe dermatologic diseases.

“By the time patients come to us pediatric dermatologists, they have been treated by multiple other doctors, and are frustrated,” Dr. Habeshian said during a virtual meeting held by the George Washington University department of dermatology. “Childhood eczema affects not only patients, but the whole family. For instance, if the child is not sleeping due to itch, their parents are probably not sleeping, either. Parental well-being and workplace productivity are affected, and finances are affected.”

Only a limited number of medications are Food and Drug Administration approved in pediatric patients for common dermatologic indications. These include dupilumab for atopic dermatitis (AD), etanercept and ustekinumab for psoriasis, adalimumab for hidradenitis suppurativa, and omalizumab for chronic idiopathic urticaria. “The approvals are mainly for the adolescent age group, except for etanercept, which is approved at the age of 4 years and above,” said Dr. Habeshian of the department of dermatology at Children’s National Hospital, Washington.

In clinical practice, off-label, nontargeted systemic agents are used mostly commonly in pediatric skin disease, particularly methotrexate and cyclosporine for both AD and psoriasis. “These agents are approved for other indications in infants and have many years of data to describe their use in these other conditions, although comprehensive randomized, controlled studies in pediatric patients for dermatologic conditions are lacking,” she said. “What’s in clinical trials for pediatric skin disease? There are multiple ongoing clinical studies of biologic agents in pediatric dermatology, mainly for psoriasis and also for dupilumab in younger patients, as well as a JAK [Janus kinase] inhibitor for alopecia areata.”

Dr. Habeshian noted that while some clinicians may have a knee-jerk reaction to go straight to dupilumab, which was approved in March of 2019 for adolescents with moderate to severe AD, that agent is not currently approved for the most sizable pediatric population with this condition – those under 12 years of age. “FDA approval is important in part because it helps establish safety and optimal dosing, which is often different and weight based in children,” she said. “In addition, FDA approval significantly impacts access to these newer, more expensive medications.”

Speaking from her experience treating patients in the DC/Maryland/Virginia area, Medicaid has consistently denied dupilumab coverage in children under age 12, “even in severe eczema that is suboptimally controlled with both methotrexate and cyclosporine, despite multiple levels of appeal, including letters of medical necessity and peer-to-peer evaluation,” she said. “This can vary across the country among states. However, dupilumab has been completely unattainable in those under 12 in our practice.”

When dupilumab is approved, most insurers first require step therapy with off-label agents for at least 3 months, as well as documented failure of topical corticosteroids, calcineurin inhibitors, crisaborole ointment, and phototherapy (if done). “It’s important to document an objective measure of severity at the very first visit with the SCORAD [scoring atopic dermatitis] or IGA [investigator global assessment],” she said. “Often, that is required if there is any hope for coverage. A familiarity with these requirements is often acquired through trial and error, and may change over time. This can lead to many delays in getting patients these treatments.” Additional information to consider documenting include the disease impact on quality of life, sleep, and school attendance, any hospitalizations for AD flares or secondary infections, and comorbid disease such as asthma.

Meanwhile, dupilumab is under priority review for children aged 6-11 years with moderate to severe AD, with a target action date of May 26, 2020. “It’s unclear how recent events [with the COVID-19 pandemic] will impact that, but there is something to look forward to, and give us hope for our patients,” she said.

Typically, Dr. Habeshian starts her pediatric patients with moderate to severe AD on methotrexate, which she characterized as “a time-tested, affordable, and very accessible option. It requires a little bit less monitoring upon initiation than cyclosporine, and it can be used for longer periods of time before weaning is required.”

In cases when disease is severe or intolerable, she often starts methotrexate and cyclosporine together. “I will usually start right at the 0.5 mg/kg per week rather than titrating up, because this maximizes the response and reduces the amount of blood work needed, unless they have an underlying risk factor for GI distress, or obese patients who are at increased risk for LFT [liver function test] elevation,” she noted. “Patients will note some improvement as early as 2 weeks on methotrexate, but I counsel them to expect 4-6 weeks for maximum improvement. We do not do a test dose of methotrexate at our institution. If there is a slight LFT elevation upon checking labs, ensure that the labs were done at least 4-6 days after the dose, because transient LFT dose elevations are common in 3-4 days.”

GI distress is by far the most common clinical side effect of methotrexate. “We do not do much intramuscular injection of methotrexate, so we rely a lot on folic acid, which reduces the risk of GI distress and elevated LFTs without reducing efficacy,” she said. “We recommend daily folic acid for simplicity, or folic acid 6 days per week.”

Dr. Habeshian said that many pediatric patients can swallow the 2.5 mg tablets of methotrexate “because they’re quite small, and most patients don’t have a problem taking the methotrexate when it’s crushed and mixed with food such as apple sauce or pudding. However, it is critical to discuss proper handling to avoid lung toxicity.” This includes placing the pills in a plastic bag prior to crushing, avoiding inhalation, and avoiding handling near pregnant women and pets, she noted. In addition, she said, “in adolescents, we need to consider the teratogenicity of methotrexate, as well as the possibility of alcohol consumption worsening liver complications. If I prescribe methotrexate in patients of childbearing age, I will counsel them extensively regarding the risk of fetal death and birth defects. If needed, I will start combined oral contraceptives. Ultimately, I’m willing to use these medicines safely, with significant counseling.”

When addressing the risk of methotrexate overdose, she reminds parents to store the medication in a safe place, out of the reach of children. “Patients are at the highest risk of overdose complications if they are given the medication multiple days in a row rather than a one-time, single high dose,” she said. “The literature suggests that one-time overdoses of methotrexate – deliberate or accidental – are unlikely to cause acute bone marrow suppression or hepatitis. This is probably because GI absorption of methotrexate reaches a saturation point, and the kidneys passively and actively excrete the medication at quite a rapid pace so that the methotrexate is often undetectable in the blood at 24 hours post ingestion. I do prescribe a limited supply to help prevent accidental overdoses. In part, this is because if the patient is receiving the medication daily, they’ll run out very quickly, and it will come the family’s attention and to your attention that it’s not being administered correctly.”

Another treatment option to consider for cases of moderate to severe AD is cyclosporine, “which works extremely quickly,” Dr. Habeshian said. “It is very good to rapidly control severe disease while methotrexate or other modes of treatment kick in. It’s best used as a bridge, given the risks of renal damage with long-term use. I like to limit its use to 6 months.”

Cyclosporine comes in two formulations: a modified oral formulation and a nonmodified oral formulation. The modified formulation is absorbed much better than the unmodified formulation. “We start at 5 mg/kg divided b.i.d., which is higher than the recommended dosing for dermatologic conditions in adults,” she said. “This is because children may not absorb the medication as well and may have improved renal clearance. Higher doses may be needed to achieve the desirable effect. In contrast to methotrexate, cyclosporine is available in a capsule, so it cannot be crushed.”

The choice of medication for psoriasis is generally guided by insurance step therapy requirements and is limited in the pediatric population (new guidelines on the care of pediatric psoriasis patients can be found at J Am Acad Dermatol 2020; 82[1]:161-201). In Dr. Habeshian’s experience, methotrexate is the go-to for most patients. “It treats concomitant psoriatic arthritis and can be used as monotherapy or combined with biologics,” she said. “Cyclosporine is useful for erythrodermic, pustular, and severe plaque psoriasis as a bridge. Other options include etanercept weekly in patients age 4-17 years and ustekinumab weekly dosing in patients age 12-17 years.”

Acitretin can be a useful adjunct for younger patients who are unable to obtain biologic agents. “It is most useful in widespread guttate and pustular psoriasis, but can be used be used in plaque psoriasis as well,” Dr. Habeshian said. “It is usually dosed as 0.1-1 mg/kg per day. Improvement in plaque disease is generally seen in 2-3 months of therapy, so it has a slow onset, whereas improvement in pustular psoriasis is seen within 3 weeks.” The most common side effects are dry skin and mucous membranes, while an important consideration is the potential for inducing premature bone toxicity. “It is thought that the risk is relatively low if the daily and total doses are kept low,” she said. “There is no consensus for monitoring bone health. Some clinicians will consider radiography periodically.”

Dr. Habeshian concluded her talk by noting that clinicians should give vaccinations/boosters before starting systemic therapy in young children. “The safety and efficacy of live immunization administered to children on biologics is not known,” she said. “Therefore, if live vaccination is needed, it’s generally recommended to postpone initiating biologic treatment.” The MMR and varicella vaccines are given at 12-15 months of life, with a booster at 4-6 years. The varicella vaccine should be given at least 6 weeks before starting immunosuppressive therapy, and the MMR vaccine at least 4 weeks before starting therapy.

