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Family handgun ownership linked to young children’s gun deaths
A recent increase in U.S. handgun ownership among white families tracks with a similar trend of recently rising gun deaths among young white children, a new study found. This association held even after adjustments for multiple sociodemographic variables that research previously had linked to higher gun ownership and higher firearm mortality.
“Indeed, firearm ownership, generally, was positively associated with firearm-related mortality among 1- to 5-year-old white children, but this correlation was primarily driven by changes in the proportion of families who owned handguns: firearms more often stored unsecured and loaded,” wrote Kate C. Prickett, PhD, of the Victoria University of Wellington (New Zealand) and her associates in Pediatrics.
“These findings suggest that ease of access and use may be an important consideration when examining firearm-related fatality risk among young children,” they continued. Given the lack of attenuation in the relationship from controlling for sociodemographic variables, they add, “this finding is in line with research documenting that the presence of a firearm in the home matters above and beyond other risk factors associated with child injury.”
Even though U.S. gun ownership and pediatric firearm mortality overall have been dropping over the past several decades, the latter has stagnated recently, and gun deaths among children aged 1-4 years nearly doubled between 2006-2016, the researchers noted.
Given the counterintuitive increase in young children’s gun deaths while overall gun ownership kept dropping, the researchers took a closer look at the relationship between gun deaths among children aged 1-5 years and specific types of firearm ownership among families with children under age 5 years in the home. They relied on household data from the nationally representative General Social Survey and on fatality statistics from the National Vital Statistics System from 1976-2016.
Over those 4 decades, gun ownership in white families with small children decreased from 50% to 45% and in black families with small children from 38% to 6%.
Simultaneously, however, handgun ownership increased from 25% to 32% among white families with young children. In fact, most firearm-owning white families (72%) owned a handgun in 2016 while rifle ownership had declined substantially.
Meanwhile, “firearm-related mortality rate among young white children declined from historic highs in the late 1970s to early 1980s until 2001,” the authors reported. “After 2004, however, the mortality rate began to rise, reaching mid-1980s levels.” Further, gun deaths constituted 2% of young children’s injury deaths in 1976 but nearly 5% in 2016.
When the researchers compared these findings, they found a positive, significant association between white child firearm mortality and the proportion of white families who owned a handgun but not a rifle or shotgun.
The association remained after the researchers adjusted for several covariates already established in the evidence base to have associations with firearm ownership, child injury risk and/or firearm mortality: living in a rural area, living in the South, neither parent having a college degree, and a household income in the bottom quartile nationally. In addition, “the annual national unemployment rate by race was included as an indicator of the broader economic context,” the authors wrote.
Although young black children die from guns nearly three times more frequently than white children, the authors were unable to present detailed findings on associations with gun ownership because of small sample sizes. They noted, however, that handgun ownership actually declined during the study period from 15% to 6% in black families with young children.
The researchers concluded that the recent increase in young children’s gun deaths may be partly driven by an increase in handgun ownership, even as overall gun ownership (primarily rifles and shotguns) has continued dropping.
“For young children, shootings are more likely to be unintentional, making the ease at which firearms can be accessed and used a more important determinant of mortality than perhaps for older children,” the authors wrote. “Moreover, relative to other firearms like hunting rifles, handguns, because they are more likely to be purchased for personal protection, are more likely to be stored loaded with ammunition, unlocked, and in a more easily accessible place, such as a bedroom drawer.”
The research was funded by the National Institute of Child Health and Human Development. The authors reported having no conflicts of interest.
SOURCE: Prickett KC et al. Pediatrics. 2019;143(2):e20181171.
The “unique and important approach” used by Prickett et al. to investigate an association between gun ownership and children’s gun deaths is “novel” because of their focus on firearm types and the youngest children, wrote Shilpa J. Patel, MD; Monika K. Goyal, MD; and Kavita Parikh, MD, all with the Children’s National Health System in Washington, DC, in an editorial published with the study (Pediatrics. 2018 Jan 28. doi: 10.1542/peds.2018-3611).