The virtual meeting included presentations that had been slated for the annual meeting of the American Academy of Dermatology, which was canceled because of the COVID-19 pandemic. Dr. Habeshian reported having no disclosures.

[email protected]

In the clinical opinion of Kaiane A. Habeshian, MD, dermatologists shouldn’t think twice about using systemic agents in pediatric patients with severe dermatologic diseases.

“By the time patients come to us pediatric dermatologists, they have been treated by multiple other doctors, and are frustrated,” Dr. Habeshian said during a virtual meeting held by the George Washington University department of dermatology. “Childhood eczema affects not only patients, but the whole family. For instance, if the child is not sleeping due to itch, their parents are probably not sleeping, either. Parental well-being and workplace productivity are affected, and finances are affected.”

Only a limited number of medications are Food and Drug Administration approved in pediatric patients for common dermatologic indications. These include dupilumab for atopic dermatitis (AD), etanercept and ustekinumab for psoriasis, adalimumab for hidradenitis suppurativa, and omalizumab for chronic idiopathic urticaria. “The approvals are mainly for the adolescent age group, except for etanercept, which is approved at the age of 4 years and above,” said Dr. Habeshian of the department of dermatology at Children’s National Hospital, Washington.

In clinical practice, off-label, nontargeted systemic agents are used mostly commonly in pediatric skin disease, particularly methotrexate and cyclosporine for both AD and psoriasis. “These agents are approved for other indications in infants and have many years of data to describe their use in these other conditions, although comprehensive randomized, controlled studies in pediatric patients for dermatologic conditions are lacking,” she said. “What’s in clinical trials for pediatric skin disease? There are multiple ongoing clinical studies of biologic agents in pediatric dermatology, mainly for psoriasis and also for dupilumab in younger patients, as well as a JAK [Janus kinase] inhibitor for alopecia areata.”

Dr. Habeshian noted that while some clinicians may have a knee-jerk reaction to go straight to dupilumab, which was approved in March of 2019 for adolescents with moderate to severe AD, that agent is not currently approved for the most sizable pediatric population with this condition – those under 12 years of age. “FDA approval is important in part because it helps establish safety and optimal dosing, which is often different and weight based in children,” she said. “In addition, FDA approval significantly impacts access to these newer, more expensive medications.”

Speaking from her experience treating patients in the DC/Maryland/Virginia area, Medicaid has consistently denied dupilumab coverage in children under age 12, “even in severe eczema that is suboptimally controlled with both methotrexate and cyclosporine, despite multiple levels of appeal, including letters of medical necessity and peer-to-peer evaluation,” she said. “This can vary across the country among states. However, dupilumab has been completely unattainable in those under 12 in our practice.”

When dupilumab is approved, most insurers first require step therapy with off-label agents for at least 3 months, as well as documented failure of topical corticosteroids, calcineurin inhibitors, crisaborole ointment, and phototherapy (if done). “It’s important to document an objective measure of severity at the very first visit with the SCORAD [scoring atopic dermatitis] or IGA [investigator global assessment],” she said. “Often, that is required if there is any hope for coverage. A familiarity with these requirements is often acquired through trial and error, and may change over time. This can lead to many delays in getting patients these treatments.” Additional information to consider documenting include the disease impact on quality of life, sleep, and school attendance, any hospitalizations for AD flares or secondary infections, and comorbid disease such as asthma.

Meanwhile, dupilumab is under priority review for children aged 6-11 years with moderate to severe AD, with a target action date of May 26, 2020. “It’s unclear how recent events [with the COVID-19 pandemic] will impact that, but there is something to look forward to, and give us hope for our patients,” she said.

Typically, Dr. Habeshian starts her pediatric patients with moderate to severe AD on methotrexate, which she characterized as “a time-tested, affordable, and very accessible option. It requires a little bit less monitoring upon initiation than cyclosporine, and it can be used for longer periods of time before weaning is required.”

In cases when disease is severe or intolerable, she often starts methotrexate and cyclosporine together. “I will usually start right at the 0.5 mg/kg per week rather than titrating up, because this maximizes the response and reduces the amount of blood work needed, unless they have an underlying risk factor for GI distress, or obese patients who are at increased risk for LFT [liver function test] elevation,” she noted. “Patients will note some improvement as early as 2 weeks on methotrexate, but I counsel them to expect 4-6 weeks for maximum improvement. We do not do a test dose of methotrexate at our institution. If there is a slight LFT elevation upon checking labs, ensure that the labs were done at least 4-6 days after the dose, because transient LFT dose elevations are common in 3-4 days.”

GI distress is by far the most common clinical side effect of methotrexate. “We do not do much intramuscular injection of methotrexate, so we rely a lot on folic acid, which reduces the risk of GI distress and elevated LFTs without reducing efficacy,” she said. “We recommend daily folic acid for simplicity, or folic acid 6 days per week.”

Dr. Habeshian said that many pediatric patients can swallow the 2.5 mg tablets of methotrexate “because they’re quite small, and most patients don’t have a problem taking the methotrexate when it’s crushed and mixed with food such as apple sauce or pudding. However, it is critical to discuss proper handling to avoid lung toxicity.” This includes placing the pills in a plastic bag prior to crushing, avoiding inhalation, and avoiding handling near pregnant women and pets, she noted. In addition, she said, “in adolescents, we need to consider the teratogenicity of methotrexate, as well as the possibility of alcohol consumption worsening liver complications. If I prescribe methotrexate in patients of childbearing age, I will counsel them extensively regarding the risk of fetal death and birth defects. If needed, I will start combined oral contraceptives. Ultimately, I’m willing to use these medicines safely, with significant counseling.”

When addressing the risk of methotrexate overdose, she reminds parents to store the medication in a safe place, out of the reach of children. “Patients are at the highest risk of overdose complications if they are given the medication multiple days in a row rather than a one-time, single high dose,” she said. “The literature suggests that one-time overdoses of methotrexate – deliberate or accidental – are unlikely to cause acute bone marrow suppression or hepatitis. This is probably because GI absorption of methotrexate reaches a saturation point, and the kidneys passively and actively excrete the medication at quite a rapid pace so that the methotrexate is often undetectable in the blood at 24 hours post ingestion. I do prescribe a limited supply to help prevent accidental overdoses. In part, this is because if the patient is receiving the medication daily, they’ll run out very quickly, and it will come the family’s attention and to your attention that it’s not being administered correctly.”

Another treatment option to consider for cases of moderate to severe AD is cyclosporine, “which works extremely quickly,” Dr. Habeshian said. “It is very good to rapidly control severe disease while methotrexate or other modes of treatment kick in. It’s best used as a bridge, given the risks of renal damage with long-term use. I like to limit its use to 6 months.”

Cyclosporine comes in two formulations: a modified oral formulation and a nonmodified oral formulation. The modified formulation is absorbed much better than the unmodified formulation. “We start at 5 mg/kg divided b.i.d., which is higher than the recommended dosing for dermatologic conditions in adults,” she said. “This is because children may not absorb the medication as well and may have improved renal clearance. Higher doses may be needed to achieve the desirable effect. In contrast to methotrexate, cyclosporine is available in a capsule, so it cannot be crushed.”

The choice of medication for psoriasis is generally guided by insurance step therapy requirements and is limited in the pediatric population (new guidelines on the care of pediatric psoriasis patients can be found at J Am Acad Dermatol 2020; 82[1]:161-201). In Dr. Habeshian’s experience, methotrexate is the go-to for most patients. “It treats concomitant psoriatic arthritis and can be used as monotherapy or combined with biologics,” she said. “Cyclosporine is useful for erythrodermic, pustular, and severe plaque psoriasis as a bridge. Other options include etanercept weekly in patients age 4-17 years and ustekinumab weekly dosing in patients age 12-17 years.”

Acitretin can be a useful adjunct for younger patients who are unable to obtain biologic agents. “It is most useful in widespread guttate and pustular psoriasis, but can be used be used in plaque psoriasis as well,” Dr. Habeshian said. “It is usually dosed as 0.1-1 mg/kg per day. Improvement in plaque disease is generally seen in 2-3 months of therapy, so it has a slow onset, whereas improvement in pustular psoriasis is seen within 3 weeks.” The most common side effects are dry skin and mucous membranes, while an important consideration is the potential for inducing premature bone toxicity. “It is thought that the risk is relatively low if the daily and total doses are kept low,” she said. “There is no consensus for monitoring bone health. Some clinicians will consider radiography periodically.”