The findings are particularly relevant to pediatricians’ conversations with families about safe firearm storage practices. The American Academy of Pediatrics recommends all firearms are stored locked and unloaded with ammunition stored separately.
For families who find these guidelines difficult because they keep handguns at the ready for protection, “it is important to note that the risk of unintentional or intentional injury from a household firearm is much greater than the likelihood of providing protection for self-defense,” the editorial’s authors wrote. But they advocate for personalized safe storage strategies and shared decision making based on families’ needs and values.
“This study is a loud and compelling call to action for all pediatricians to start open discussions around firearm ownership with all families and to share data on the significant risks associated with unsafe storage,” they wrote. “It is an even louder call to firearm manufacturers to step up and innovate, test, and design smart handguns that are inoperable by young children to prevent unintentional injury.”
Although having no firearms in the home is the most effective way to reduce children’s risk of gun-related injuries and deaths, developing effective safety controls on guns could also substantially curtail young children’s gun deaths. “We as a society should be advocating for continued research to childproof firearms so that if families choose to have firearms in the home, the safety of their children is not compromised,” they wrote.
Dr. Parikh is a hospitalist, Dr. Goyal is assistant division chief or emergency medicine, and Dr. Patel is an emergency medicine specialist, all with Children’s National Health System in Washington, DC. They reported no funding and no disclosures.
The “unique and important approach” used by Prickett et al. to investigate an association between gun ownership and children’s gun deaths is “novel” because of their focus on firearm types and the youngest children, wrote Shilpa J. Patel, MD; Monika K. Goyal, MD; and Kavita Parikh, MD, all with the Children’s National Health System in Washington, DC, in an editorial published with the study (Pediatrics. 2018 Jan 28. doi: 10.1542/peds.2018-3611).
The findings are particularly relevant to pediatricians’ conversations with families about safe firearm storage practices. The American Academy of Pediatrics recommends all firearms are stored locked and unloaded with ammunition stored separately.
For families who find these guidelines difficult because they keep handguns at the ready for protection, “it is important to note that the risk of unintentional or intentional injury from a household firearm is much greater than the likelihood of providing protection for self-defense,” the editorial’s authors wrote. But they advocate for personalized safe storage strategies and shared decision making based on families’ needs and values.
“This study is a loud and compelling call to action for all pediatricians to start open discussions around firearm ownership with all families and to share data on the significant risks associated with unsafe storage,” they wrote. “It is an even louder call to firearm manufacturers to step up and innovate, test, and design smart handguns that are inoperable by young children to prevent unintentional injury.”
Although having no firearms in the home is the most effective way to reduce children’s risk of gun-related injuries and deaths, developing effective safety controls on guns could also substantially curtail young children’s gun deaths. “We as a society should be advocating for continued research to childproof firearms so that if families choose to have firearms in the home, the safety of their children is not compromised,” they wrote.
Dr. Parikh is a hospitalist, Dr. Goyal is assistant division chief or emergency medicine, and Dr. Patel is an emergency medicine specialist, all with Children’s National Health System in Washington, DC. They reported no funding and no disclosures.
The “unique and important approach” used by Prickett et al. to investigate an association between gun ownership and children’s gun deaths is “novel” because of their focus on firearm types and the youngest children, wrote Shilpa J. Patel, MD; Monika K. Goyal, MD; and Kavita Parikh, MD, all with the Children’s National Health System in Washington, DC, in an editorial published with the study (Pediatrics. 2018 Jan 28. doi: 10.1542/peds.2018-3611).
The findings are particularly relevant to pediatricians’ conversations with families about safe firearm storage practices. The American Academy of Pediatrics recommends all firearms are stored locked and unloaded with ammunition stored separately.
For families who find these guidelines difficult because they keep handguns at the ready for protection, “it is important to note that the risk of unintentional or intentional injury from a household firearm is much greater than the likelihood of providing protection for self-defense,” the editorial’s authors wrote. But they advocate for personalized safe storage strategies and shared decision making based on families’ needs and values.