Dr. Habeshian concluded her talk by noting that clinicians should give vaccinations/boosters before starting systemic therapy in young children. “The safety and efficacy of live immunization administered to children on biologics is not known,” she said. “Therefore, if live vaccination is needed, it’s generally recommended to postpone initiating biologic treatment.” The MMR and varicella vaccines are given at 12-15 months of life, with a booster at 4-6 years. The varicella vaccine should be given at least 6 weeks before starting immunosuppressive therapy, and the MMR vaccine at least 4 weeks before starting therapy.

The virtual meeting included presentations that had been slated for the annual meeting of the American Academy of Dermatology, which was canceled because of the COVID-19 pandemic. Dr. Habeshian reported having no disclosures.

[email protected]

The American Society of Clinical Oncology (ASCO) has launched a registry to collect data on cancer patients with COVID-19 and is asking oncology practices across the United States to share information about their patients with the infection for educational purposes.

The new registry joins at least two other cancer and COVID-19 patient registries already underway in the U.S.

In a statement, ASCO President Howard “Skip” Burris III, MD said there is a need to know “how the virus is impacting our patients, their cancer treatment, and outcomes to inform current cancer care” and future care.

The web-based registry, known as the American Society of Clinical Oncology (ASCO) Survey on COVID-19 in Oncology Registry, is open to all U.S. oncology practices. Participating practices will receive an unspecified “nominal” payment for their data entry efforts.

The registry patient information will be stored on ASCO’s “Big Data” platform, known as CancerLinQ, but is being held apart from that pool of data. The registry information will not be available for commercial purposes, ASCO spokesperson Rachel Martin recently told Medscape Medical News.

Separately, CancerLinQ, which is a wholly owned subsidiary of ASCO, will continue to collect data from its participant oncology practices (as usual), including COVID-19 information.

CancerLinQ has been criticized by ethicists for allowing partner companies to sell access to its data (after stripping off patient identifiers), but without asking for patients’ permission, as reported last year by Medscape Medical News.

Eleven practices, including academic enterprises, have so far expressed interested in participating in the ASCO COVID-19 Registry.

Participating practices are requested to send in details about cancer patients with a confirmed COVID-19 diagnosis. As well as a baseline data capture form, they will need to provide details of subsequent status, treatment, and outcomes. Some patient-identifying data, including zip code, date of birth, gender, race, ethnicity, type of cancer, and comorbidities, will be collected for the purposes of analysis.

ASCO hopes to learn about characteristics of patients with cancer most impacted by COVID-19; estimates of disease severity; treatment modifications or delays; implementation of telemedicine in the cancer treatment setting; and clinical outcomes related to both COVID-19 and cancer.

ASCO says it will deliver periodic reports to the cancer community and the broader public on these and other “key learnings.” It also says that the registry is designed to capture point-in-time data as well as longitudinal data on how the virus will impact care and outcomes into 2021.

ASCO is not alone in its data collection efforts.

The COVID-19 and Cancer Consortium is already collecting information from more than 50 cancer centers and organizations on COVID-19 in patients with cancer. The American Society of Hematology (ASH) Research Collaborative COVID-19 Registry for Hematologic Malignancy is doing the same but with a focus on hematologic malignancies.

This article first appeared on Medscape.com.

The American Society of Clinical Oncology (ASCO) has launched a registry to collect data on cancer patients with COVID-19 and is asking oncology practices across the United States to share information about their patients with the infection for educational purposes.

The new registry joins at least two other cancer and COVID-19 patient registries already underway in the U.S.

In a statement, ASCO President Howard “Skip” Burris III, MD said there is a need to know “how the virus is impacting our patients, their cancer treatment, and outcomes to inform current cancer care” and future care.

The web-based registry, known as the American Society of Clinical Oncology (ASCO) Survey on COVID-19 in Oncology Registry, is open to all U.S. oncology practices. Participating practices will receive an unspecified “nominal” payment for their data entry efforts.

The registry patient information will be stored on ASCO’s “Big Data” platform, known as CancerLinQ, but is being held apart from that pool of data. The registry information will not be available for commercial purposes, ASCO spokesperson Rachel Martin recently told Medscape Medical News.

Separately, CancerLinQ, which is a wholly owned subsidiary of ASCO, will continue to collect data from its participant oncology practices (as usual), including COVID-19 information.

CancerLinQ has been criticized by ethicists for allowing partner companies to sell access to its data (after stripping off patient identifiers), but without asking for patients’ permission, as reported last year by Medscape Medical News.

Eleven practices, including academic enterprises, have so far expressed interested in participating in the ASCO COVID-19 Registry.

Participating practices are requested to send in details about cancer patients with a confirmed COVID-19 diagnosis. As well as a baseline data capture form, they will need to provide details of subsequent status, treatment, and outcomes. Some patient-identifying data, including zip code, date of birth, gender, race, ethnicity, type of cancer, and comorbidities, will be collected for the purposes of analysis.

ASCO hopes to learn about characteristics of patients with cancer most impacted by COVID-19; estimates of disease severity; treatment modifications or delays; implementation of telemedicine in the cancer treatment setting; and clinical outcomes related to both COVID-19 and cancer.

ASCO says it will deliver periodic reports to the cancer community and the broader public on these and other “key learnings.” It also says that the registry is designed to capture point-in-time data as well as longitudinal data on how the virus will impact care and outcomes into 2021.

ASCO is not alone in its data collection efforts.

The COVID-19 and Cancer Consortium is already collecting information from more than 50 cancer centers and organizations on COVID-19 in patients with cancer. The American Society of Hematology (ASH) Research Collaborative COVID-19 Registry for Hematologic Malignancy is doing the same but with a focus on hematologic malignancies.

This article first appeared on Medscape.com.

The American Society of Clinical Oncology (ASCO) has launched a registry to collect data on cancer patients with COVID-19 and is asking oncology practices across the United States to share information about their patients with the infection for educational purposes.

The new registry joins at least two other cancer and COVID-19 patient registries already underway in the U.S.

In a statement, ASCO President Howard “Skip” Burris III, MD said there is a need to know “how the virus is impacting our patients, their cancer treatment, and outcomes to inform current cancer care” and future care.

The web-based registry, known as the American Society of Clinical Oncology (ASCO) Survey on COVID-19 in Oncology Registry, is open to all U.S. oncology practices. Participating practices will receive an unspecified “nominal” payment for their data entry efforts.

The registry patient information will be stored on ASCO’s “Big Data” platform, known as CancerLinQ, but is being held apart from that pool of data. The registry information will not be available for commercial purposes, ASCO spokesperson Rachel Martin recently told Medscape Medical News.

Separately, CancerLinQ, which is a wholly owned subsidiary of ASCO, will continue to collect data from its participant oncology practices (as usual), including COVID-19 information.

CancerLinQ has been criticized by ethicists for allowing partner companies to sell access to its data (after stripping off patient identifiers), but without asking for patients’ permission, as reported last year by Medscape Medical News.

Eleven practices, including academic enterprises, have so far expressed interested in participating in the ASCO COVID-19 Registry.

Participating practices are requested to send in details about cancer patients with a confirmed COVID-19 diagnosis. As well as a baseline data capture form, they will need to provide details of subsequent status, treatment, and outcomes. Some patient-identifying data, including zip code, date of birth, gender, race, ethnicity, type of cancer, and comorbidities, will be collected for the purposes of analysis.

ASCO hopes to learn about characteristics of patients with cancer most impacted by COVID-19; estimates of disease severity; treatment modifications or delays; implementation of telemedicine in the cancer treatment setting; and clinical outcomes related to both COVID-19 and cancer.

ASCO says it will deliver periodic reports to the cancer community and the broader public on these and other “key learnings.” It also says that the registry is designed to capture point-in-time data as well as longitudinal data on how the virus will impact care and outcomes into 2021.

ASCO is not alone in its data collection efforts.

The COVID-19 and Cancer Consortium is already collecting information from more than 50 cancer centers and organizations on COVID-19 in patients with cancer. The American Society of Hematology (ASH) Research Collaborative COVID-19 Registry for Hematologic Malignancy is doing the same but with a focus on hematologic malignancies.

This article first appeared on Medscape.com.

The Food and Drug Administration has approved selumetinib (Koselugo) for the treatment of pediatric patients aged 2 years and older with type 1 neurofibromatosis (NF1) with symptomatic, inoperable plexiform neurofibromas.

FDA approval was based on results from the phase 2 SPRINT Stratum 1 trial, in which 50 patients with NF1 received selumetinib as twice-daily oral monotherapy. Of this group, 33 (66%) patients had a partial response of at least a 20% reduction in tumor volume. There were no complete responses, according to a press release.