“This study is a loud and compelling call to action for all pediatricians to start open discussions around firearm ownership with all families and to share data on the significant risks associated with unsafe storage,” they wrote. “It is an even louder call to firearm manufacturers to step up and innovate, test, and design smart handguns that are inoperable by young children to prevent unintentional injury.”
Although having no firearms in the home is the most effective way to reduce children’s risk of gun-related injuries and deaths, developing effective safety controls on guns could also substantially curtail young children’s gun deaths. “We as a society should be advocating for continued research to childproof firearms so that if families choose to have firearms in the home, the safety of their children is not compromised,” they wrote.
Dr. Parikh is a hospitalist, Dr. Goyal is assistant division chief or emergency medicine, and Dr. Patel is an emergency medicine specialist, all with Children’s National Health System in Washington, DC. They reported no funding and no disclosures.
A recent increase in U.S. handgun ownership among white families tracks with a similar trend of recently rising gun deaths among young white children, a new study found. This association held even after adjustments for multiple sociodemographic variables that research previously had linked to higher gun ownership and higher firearm mortality.
“Indeed, firearm ownership, generally, was positively associated with firearm-related mortality among 1- to 5-year-old white children, but this correlation was primarily driven by changes in the proportion of families who owned handguns: firearms more often stored unsecured and loaded,” wrote Kate C. Prickett, PhD, of the Victoria University of Wellington (New Zealand) and her associates in Pediatrics.
“These findings suggest that ease of access and use may be an important consideration when examining firearm-related fatality risk among young children,” they continued. Given the lack of attenuation in the relationship from controlling for sociodemographic variables, they add, “this finding is in line with research documenting that the presence of a firearm in the home matters above and beyond other risk factors associated with child injury.”
Even though U.S. gun ownership and pediatric firearm mortality overall have been dropping over the past several decades, the latter has stagnated recently, and gun deaths among children aged 1-4 years nearly doubled between 2006-2016, the researchers noted.
Given the counterintuitive increase in young children’s gun deaths while overall gun ownership kept dropping, the researchers took a closer look at the relationship between gun deaths among children aged 1-5 years and specific types of firearm ownership among families with children under age 5 years in the home. They relied on household data from the nationally representative General Social Survey and on fatality statistics from the National Vital Statistics System from 1976-2016.
Over those 4 decades, gun ownership in white families with small children decreased from 50% to 45% and in black families with small children from 38% to 6%.
Simultaneously, however, handgun ownership increased from 25% to 32% among white families with young children. In fact, most firearm-owning white families (72%) owned a handgun in 2016 while rifle ownership had declined substantially.
Meanwhile, “firearm-related mortality rate among young white children declined from historic highs in the late 1970s to early 1980s until 2001,” the authors reported. “After 2004, however, the mortality rate began to rise, reaching mid-1980s levels.” Further, gun deaths constituted 2% of young children’s injury deaths in 1976 but nearly 5% in 2016.
When the researchers compared these findings, they found a positive, significant association between white child firearm mortality and the proportion of white families who owned a handgun but not a rifle or shotgun.
The association remained after the researchers adjusted for several covariates already established in the evidence base to have associations with firearm ownership, child injury risk and/or firearm mortality: living in a rural area, living in the South, neither parent having a college degree, and a household income in the bottom quartile nationally. In addition, “the annual national unemployment rate by race was included as an indicator of the broader economic context,” the authors wrote.
Although young black children die from guns nearly three times more frequently than white children, the authors were unable to present detailed findings on associations with gun ownership because of small sample sizes. They noted, however, that handgun ownership actually declined during the study period from 15% to 6% in black families with young children.
The researchers concluded that the recent increase in young children’s gun deaths may be partly driven by an increase in handgun ownership, even as overall gun ownership (primarily rifles and shotguns) has continued dropping.