The most common adverse events were vomiting, rash, abdominal pain, diarrhea, nausea, dry skin, fatigue, musculoskeletal pain, pyrexia, rash acneiform, stomatitis, headache, paronychia, and pruritus. Dose interruptions, dose reductions, and permanent drug discontinuation occurred in 80%, 24%, and 12% of patients, respectively.

Serious adverse reactions included cardiomyopathy, ocular toxicity, gastrointestinal toxicity, increased creatinine phosphokinase, and increased vitamin E levels and risk of bleeding, according to the press release.

“Previously, there were no medicines approved for this disease. This approval has the potential to change how symptomatic, inoperable NF1 plexiform neurofibromas are treated and provides new hope to these patients,” Roy Baynes, MD, PhD, senior vice president, head of global clinical development, and chief medical officer of Merck Research Laboratories, said in the press release.

[email protected]

The Food and Drug Administration has approved selumetinib (Koselugo) for the treatment of pediatric patients aged 2 years and older with type 1 neurofibromatosis (NF1) with symptomatic, inoperable plexiform neurofibromas.

FDA approval was based on results from the phase 2 SPRINT Stratum 1 trial, in which 50 patients with NF1 received selumetinib as twice-daily oral monotherapy. Of this group, 33 (66%) patients had a partial response of at least a 20% reduction in tumor volume. There were no complete responses, according to a press release.

The most common adverse events were vomiting, rash, abdominal pain, diarrhea, nausea, dry skin, fatigue, musculoskeletal pain, pyrexia, rash acneiform, stomatitis, headache, paronychia, and pruritus. Dose interruptions, dose reductions, and permanent drug discontinuation occurred in 80%, 24%, and 12% of patients, respectively.

Serious adverse reactions included cardiomyopathy, ocular toxicity, gastrointestinal toxicity, increased creatinine phosphokinase, and increased vitamin E levels and risk of bleeding, according to the press release.

“Previously, there were no medicines approved for this disease. This approval has the potential to change how symptomatic, inoperable NF1 plexiform neurofibromas are treated and provides new hope to these patients,” Roy Baynes, MD, PhD, senior vice president, head of global clinical development, and chief medical officer of Merck Research Laboratories, said in the press release.

[email protected]

The Food and Drug Administration has approved selumetinib (Koselugo) for the treatment of pediatric patients aged 2 years and older with type 1 neurofibromatosis (NF1) with symptomatic, inoperable plexiform neurofibromas.

FDA approval was based on results from the phase 2 SPRINT Stratum 1 trial, in which 50 patients with NF1 received selumetinib as twice-daily oral monotherapy. Of this group, 33 (66%) patients had a partial response of at least a 20% reduction in tumor volume. There were no complete responses, according to a press release.

The most common adverse events were vomiting, rash, abdominal pain, diarrhea, nausea, dry skin, fatigue, musculoskeletal pain, pyrexia, rash acneiform, stomatitis, headache, paronychia, and pruritus. Dose interruptions, dose reductions, and permanent drug discontinuation occurred in 80%, 24%, and 12% of patients, respectively.

Serious adverse reactions included cardiomyopathy, ocular toxicity, gastrointestinal toxicity, increased creatinine phosphokinase, and increased vitamin E levels and risk of bleeding, according to the press release.

“Previously, there were no medicines approved for this disease. This approval has the potential to change how symptomatic, inoperable NF1 plexiform neurofibromas are treated and provides new hope to these patients,” Roy Baynes, MD, PhD, senior vice president, head of global clinical development, and chief medical officer of Merck Research Laboratories, said in the press release.

[email protected]

An early report pegged the prevalence of cancer among COVID-19 patients at 1%, but authors of a recent meta-analysis found an overall prevalence of 2% and up to 3% depending on the subset of data they reviewed.

However, those findings are limited by the retrospective nature of the studies published to date, according to the authors of the meta-analysis, led by Aakash Desai, MBBS, of the University of Connecticut, Farmington.

Nevertheless, the results do confirm that cancer patients and survivors are an important at-risk population for COVID-19, according to Dr. Desai and colleagues.

“We hope that additional data from China and Italy will provide information on the characteristics of patients with cancer at risk, types of cancer that confer higher risk, and systemic regimens that may increase COVID-19 infection complications,” the authors wrote in JCO Global Oncology.

More than 15 million individuals with cancer and many more cancer survivors are at increased risk of COVID-19 because of compromised immune systems, according to the authors.

Exactly how many individuals with cancer are among the COVID-19 cases remains unclear, though a previous report suggested the prevalence of cancer was 1% (95% confidence interval, 0.61%-1.65%) among COVID-19 patients in China (Lancet Oncol. 2020 Mar;21[3]:335-7). This “seems to be higher” than the 0.29% prevalence of cancer in the overall Chinese population, the investigators noted at the time.

That study revealed 18 cancer patients among 1,590 COVID-19 cases, though it was “hypothesis generating,” according to Dr. Desai and colleagues, who rolled that data into their meta-analysis of 11 reports including 3,661 COVID-19 cases.

Overall, Dr. Desai and colleagues found the pooled prevalence of cancer was 2.0% (95% CI, 2.0%-3.0%) in that population. In a subgroup analysis of five studies with sample sizes of less than 100 COVID-19 patients, the researchers found a “slightly higher” prevalence of 3.0% (95% CI, 1.0%-6.0%).

However, even that data wasn’t robust enough for Dr. Desai and colleagues to make any pronouncements on cancer prevalence. “Overall, current evidence on the association between cancer and COVID-19 remains inconclusive,” they wrote.

Though inconclusive, the findings raise questions about whether treatments or interventions might need to be postponed in certain patients, whether cancer patients and survivors need stronger personal protection, and how to deal with potential delays in cancer clinical trials, according to Dr. Desai and colleagues.

“As the evidence continues to rise, we must strive to answer the unanswered clinical questions,” the authors wrote.

Dr. Desai and colleagues reported no potential conflicts of interest related to the study.

SOURCE: Desai A et al. JCO Glob Oncol. 2020 Apr 6. doi: 10.1200/GO.20.00097.

An early report pegged the prevalence of cancer among COVID-19 patients at 1%, but authors of a recent meta-analysis found an overall prevalence of 2% and up to 3% depending on the subset of data they reviewed.

However, those findings are limited by the retrospective nature of the studies published to date, according to the authors of the meta-analysis, led by Aakash Desai, MBBS, of the University of Connecticut, Farmington.

Nevertheless, the results do confirm that cancer patients and survivors are an important at-risk population for COVID-19, according to Dr. Desai and colleagues.

“We hope that additional data from China and Italy will provide information on the characteristics of patients with cancer at risk, types of cancer that confer higher risk, and systemic regimens that may increase COVID-19 infection complications,” the authors wrote in JCO Global Oncology.

More than 15 million individuals with cancer and many more cancer survivors are at increased risk of COVID-19 because of compromised immune systems, according to the authors.

Exactly how many individuals with cancer are among the COVID-19 cases remains unclear, though a previous report suggested the prevalence of cancer was 1% (95% confidence interval, 0.61%-1.65%) among COVID-19 patients in China (Lancet Oncol. 2020 Mar;21[3]:335-7). This “seems to be higher” than the 0.29% prevalence of cancer in the overall Chinese population, the investigators noted at the time.

That study revealed 18 cancer patients among 1,590 COVID-19 cases, though it was “hypothesis generating,” according to Dr. Desai and colleagues, who rolled that data into their meta-analysis of 11 reports including 3,661 COVID-19 cases.

Overall, Dr. Desai and colleagues found the pooled prevalence of cancer was 2.0% (95% CI, 2.0%-3.0%) in that population. In a subgroup analysis of five studies with sample sizes of less than 100 COVID-19 patients, the researchers found a “slightly higher” prevalence of 3.0% (95% CI, 1.0%-6.0%).

However, even that data wasn’t robust enough for Dr. Desai and colleagues to make any pronouncements on cancer prevalence. “Overall, current evidence on the association between cancer and COVID-19 remains inconclusive,” they wrote.

Though inconclusive, the findings raise questions about whether treatments or interventions might need to be postponed in certain patients, whether cancer patients and survivors need stronger personal protection, and how to deal with potential delays in cancer clinical trials, according to Dr. Desai and colleagues.

“As the evidence continues to rise, we must strive to answer the unanswered clinical questions,” the authors wrote.

Dr. Desai and colleagues reported no potential conflicts of interest related to the study.

SOURCE: Desai A et al. JCO Glob Oncol. 2020 Apr 6. doi: 10.1200/GO.20.00097.

An early report pegged the prevalence of cancer among COVID-19 patients at 1%, but authors of a recent meta-analysis found an overall prevalence of 2% and up to 3% depending on the subset of data they reviewed.

However, those findings are limited by the retrospective nature of the studies published to date, according to the authors of the meta-analysis, led by Aakash Desai, MBBS, of the University of Connecticut, Farmington.

Nevertheless, the results do confirm that cancer patients and survivors are an important at-risk population for COVID-19, according to Dr. Desai and colleagues.

“We hope that additional data from China and Italy will provide information on the characteristics of patients with cancer at risk, types of cancer that confer higher risk, and systemic regimens that may increase COVID-19 infection complications,” the authors wrote in JCO Global Oncology.

More than 15 million individuals with cancer and many more cancer survivors are at increased risk of COVID-19 because of compromised immune systems, according to the authors.

Exactly how many individuals with cancer are among the COVID-19 cases remains unclear, though a previous report suggested the prevalence of cancer was 1% (95% confidence interval, 0.61%-1.65%) among COVID-19 patients in China (Lancet Oncol. 2020 Mar;21[3]:335-7). This “seems to be higher” than the 0.29% prevalence of cancer in the overall Chinese population, the investigators noted at the time.

That study revealed 18 cancer patients among 1,590 COVID-19 cases, though it was “hypothesis generating,” according to Dr. Desai and colleagues, who rolled that data into their meta-analysis of 11 reports including 3,661 COVID-19 cases.

Overall, Dr. Desai and colleagues found the pooled prevalence of cancer was 2.0% (95% CI, 2.0%-3.0%) in that population. In a subgroup analysis of five studies with sample sizes of less than 100 COVID-19 patients, the researchers found a “slightly higher” prevalence of 3.0% (95% CI, 1.0%-6.0%).

However, even that data wasn’t robust enough for Dr. Desai and colleagues to make any pronouncements on cancer prevalence. “Overall, current evidence on the association between cancer and COVID-19 remains inconclusive,” they wrote.

Though inconclusive, the findings raise questions about whether treatments or interventions might need to be postponed in certain patients, whether cancer patients and survivors need stronger personal protection, and how to deal with potential delays in cancer clinical trials, according to Dr. Desai and colleagues.

“As the evidence continues to rise, we must strive to answer the unanswered clinical questions,” the authors wrote.

Dr. Desai and colleagues reported no potential conflicts of interest related to the study.

SOURCE: Desai A et al. JCO Glob Oncol. 2020 Apr 6. doi: 10.1200/GO.20.00097.

EVIDENCE SUMMARY

A systematic review of 13 RCTs (5077 patients) compared the effects of a prophylactic antipyretic (acetaminophen or ibuprofen, doses and schedules not described) with placebo in healthy children 6 years or younger undergoing routine childhood immunizations.¹ Trials examined various schedules and combinations of vaccines. Researchers defined febrile reactions as a temperature of 38°C or higher and categorized pain as: none, mild (reaction to touch over vaccine site), moderate (protesting to limb movement), or severe (resisting limb movement).

Acetaminophen works better than ibuprofen for both fever and pain

Acetaminophen prophylaxis resulted in fewer febrile reactions in the first 24 to 48 hours after vaccine administration than placebo following both primary (odds ratio [OR] = 0.35; 95% confidence interval [CI], 0.26-0.48) and booster vaccinations (OR = 0.60; 95% CI, 0.39-0.93). Acetaminophen also reduced pain of all grades (primary vaccination: OR = 0.57; 95% CI, 0.47-0.7; booster vaccination: OR = 0.64; 95% CI, 0.48-0.84).

In contrast, ibuprofen prophylaxis had no effect on early febrile reactions for either primary or booster vaccinations. It reduced pain of all grades after primary vaccination (OR = 0.66; 95% CI, 0.49-0.88) but not after boosters (OR = 1.03; 95% CI, 0.59-1.81).

Reduced antibody response doesn’t affect seroprotective levels

Acetaminophen also generally reduced the antibody response compared with placebo (assessed using the geometric mean concentration [GMC], a statistical technique for comparing values that change logarithmically).¹ GMC results are difficult to interpret clinically, however, and they differed by vaccine, antigen, and primary or booster vaccination status.

Nevertheless, patients mounted seroprotective antibody levels with or without acetaminophen prophylaxis, and the nasopharyngeal carriage rates of Streptococcus pneumoniae and Haemophilus influenzae didn’t change. Researchers didn’t publish the antibody responses to ibuprofen, nor did they track actual infection rates.

How do antipyretics work with newer combination vaccines?

A subsequent trial evaluated the immune response in 908 children receiving newer combination vaccines (DTaP/HBV/IPV/Hib and PCV13) who were randomized to 5 groups: acetaminophen 15 mg/kg at vaccination and 6 to 8 hours later; acetaminophen 15 mg/kg starting 6 to 8 hours after vaccination with a second dose 6 to 8 hours later; ibuprofen 10 mg/kg/dose at vaccination with a second dose 6 to 8 hours later; ibuprofen 10 mg/kg starting 6 to 8 hours after vaccination with a second dose 6 to 8 hours later; and placebo.²

Patients received age-appropriate vaccination and their assigned antipyretic (or placebo) at 2, 3, 4 and 12 months of age. Researchers measured the immune response at 5 and 13 months of age.

Continue to: Overall, 5% to 10% of the prophylaxis group...

Overall, 5% to 10% of the prophylaxis group had fever on Day 1 or 2 after vaccination, compared with 10% to 20% of the placebo group (no P value given). Antipyretic use produced lower antibody GMC responses for antipertussis and antitetanus vaccines at 5 months but not at 13 months. Patients achieved the prespecified effective antibody levels at both 5 and 13 months, regardless of intervention.

Antipyretics don’t affect immune ­response with inactivated flu vaccine

A 2017 RCT investigated the effect of either prophylactic acetaminophen (15 mg/kg every 4 to 6 hours for 24 hours) or ibuprofen (10 mg/kg every 4 to 6 hours for 24 hours) on immune response in children receiving inactivated influenza vaccine.³ Researchers randomized 142 children into 3 treatment groups (acetaminophen, 59 children; ibuprofen, 24 children; placebo, 59 children). They defined seroconversion as a hemagglutinin inhibition assay titer of 1:40 postvaccination (if baseline titer was less than 1:10) or a 4-fold rise (if the baseline titer was ≥ 1:10).

Prophylactic acetaminophen reduces the odds of febrile reactions in the first 48 hours after vaccination by 40% to 65% and pain of all grades by 36% to 43%.

All interventions resulted in similar seroconversion rates for all A or B influenza strains investigated. Vaccine protection-level responses ranged from 9% for B/Phuket to 100% for A/Switzerland. The trial didn’t report febrile reactions or infection rates.

RECOMMENDATIONS

In 2017, the Advisory Committee on Immunization Practices (ACIP) issued guidelines generally discouraging the use of antipyretics at the time of vaccination, but allowing their use later for local discomfort or fever that might arise after vaccination. The guidelines also noted that antipyretics at the time of vaccination didn’t reduce the risk of febrile seizures.⁴

Editor’s takeaway

Although ACIP doesn’t encourage giving antipyretics with vaccines, moderate-quality evidence suggests that prophylactic acetaminophen reduces fever and pain after immunizations by a reasonable amount without an apparent clinical downside.

EVIDENCE SUMMARY

A systematic review of 13 RCTs (5077 patients) compared the effects of a prophylactic antipyretic (acetaminophen or ibuprofen, doses and schedules not described) with placebo in healthy children 6 years or younger undergoing routine childhood immunizations.¹ Trials examined various schedules and combinations of vaccines. Researchers defined febrile reactions as a temperature of 38°C or higher and categorized pain as: none, mild (reaction to touch over vaccine site), moderate (protesting to limb movement), or severe (resisting limb movement).

Acetaminophen works better than ibuprofen for both fever and pain

Acetaminophen prophylaxis resulted in fewer febrile reactions in the first 24 to 48 hours after vaccine administration than placebo following both primary (odds ratio [OR] = 0.35; 95% confidence interval [CI], 0.26-0.48) and booster vaccinations (OR = 0.60; 95% CI, 0.39-0.93). Acetaminophen also reduced pain of all grades (primary vaccination: OR = 0.57; 95% CI, 0.47-0.7; booster vaccination: OR = 0.64; 95% CI, 0.48-0.84).

In contrast, ibuprofen prophylaxis had no effect on early febrile reactions for either primary or booster vaccinations. It reduced pain of all grades after primary vaccination (OR = 0.66; 95% CI, 0.49-0.88) but not after boosters (OR = 1.03; 95% CI, 0.59-1.81).