“For young children, shootings are more likely to be unintentional, making the ease at which firearms can be accessed and used a more important determinant of mortality than perhaps for older children,” the authors wrote. “Moreover, relative to other firearms like hunting rifles, handguns, because they are more likely to be purchased for personal protection, are more likely to be stored loaded with ammunition, unlocked, and in a more easily accessible place, such as a bedroom drawer.”
The research was funded by the National Institute of Child Health and Human Development. The authors reported having no conflicts of interest.
SOURCE: Prickett KC et al. Pediatrics. 2019;143(2):e20181171.
A recent increase in U.S. handgun ownership among white families tracks with a similar trend of recently rising gun deaths among young white children, a new study found. This association held even after adjustments for multiple sociodemographic variables that research previously had linked to higher gun ownership and higher firearm mortality.
“Indeed, firearm ownership, generally, was positively associated with firearm-related mortality among 1- to 5-year-old white children, but this correlation was primarily driven by changes in the proportion of families who owned handguns: firearms more often stored unsecured and loaded,” wrote Kate C. Prickett, PhD, of the Victoria University of Wellington (New Zealand) and her associates in Pediatrics.
“These findings suggest that ease of access and use may be an important consideration when examining firearm-related fatality risk among young children,” they continued. Given the lack of attenuation in the relationship from controlling for sociodemographic variables, they add, “this finding is in line with research documenting that the presence of a firearm in the home matters above and beyond other risk factors associated with child injury.”
Even though U.S. gun ownership and pediatric firearm mortality overall have been dropping over the past several decades, the latter has stagnated recently, and gun deaths among children aged 1-4 years nearly doubled between 2006-2016, the researchers noted.
Given the counterintuitive increase in young children’s gun deaths while overall gun ownership kept dropping, the researchers took a closer look at the relationship between gun deaths among children aged 1-5 years and specific types of firearm ownership among families with children under age 5 years in the home. They relied on household data from the nationally representative General Social Survey and on fatality statistics from the National Vital Statistics System from 1976-2016.
Over those 4 decades, gun ownership in white families with small children decreased from 50% to 45% and in black families with small children from 38% to 6%.
Simultaneously, however, handgun ownership increased from 25% to 32% among white families with young children. In fact, most firearm-owning white families (72%) owned a handgun in 2016 while rifle ownership had declined substantially.
Meanwhile, “firearm-related mortality rate among young white children declined from historic highs in the late 1970s to early 1980s until 2001,” the authors reported. “After 2004, however, the mortality rate began to rise, reaching mid-1980s levels.” Further, gun deaths constituted 2% of young children’s injury deaths in 1976 but nearly 5% in 2016.
When the researchers compared these findings, they found a positive, significant association between white child firearm mortality and the proportion of white families who owned a handgun but not a rifle or shotgun.
The association remained after the researchers adjusted for several covariates already established in the evidence base to have associations with firearm ownership, child injury risk and/or firearm mortality: living in a rural area, living in the South, neither parent having a college degree, and a household income in the bottom quartile nationally. In addition, “the annual national unemployment rate by race was included as an indicator of the broader economic context,” the authors wrote.
Although young black children die from guns nearly three times more frequently than white children, the authors were unable to present detailed findings on associations with gun ownership because of small sample sizes. They noted, however, that handgun ownership actually declined during the study period from 15% to 6% in black families with young children.
The researchers concluded that the recent increase in young children’s gun deaths may be partly driven by an increase in handgun ownership, even as overall gun ownership (primarily rifles and shotguns) has continued dropping.
“For young children, shootings are more likely to be unintentional, making the ease at which firearms can be accessed and used a more important determinant of mortality than perhaps for older children,” the authors wrote. “Moreover, relative to other firearms like hunting rifles, handguns, because they are more likely to be purchased for personal protection, are more likely to be stored loaded with ammunition, unlocked, and in a more easily accessible place, such as a bedroom drawer.”
The research was funded by the National Institute of Child Health and Human Development. The authors reported having no conflicts of interest.