Reduced antibody response doesn’t affect seroprotective levels

Acetaminophen also generally reduced the antibody response compared with placebo (assessed using the geometric mean concentration [GMC], a statistical technique for comparing values that change logarithmically).¹ GMC results are difficult to interpret clinically, however, and they differed by vaccine, antigen, and primary or booster vaccination status.

Nevertheless, patients mounted seroprotective antibody levels with or without acetaminophen prophylaxis, and the nasopharyngeal carriage rates of Streptococcus pneumoniae and Haemophilus influenzae didn’t change. Researchers didn’t publish the antibody responses to ibuprofen, nor did they track actual infection rates.

How do antipyretics work with newer combination vaccines?

A subsequent trial evaluated the immune response in 908 children receiving newer combination vaccines (DTaP/HBV/IPV/Hib and PCV13) who were randomized to 5 groups: acetaminophen 15 mg/kg at vaccination and 6 to 8 hours later; acetaminophen 15 mg/kg starting 6 to 8 hours after vaccination with a second dose 6 to 8 hours later; ibuprofen 10 mg/kg/dose at vaccination with a second dose 6 to 8 hours later; ibuprofen 10 mg/kg starting 6 to 8 hours after vaccination with a second dose 6 to 8 hours later; and placebo.²

Patients received age-appropriate vaccination and their assigned antipyretic (or placebo) at 2, 3, 4 and 12 months of age. Researchers measured the immune response at 5 and 13 months of age.

Continue to: Overall, 5% to 10% of the prophylaxis group...

Overall, 5% to 10% of the prophylaxis group had fever on Day 1 or 2 after vaccination, compared with 10% to 20% of the placebo group (no P value given). Antipyretic use produced lower antibody GMC responses for antipertussis and antitetanus vaccines at 5 months but not at 13 months. Patients achieved the prespecified effective antibody levels at both 5 and 13 months, regardless of intervention.

Antipyretics don’t affect immune ­response with inactivated flu vaccine

A 2017 RCT investigated the effect of either prophylactic acetaminophen (15 mg/kg every 4 to 6 hours for 24 hours) or ibuprofen (10 mg/kg every 4 to 6 hours for 24 hours) on immune response in children receiving inactivated influenza vaccine.³ Researchers randomized 142 children into 3 treatment groups (acetaminophen, 59 children; ibuprofen, 24 children; placebo, 59 children). They defined seroconversion as a hemagglutinin inhibition assay titer of 1:40 postvaccination (if baseline titer was less than 1:10) or a 4-fold rise (if the baseline titer was ≥ 1:10).

Prophylactic acetaminophen reduces the odds of febrile reactions in the first 48 hours after vaccination by 40% to 65% and pain of all grades by 36% to 43%.

All interventions resulted in similar seroconversion rates for all A or B influenza strains investigated. Vaccine protection-level responses ranged from 9% for B/Phuket to 100% for A/Switzerland. The trial didn’t report febrile reactions or infection rates.

RECOMMENDATIONS

In 2017, the Advisory Committee on Immunization Practices (ACIP) issued guidelines generally discouraging the use of antipyretics at the time of vaccination, but allowing their use later for local discomfort or fever that might arise after vaccination. The guidelines also noted that antipyretics at the time of vaccination didn’t reduce the risk of febrile seizures.⁴

Editor’s takeaway

Although ACIP doesn’t encourage giving antipyretics with vaccines, moderate-quality evidence suggests that prophylactic acetaminophen reduces fever and pain after immunizations by a reasonable amount without an apparent clinical downside.

EVIDENCE SUMMARY

A systematic review of 13 RCTs (5077 patients) compared the effects of a prophylactic antipyretic (acetaminophen or ibuprofen, doses and schedules not described) with placebo in healthy children 6 years or younger undergoing routine childhood immunizations.¹ Trials examined various schedules and combinations of vaccines. Researchers defined febrile reactions as a temperature of 38°C or higher and categorized pain as: none, mild (reaction to touch over vaccine site), moderate (protesting to limb movement), or severe (resisting limb movement).

Acetaminophen works better than ibuprofen for both fever and pain

Acetaminophen prophylaxis resulted in fewer febrile reactions in the first 24 to 48 hours after vaccine administration than placebo following both primary (odds ratio [OR] = 0.35; 95% confidence interval [CI], 0.26-0.48) and booster vaccinations (OR = 0.60; 95% CI, 0.39-0.93). Acetaminophen also reduced pain of all grades (primary vaccination: OR = 0.57; 95% CI, 0.47-0.7; booster vaccination: OR = 0.64; 95% CI, 0.48-0.84).

In contrast, ibuprofen prophylaxis had no effect on early febrile reactions for either primary or booster vaccinations. It reduced pain of all grades after primary vaccination (OR = 0.66; 95% CI, 0.49-0.88) but not after boosters (OR = 1.03; 95% CI, 0.59-1.81).

Reduced antibody response doesn’t affect seroprotective levels

Acetaminophen also generally reduced the antibody response compared with placebo (assessed using the geometric mean concentration [GMC], a statistical technique for comparing values that change logarithmically).¹ GMC results are difficult to interpret clinically, however, and they differed by vaccine, antigen, and primary or booster vaccination status.

Nevertheless, patients mounted seroprotective antibody levels with or without acetaminophen prophylaxis, and the nasopharyngeal carriage rates of Streptococcus pneumoniae and Haemophilus influenzae didn’t change. Researchers didn’t publish the antibody responses to ibuprofen, nor did they track actual infection rates.

How do antipyretics work with newer combination vaccines?

A subsequent trial evaluated the immune response in 908 children receiving newer combination vaccines (DTaP/HBV/IPV/Hib and PCV13) who were randomized to 5 groups: acetaminophen 15 mg/kg at vaccination and 6 to 8 hours later; acetaminophen 15 mg/kg starting 6 to 8 hours after vaccination with a second dose 6 to 8 hours later; ibuprofen 10 mg/kg/dose at vaccination with a second dose 6 to 8 hours later; ibuprofen 10 mg/kg starting 6 to 8 hours after vaccination with a second dose 6 to 8 hours later; and placebo.²

Patients received age-appropriate vaccination and their assigned antipyretic (or placebo) at 2, 3, 4 and 12 months of age. Researchers measured the immune response at 5 and 13 months of age.

Continue to: Overall, 5% to 10% of the prophylaxis group...

Overall, 5% to 10% of the prophylaxis group had fever on Day 1 or 2 after vaccination, compared with 10% to 20% of the placebo group (no P value given). Antipyretic use produced lower antibody GMC responses for antipertussis and antitetanus vaccines at 5 months but not at 13 months. Patients achieved the prespecified effective antibody levels at both 5 and 13 months, regardless of intervention.

Antipyretics don’t affect immune ­response with inactivated flu vaccine

A 2017 RCT investigated the effect of either prophylactic acetaminophen (15 mg/kg every 4 to 6 hours for 24 hours) or ibuprofen (10 mg/kg every 4 to 6 hours for 24 hours) on immune response in children receiving inactivated influenza vaccine.³ Researchers randomized 142 children into 3 treatment groups (acetaminophen, 59 children; ibuprofen, 24 children; placebo, 59 children). They defined seroconversion as a hemagglutinin inhibition assay titer of 1:40 postvaccination (if baseline titer was less than 1:10) or a 4-fold rise (if the baseline titer was ≥ 1:10).

Prophylactic acetaminophen reduces the odds of febrile reactions in the first 48 hours after vaccination by 40% to 65% and pain of all grades by 36% to 43%.

All interventions resulted in similar seroconversion rates for all A or B influenza strains investigated. Vaccine protection-level responses ranged from 9% for B/Phuket to 100% for A/Switzerland. The trial didn’t report febrile reactions or infection rates.

RECOMMENDATIONS

In 2017, the Advisory Committee on Immunization Practices (ACIP) issued guidelines generally discouraging the use of antipyretics at the time of vaccination, but allowing their use later for local discomfort or fever that might arise after vaccination. The guidelines also noted that antipyretics at the time of vaccination didn’t reduce the risk of febrile seizures.⁴

Editor’s takeaway

Although ACIP doesn’t encourage giving antipyretics with vaccines, moderate-quality evidence suggests that prophylactic acetaminophen reduces fever and pain after immunizations by a reasonable amount without an apparent clinical downside.

Negative cardiovascular health indicators were found to be higher in children with hemophilia A, compared with healthy children, according to a small research study.

Thinkstock

Biochemical, imaging, and metabolic analyses were performed to compare 17 boys with severe hemophilia A to 23 healthy boys designated as controls.

The myocardial performance index (MPI) was evaluated using tissue Doppler echocardiography. In addition, peripheral and central blood pressure and arterial stiffness were assessed, as were carotid intima–media thicknesses (CIMTs), serum glucose, insulin, insulin resistance, and lipoprotein levels.