SOURCE: Prickett KC et al. Pediatrics. 2019;143(2):e20181171.
FROM PEDIATRICS
Key clinical point: Greater handgun ownership in families may increase young children’s risk of gun death.
Major finding: Handgun ownership in white families with young children rose from 25% to 32% during 1976-2016, alongside increasing rates of firearm deaths in young white children.
Study details: The findings are based on analysis of data on U.S. family firearm ownership and pediatric gun deaths in the General Social Study and National Vital Statistics System from 1976-2016.
Disclosures: The research was funded by the National Institute of Child Health and Human Development. The authors reported having no conflicts of interest.
Source: Prickett KC et al. Pediatrics. 2019 Jan 28;143(2):e20181171.
Leg-length discrepancy • asymmetric gluteal folds and popliteal fossae • positive Galeazzi test • Dx?
THE CASE
A healthy 6-month-old girl born via spontaneous vaginal delivery to a 33-year-old mother presented to her family physician (FP) for a routine well-child examination. The mother’s prenatal anatomy scan, delivery, and personal and family history were unremarkable. The patient was not firstborn or breech, and there was no family history of hip dysplasia. On prior infant well-child examinations, Ortolani and Barlow maneuvers were negative, and the patient demonstrated spontaneous movement of both legs. There was no evidence of hip dysplasia, lower extremity weakness, musculoskeletal abnormalities, or abnormal skin markings. The patient had normal growth and development (50th percentile for height and weight, average Ages & Stages Questionnaire scores) and no history of infection or trauma.
At the current presentation, the FP noted a leg-length discrepancy while palpating the bony (patellar and malleolar) landmarks of the lower extremities, but the right and left anterior superior iliac spine was symmetrical. The gluteal folds and popliteal fossae were asymmetric, a Galeazzi test was positive, and the right leg measured approximately 2 cm shorter than the left leg. There was no evidence of scoliosis or pelvic abnormalities. Physical examination revealed no ecchymosis or trauma. Orthopedic evaluation by the FP of the hips, knees, and ankles was normal, including negative repeat Ortolani and Barlow maneuvers and normal range of motion. We obtained x-rays of the lower extremities and ordered an orthopedic consultation.
THE DIAGNOSIS
The differential diagnosis included congenital, traumatic, infectious, inflammatory, idiopathic, and neurologic causes.1-3 The most common etiologies of leg-length discrepancies are summarized in TABLE 1.1-3 Radiographic imaging showed a femur length discrepancy, which was determined to be congenital without indication of trauma or disease; therefore, a diagnosis of congenital femoral bowing was made.
Initial orthopedic evaluation revealed a femur length discrepancy of approximately 2 cm. Plain films showed lateral femoral bowing (FIGURE 1A).
DISCUSSION
Congenital femoral bowing, which can present as a leg-length discrepancy in infants, is a relatively rare finding with an incidence of 1 per 52,000 births.4 Our patient presented with an isolated limb deformity, but congenital femoral bowing is recognized as a clinical feature of several skeletal dysplasias (TABLE 2).5
What’s recommended
The American Academy of Pediatrics recommends routine age-appropriate physical examination without specifying leg-length assessment.6 There is insufficient evidence, according to
Congenital femoral bowing requires plain film diagnosis
Following physical examination, diagnosis of congenital femoral bowing should be confirmed by plain films. Plain radiography remains the main imaging modality for proximal focal femoral deficiency and fibular hemimelia, and appropriate identification of the osseous abnormalities seen on radiographs allows for accurate classification of congenital femoral bowing, prognosis, and surgical planning.
Continue to: Early diagnosis can improve treatment outcome
Early diagnosis can improve treatment outcome
Both early diagnosis of congenital femoral bowing and prediction of leg-length discrepancy at skeletal maturity can influence potential treatment options, which range from conservative management (eg, watchful waiting, physical therapy, shoe lifts, orthotics, bracing) to surgical intervention. Several models have been used to predict skeletal growth, including the Moseley straight line graph, Green and Anderson growth curve, Amstutz method, and Paley’s multiplier method.4,9-14
Intervention for leg-length discrepancy generally is dictated by the magnitude of the inequality and the presence of functional deficits and/or pain.2 If the degree of femur angulation begins to affect structural development, surgical intervention should be considered to align development and/or correct the discrepancy. Physical therapy, shoe lifts, orthotics, and bracing are treatment options for managing smaller discrepancies.2,15
Our patient. The physician (CP) reviewed treatment options with the family that included watchful waiting, use of a shoe lift and/or orthotics, and bracing. The family chose watchful waiting due to the structural integrity of the patient’s other major joints and her relatively preserved function.
Surgery. Ultimately the patient underwent medial distal femoral hemiepiphysiodesis of the right lower extremity at 6 years of age due to increasing leg-length discrepancy and lateralization of the patella from the valgus deformity. The patient’s mother reported that she did well postoperatively, with increased range of motion, improved physical capabilities, and reduced discomfort in the right leg.
A second surgery. At approximately 8 years and 9 months of age, the orthopedist noted that the patient’s leg-length discrepancy had increased, and she had right extensor mechanism malalignment and severe patellar subluxation. The patient subsequently underwent surgery to remove the existing hardware, including right extensor mechanism realignment via a Roux-Goldthwait procedure (with reconstruction of the medial patellofemoral ligament and anterior cruciate ligament), as well as left distal femoral epiphysiodesis. She did very well postoperatively and continues to participate in physical therapy approximately once weekly. She has had an improvement in her gait and stability using shoe lifts.
Continue to: THE TAKEAWAY
THE TAKEAWAY
A routine well-child examination can be an opportunity to identify congenital musculoskeletal problems. Congenital femoral bowing is a relatively rare finding4 that may present as a leg-length discrepancy. With proper evaluation, including visual inspection, palpation, range-of-motion testing, and special tests as needed (eg, Galeazzi test, Ortolani and Barlow maneuvers), early intervention is possible if a leg-length discrepancy is noted. Close monitoring of gait abnormalities at routine well-child visits is essential.
Physical therapy, shoe lift therapy, and surgical approaches are treatment options for leg-length discrepancy,2 and early intervention can improve treatment outcomes.14 Understanding how to manage congenital femoral bowing over time is important in providing options and counselling patients and their families.15
Treatment of leg-length discrepancy in pediatric patients requires long-term management with a team approach that includes patients and their families. The goal of intervention is to reduce physical and emotional trauma, while addressing complications and maintaining function of the affected limb, as well as the whole body.15
CORRESPONDENCE
Beth P. Davis, DPT, MBA, FNAP, Emory University School of Medicine, Department of Rehabilitation Medicine, Division of Physical Therapy, 1462 Clifton Road NE, Suite 312, Atlanta, GA 30342; bethpdavis@emory.edu.
1. Shailam R, Jaramillo D, Kan JH. Growth arrest and leg-length discrepancy. Pediatr Radiol. 2013:43(suppl 1):S155-S165.
2. Brady RJ, Dean JB, Skinner TM, et al. Limb length inequality: clinical implications for assessment and intervention. J Orthop Sports Phys Ther. 2003;33:221-234.
3. Stanitski DF. Limb-length inequality: assessment and treatment options. J Am Acad Orthop Surg. 1999;7:143-153.
4. Bedoya MA, Chauvin NA, Jaramillo D, et al. Common patterns of congenital lower extremity shortening: diagnosis, classification, and follow-up. Radiographics. 2015;35:1191-1207.
5. Alanay Y, Krakow D, Rimoin DL, et al. Angulated femurs and the skeletal dysplasias: experience of the International Skeletal Dysplasia Registry (1988-2006). Am J Med Genet. 2007;143A:1159-1168.
6. Hagan JF, Shaw JS, Duncan PM, eds. Bright Futures: Guidelines for Health Supervision of Infants, Children, and Adolescents. 4th ed. Elk Grove Village, IL: American Academy of Pediatrics; 2017.