Increased MPI is considered an indicator of global deterioration in myocardial functions.

There were no differences between the two groups in terms of age and biochemical parameters, according to the researchers. There were also no significant differences found between the groups in terms of CIMT, peripheral blood pressure, and central systolic blood pressure.

However, the HDL cholesterol levels in the hemophilia group were significantly lower than those in the control group (P < .05). Five of the hemophilia patients had insulin resistance (29.4%), whereas four had low HDL cholesterol levels (23.5%).

The researchers found that the MPI values in the hemophilia group were higher than those in the control group (0.41 vs. 0.34; P = .004). In addition, left ventricle ejection time (ET), which is a predictor of mortality in heart failure and ischemic heart disease, was shorter in the hemophilia group than it was in the control group (266.6 vs. 284.4; P = .014).

As arterial stiffness increases, ejection time decreases owing to the deteriorating myocardial systolic functions, and it has also been reported in the literature that arterial stiffness affects left ventricular systolic functions, according to the authors.

“Arterial stiffness and high [central diastolic blood pressure] developing in patients with severe hemophilia A since their childhood are important risk factors for coronary artery diseases. Predisposition to dyslipidemia and [insulin resistance] noted in the hemophilia group also negatively contributes to this process. Adolescent patients with hemophilia should be monitored for hypertension, obesity, dyslipidemia, and [insulin resistance],” the authors concluded.

The study received no external funding. The authors did not report disclosures.

[email protected]

SOURCE: Özdemir ZC et al. Thrombosis Res. 2020;189:102-7.

Negative cardiovascular health indicators were found to be higher in children with hemophilia A, compared with healthy children, according to a small research study.

Thinkstock

Biochemical, imaging, and metabolic analyses were performed to compare 17 boys with severe hemophilia A to 23 healthy boys designated as controls.

The myocardial performance index (MPI) was evaluated using tissue Doppler echocardiography. In addition, peripheral and central blood pressure and arterial stiffness were assessed, as were carotid intima–media thicknesses (CIMTs), serum glucose, insulin, insulin resistance, and lipoprotein levels.

Increased MPI is considered an indicator of global deterioration in myocardial functions.

There were no differences between the two groups in terms of age and biochemical parameters, according to the researchers. There were also no significant differences found between the groups in terms of CIMT, peripheral blood pressure, and central systolic blood pressure.

However, the HDL cholesterol levels in the hemophilia group were significantly lower than those in the control group (P < .05). Five of the hemophilia patients had insulin resistance (29.4%), whereas four had low HDL cholesterol levels (23.5%).

The researchers found that the MPI values in the hemophilia group were higher than those in the control group (0.41 vs. 0.34; P = .004). In addition, left ventricle ejection time (ET), which is a predictor of mortality in heart failure and ischemic heart disease, was shorter in the hemophilia group than it was in the control group (266.6 vs. 284.4; P = .014).

As arterial stiffness increases, ejection time decreases owing to the deteriorating myocardial systolic functions, and it has also been reported in the literature that arterial stiffness affects left ventricular systolic functions, according to the authors.

“Arterial stiffness and high [central diastolic blood pressure] developing in patients with severe hemophilia A since their childhood are important risk factors for coronary artery diseases. Predisposition to dyslipidemia and [insulin resistance] noted in the hemophilia group also negatively contributes to this process. Adolescent patients with hemophilia should be monitored for hypertension, obesity, dyslipidemia, and [insulin resistance],” the authors concluded.

The study received no external funding. The authors did not report disclosures.

[email protected]

SOURCE: Özdemir ZC et al. Thrombosis Res. 2020;189:102-7.

Negative cardiovascular health indicators were found to be higher in children with hemophilia A, compared with healthy children, according to a small research study.

Thinkstock

Biochemical, imaging, and metabolic analyses were performed to compare 17 boys with severe hemophilia A to 23 healthy boys designated as controls.

The myocardial performance index (MPI) was evaluated using tissue Doppler echocardiography. In addition, peripheral and central blood pressure and arterial stiffness were assessed, as were carotid intima–media thicknesses (CIMTs), serum glucose, insulin, insulin resistance, and lipoprotein levels.

Increased MPI is considered an indicator of global deterioration in myocardial functions.

There were no differences between the two groups in terms of age and biochemical parameters, according to the researchers. There were also no significant differences found between the groups in terms of CIMT, peripheral blood pressure, and central systolic blood pressure.

However, the HDL cholesterol levels in the hemophilia group were significantly lower than those in the control group (P < .05). Five of the hemophilia patients had insulin resistance (29.4%), whereas four had low HDL cholesterol levels (23.5%).

The researchers found that the MPI values in the hemophilia group were higher than those in the control group (0.41 vs. 0.34; P = .004). In addition, left ventricle ejection time (ET), which is a predictor of mortality in heart failure and ischemic heart disease, was shorter in the hemophilia group than it was in the control group (266.6 vs. 284.4; P = .014).

As arterial stiffness increases, ejection time decreases owing to the deteriorating myocardial systolic functions, and it has also been reported in the literature that arterial stiffness affects left ventricular systolic functions, according to the authors.

“Arterial stiffness and high [central diastolic blood pressure] developing in patients with severe hemophilia A since their childhood are important risk factors for coronary artery diseases. Predisposition to dyslipidemia and [insulin resistance] noted in the hemophilia group also negatively contributes to this process. Adolescent patients with hemophilia should be monitored for hypertension, obesity, dyslipidemia, and [insulin resistance],” the authors concluded.

The study received no external funding. The authors did not report disclosures.

[email protected]

SOURCE: Özdemir ZC et al. Thrombosis Res. 2020;189:102-7.

Given the possibility that children with hematologic malignancies may have increased susceptibility to coronavirus disease 2019 (COVID-19), clinicians from China and the United States have proposed a plan for preventing and managing outbreaks in hospitals’ pediatric hematology and oncology departments.

The plan is focused primarily on infection prevention and control strategies, Yulei He, MD, of Chengdu (China) Women’s and Children’s Central Hospital and colleagues explained in an article published in The Lancet Haematology.

The authors noted that close contact with COVID-19 patients is thought to be the main route of transmission, and a retrospective study indicated that 41.3% of initial COVID-19 cases were caused by hospital-related transmission.

“Children with hematological malignancies might have increased susceptibility to infection with SARS-CoV-2 because of immunodeficiency; therefore, procedures are needed to avoid hospital-related transmission and infection for these patients,” the authors wrote.
 

Preventing the spread of infection

Dr. He and colleagues advised that medical staff be kept up-to-date with the latest information about COVID-19 and perform assessments regularly to identify cases in their departments.

The authors also recommended establishing a COVID-19 expert committee – consisting of infectious disease physicians, hematologists, oncologists, radiologists, pharmacists, and hospital infection control staff – to make medical decisions in multidisciplinary consultation meetings. In addition, the authors recommended regional management strategies be adopted to minimize cross infection within the hospital. Specifically, the authors proposed creating the following four zones:

1. A surveillance and screening zone for patients potentially infected with SARS-CoV-2

2. A suspected-case quarantine zone where patients thought to have COVID-19 are isolated in single rooms

3. A confirmed-case quarantine zone where patients are treated for COVID-19

4. A hematology/oncology ward for treating non–COVID-19 patients with malignancies.

Dr. He and colleagues also stressed the importance of providing personal protective equipment for all zones, along with instructions for proper use and disposal. The authors recommended developing and following specific protocols for outpatient visits in the hematology/oncology ward, and providing COVID-19 prevention and control information to families and health care workers.
 

Managing cancer treatment

For patients with acute leukemias who have induction chemotherapy planned, Dr. He and colleagues argued that scheduled chemotherapy should not be interrupted unless COVID-19 is suspected or diagnosed. The authors said treatment should not be delayed more than 7 days during induction, consolidation, or the intermediate phase of chemotherapy because the virus has an incubation period of 2-7 days. This will allow a short period of observation to screen for potential infection.

The authors recommended that patients with lymphoma and solid tumors first undergo COVID-19 screening and then receive treatment in hematology/oncology wards “according to their chemotherapy schedule, and without delay, until they are in complete remission.”

“If the patient is in complete remission, we recommend a treatment delay of no more than 7 days to allow a short period of observation to screen for COVID-19,” the authors added.

Maintenance chemotherapy should not be delayed for more than 14 days, Dr. He and colleagues wrote. “This increase in the maximum delay before chemotherapy strikes a balance between the potential risk of SARS-CoV-2 infection and tumor recurrence, since pediatric patients in this phase of treatment have a reduced risk of tumor recurrence,” the authors added.
 