7. Shipman SA, Hefland M, Moyer VA, et al. Screening for developmental dysplasia of the hip: a systematic literature review for the US Preventive Services Task Force. Pediatrics. 2006;117:557-576.
8. US Preventive Services Task Force. Screening for developmental dysplasia of the hip: recommendation statement. Pediatrics. 2006;117:898-902.
9. Paley D, Bhave A, Herzenberg JE, et al. Multiplier method for predicting limb-length discrepancy. J Bone Joint Surg Am. 2000;82-A:1432-1446.
10. Castaneda P, Urquhart B, Sullivan E, et al. Hemiepiphysiodesis for the correcting of angular deformity about the knee. J Pediatr Orthop. 2008;28:188-191.
11. Mosley CF. A straight-line graph for leg-length discrepancies. J Bone Joint Surg Am. 1977; 59:174-179.
12. Anderson M, Messner MB, Green WT. Distribution of lengths of the normal femur and tibia in children from one to eighteen years of age. J Bone Joint Surg Am. 1964;46:1197-1202.
13. Amstutz HC. The morphology, natural history, and treatment of proximal femoral focal deficiency. In: GT Aitken, ed. Proximal Femoral Focal Deficiency: A Congenital Anomaly. Washington, DC: National Academy of Sciences; 1969: 50-76.
14. Amstutz HC. Natural history and treatment of congenital absence of the fibula. J Bone and Joint Surg Am. 1972;54(A):1349.
15. Guidera KJ, Helal AA, Zuern KA. Management of pediatric limb length inequality. Adv Pediatr. 1995;42:501-543.
THE CASE
A healthy 6-month-old girl born via spontaneous vaginal delivery to a 33-year-old mother presented to her family physician (FP) for a routine well-child examination. The mother’s prenatal anatomy scan, delivery, and personal and family history were unremarkable. The patient was not firstborn or breech, and there was no family history of hip dysplasia. On prior infant well-child examinations, Ortolani and Barlow maneuvers were negative, and the patient demonstrated spontaneous movement of both legs. There was no evidence of hip dysplasia, lower extremity weakness, musculoskeletal abnormalities, or abnormal skin markings. The patient had normal growth and development (50th percentile for height and weight, average Ages & Stages Questionnaire scores) and no history of infection or trauma.
At the current presentation, the FP noted a leg-length discrepancy while palpating the bony (patellar and malleolar) landmarks of the lower extremities, but the right and left anterior superior iliac spine was symmetrical. The gluteal folds and popliteal fossae were asymmetric, a Galeazzi test was positive, and the right leg measured approximately 2 cm shorter than the left leg. There was no evidence of scoliosis or pelvic abnormalities. Physical examination revealed no ecchymosis or trauma. Orthopedic evaluation by the FP of the hips, knees, and ankles was normal, including negative repeat Ortolani and Barlow maneuvers and normal range of motion. We obtained x-rays of the lower extremities and ordered an orthopedic consultation.
THE DIAGNOSIS
The differential diagnosis included congenital, traumatic, infectious, inflammatory, idiopathic, and neurologic causes.1-3 The most common etiologies of leg-length discrepancies are summarized in TABLE 1.1-3 Radiographic imaging showed a femur length discrepancy, which was determined to be congenital without indication of trauma or disease; therefore, a diagnosis of congenital femoral bowing was made.
Initial orthopedic evaluation revealed a femur length discrepancy of approximately 2 cm. Plain films showed lateral femoral bowing (FIGURE 1A).