Caring for patients with COVID-19

For inpatients diagnosed with COVID-19, Dr. He and colleagues recommended the following:

• Prioritize COVID-19 treatment for children with primary disease remission.
• For children not in remission, prioritize treatment for critical patients.
• Isolated patients should be treated for COVID-19, and their chemotherapy should be temporarily suspended or reduced in intensity..

Dr. He and colleagues noted that, by following these recommendations for infection prevention, they had no cases of COVID-19 among children in their hematology/oncology departments. However, the authors said the recommendations “could fail to some extent” based on “differences in medical resources, health care settings, and the policy of the specific government.”

The authors said their recommendations should be updated continuously as new information and clinical evidence emerges.

Dr. He and colleagues reported having no conflicts of interest.

[email protected]

SOURCE: He Y et al. Lancet Haematol. doi: 10/1016/s2352-3026(20)30104-6.

Given the possibility that children with hematologic malignancies may have increased susceptibility to coronavirus disease 2019 (COVID-19), clinicians from China and the United States have proposed a plan for preventing and managing outbreaks in hospitals’ pediatric hematology and oncology departments.

The plan is focused primarily on infection prevention and control strategies, Yulei He, MD, of Chengdu (China) Women’s and Children’s Central Hospital and colleagues explained in an article published in The Lancet Haematology.

The authors noted that close contact with COVID-19 patients is thought to be the main route of transmission, and a retrospective study indicated that 41.3% of initial COVID-19 cases were caused by hospital-related transmission.

“Children with hematological malignancies might have increased susceptibility to infection with SARS-CoV-2 because of immunodeficiency; therefore, procedures are needed to avoid hospital-related transmission and infection for these patients,” the authors wrote.
 

Preventing the spread of infection

Dr. He and colleagues advised that medical staff be kept up-to-date with the latest information about COVID-19 and perform assessments regularly to identify cases in their departments.

The authors also recommended establishing a COVID-19 expert committee – consisting of infectious disease physicians, hematologists, oncologists, radiologists, pharmacists, and hospital infection control staff – to make medical decisions in multidisciplinary consultation meetings. In addition, the authors recommended regional management strategies be adopted to minimize cross infection within the hospital. Specifically, the authors proposed creating the following four zones:

1. A surveillance and screening zone for patients potentially infected with SARS-CoV-2

2. A suspected-case quarantine zone where patients thought to have COVID-19 are isolated in single rooms

3. A confirmed-case quarantine zone where patients are treated for COVID-19

4. A hematology/oncology ward for treating non–COVID-19 patients with malignancies.

Dr. He and colleagues also stressed the importance of providing personal protective equipment for all zones, along with instructions for proper use and disposal. The authors recommended developing and following specific protocols for outpatient visits in the hematology/oncology ward, and providing COVID-19 prevention and control information to families and health care workers.
 

Managing cancer treatment

For patients with acute leukemias who have induction chemotherapy planned, Dr. He and colleagues argued that scheduled chemotherapy should not be interrupted unless COVID-19 is suspected or diagnosed. The authors said treatment should not be delayed more than 7 days during induction, consolidation, or the intermediate phase of chemotherapy because the virus has an incubation period of 2-7 days. This will allow a short period of observation to screen for potential infection.

The authors recommended that patients with lymphoma and solid tumors first undergo COVID-19 screening and then receive treatment in hematology/oncology wards “according to their chemotherapy schedule, and without delay, until they are in complete remission.”

“If the patient is in complete remission, we recommend a treatment delay of no more than 7 days to allow a short period of observation to screen for COVID-19,” the authors added.

Maintenance chemotherapy should not be delayed for more than 14 days, Dr. He and colleagues wrote. “This increase in the maximum delay before chemotherapy strikes a balance between the potential risk of SARS-CoV-2 infection and tumor recurrence, since pediatric patients in this phase of treatment have a reduced risk of tumor recurrence,” the authors added.
 

Caring for patients with COVID-19

For inpatients diagnosed with COVID-19, Dr. He and colleagues recommended the following:

• Prioritize COVID-19 treatment for children with primary disease remission.
• For children not in remission, prioritize treatment for critical patients.
• Isolated patients should be treated for COVID-19, and their chemotherapy should be temporarily suspended or reduced in intensity..

Dr. He and colleagues noted that, by following these recommendations for infection prevention, they had no cases of COVID-19 among children in their hematology/oncology departments. However, the authors said the recommendations “could fail to some extent” based on “differences in medical resources, health care settings, and the policy of the specific government.”

The authors said their recommendations should be updated continuously as new information and clinical evidence emerges.

Dr. He and colleagues reported having no conflicts of interest.

[email protected]

SOURCE: He Y et al. Lancet Haematol. doi: 10/1016/s2352-3026(20)30104-6.

Given the possibility that children with hematologic malignancies may have increased susceptibility to coronavirus disease 2019 (COVID-19), clinicians from China and the United States have proposed a plan for preventing and managing outbreaks in hospitals’ pediatric hematology and oncology departments.

The plan is focused primarily on infection prevention and control strategies, Yulei He, MD, of Chengdu (China) Women’s and Children’s Central Hospital and colleagues explained in an article published in The Lancet Haematology.

The authors noted that close contact with COVID-19 patients is thought to be the main route of transmission, and a retrospective study indicated that 41.3% of initial COVID-19 cases were caused by hospital-related transmission.

“Children with hematological malignancies might have increased susceptibility to infection with SARS-CoV-2 because of immunodeficiency; therefore, procedures are needed to avoid hospital-related transmission and infection for these patients,” the authors wrote.
 

Preventing the spread of infection

Dr. He and colleagues advised that medical staff be kept up-to-date with the latest information about COVID-19 and perform assessments regularly to identify cases in their departments.

The authors also recommended establishing a COVID-19 expert committee – consisting of infectious disease physicians, hematologists, oncologists, radiologists, pharmacists, and hospital infection control staff – to make medical decisions in multidisciplinary consultation meetings. In addition, the authors recommended regional management strategies be adopted to minimize cross infection within the hospital. Specifically, the authors proposed creating the following four zones:

1. A surveillance and screening zone for patients potentially infected with SARS-CoV-2

2. A suspected-case quarantine zone where patients thought to have COVID-19 are isolated in single rooms

3. A confirmed-case quarantine zone where patients are treated for COVID-19

4. A hematology/oncology ward for treating non–COVID-19 patients with malignancies.

Dr. He and colleagues also stressed the importance of providing personal protective equipment for all zones, along with instructions for proper use and disposal. The authors recommended developing and following specific protocols for outpatient visits in the hematology/oncology ward, and providing COVID-19 prevention and control information to families and health care workers.
 

Managing cancer treatment

For patients with acute leukemias who have induction chemotherapy planned, Dr. He and colleagues argued that scheduled chemotherapy should not be interrupted unless COVID-19 is suspected or diagnosed. The authors said treatment should not be delayed more than 7 days during induction, consolidation, or the intermediate phase of chemotherapy because the virus has an incubation period of 2-7 days. This will allow a short period of observation to screen for potential infection.

The authors recommended that patients with lymphoma and solid tumors first undergo COVID-19 screening and then receive treatment in hematology/oncology wards “according to their chemotherapy schedule, and without delay, until they are in complete remission.”

“If the patient is in complete remission, we recommend a treatment delay of no more than 7 days to allow a short period of observation to screen for COVID-19,” the authors added.

Maintenance chemotherapy should not be delayed for more than 14 days, Dr. He and colleagues wrote. “This increase in the maximum delay before chemotherapy strikes a balance between the potential risk of SARS-CoV-2 infection and tumor recurrence, since pediatric patients in this phase of treatment have a reduced risk of tumor recurrence,” the authors added.
 

Caring for patients with COVID-19

For inpatients diagnosed with COVID-19, Dr. He and colleagues recommended the following:

• Prioritize COVID-19 treatment for children with primary disease remission.
• For children not in remission, prioritize treatment for critical patients.
• Isolated patients should be treated for COVID-19, and their chemotherapy should be temporarily suspended or reduced in intensity..

Dr. He and colleagues noted that, by following these recommendations for infection prevention, they had no cases of COVID-19 among children in their hematology/oncology departments. However, the authors said the recommendations “could fail to some extent” based on “differences in medical resources, health care settings, and the policy of the specific government.”

The authors said their recommendations should be updated continuously as new information and clinical evidence emerges.

Dr. He and colleagues reported having no conflicts of interest.

[email protected]

SOURCE: He Y et al. Lancet Haematol. doi: 10/1016/s2352-3026(20)30104-6.