DISCUSSION
Congenital femoral bowing, which can present as a leg-length discrepancy in infants, is a relatively rare finding with an incidence of 1 per 52,000 births.4 Our patient presented with an isolated limb deformity, but congenital femoral bowing is recognized as a clinical feature of several skeletal dysplasias (TABLE 2).5
What’s recommended
The American Academy of Pediatrics recommends routine age-appropriate physical examination without specifying leg-length assessment.6 There is insufficient evidence, according to
Congenital femoral bowing requires plain film diagnosis
Following physical examination, diagnosis of congenital femoral bowing should be confirmed by plain films. Plain radiography remains the main imaging modality for proximal focal femoral deficiency and fibular hemimelia, and appropriate identification of the osseous abnormalities seen on radiographs allows for accurate classification of congenital femoral bowing, prognosis, and surgical planning.
Continue to: Early diagnosis can improve treatment outcome
Early diagnosis can improve treatment outcome
Both early diagnosis of congenital femoral bowing and prediction of leg-length discrepancy at skeletal maturity can influence potential treatment options, which range from conservative management (eg, watchful waiting, physical therapy, shoe lifts, orthotics, bracing) to surgical intervention. Several models have been used to predict skeletal growth, including the Moseley straight line graph, Green and Anderson growth curve, Amstutz method, and Paley’s multiplier method.4,9-14
Intervention for leg-length discrepancy generally is dictated by the magnitude of the inequality and the presence of functional deficits and/or pain.2 If the degree of femur angulation begins to affect structural development, surgical intervention should be considered to align development and/or correct the discrepancy. Physical therapy, shoe lifts, orthotics, and bracing are treatment options for managing smaller discrepancies.2,15
Our patient. The physician (CP) reviewed treatment options with the family that included watchful waiting, use of a shoe lift and/or orthotics, and bracing. The family chose watchful waiting due to the structural integrity of the patient’s other major joints and her relatively preserved function.
Surgery. Ultimately the patient underwent medial distal femoral hemiepiphysiodesis of the right lower extremity at 6 years of age due to increasing leg-length discrepancy and lateralization of the patella from the valgus deformity. The patient’s mother reported that she did well postoperatively, with increased range of motion, improved physical capabilities, and reduced discomfort in the right leg.
A second surgery. At approximately 8 years and 9 months of age, the orthopedist noted that the patient’s leg-length discrepancy had increased, and she had right extensor mechanism malalignment and severe patellar subluxation. The patient subsequently underwent surgery to remove the existing hardware, including right extensor mechanism realignment via a Roux-Goldthwait procedure (with reconstruction of the medial patellofemoral ligament and anterior cruciate ligament), as well as left distal femoral epiphysiodesis. She did very well postoperatively and continues to participate in physical therapy approximately once weekly. She has had an improvement in her gait and stability using shoe lifts.
Continue to: THE TAKEAWAY
THE TAKEAWAY
A routine well-child examination can be an opportunity to identify congenital musculoskeletal problems. Congenital femoral bowing is a relatively rare finding4 that may present as a leg-length discrepancy. With proper evaluation, including visual inspection, palpation, range-of-motion testing, and special tests as needed (eg, Galeazzi test, Ortolani and Barlow maneuvers), early intervention is possible if a leg-length discrepancy is noted. Close monitoring of gait abnormalities at routine well-child visits is essential.
Physical therapy, shoe lift therapy, and surgical approaches are treatment options for leg-length discrepancy,2 and early intervention can improve treatment outcomes.14 Understanding how to manage congenital femoral bowing over time is important in providing options and counselling patients and their families.15
Treatment of leg-length discrepancy in pediatric patients requires long-term management with a team approach that includes patients and their families. The goal of intervention is to reduce physical and emotional trauma, while addressing complications and maintaining function of the affected limb, as well as the whole body.15
CORRESPONDENCE
Beth P. Davis, DPT, MBA, FNAP, Emory University School of Medicine, Department of Rehabilitation Medicine, Division of Physical Therapy, 1462 Clifton Road NE, Suite 312, Atlanta, GA 30342; bethpdavis@emory.edu.
THE CASE
A healthy 6-month-old girl born via spontaneous vaginal delivery to a 33-year-old mother presented to her family physician (FP) for a routine well-child examination. The mother’s prenatal anatomy scan, delivery, and personal and family history were unremarkable. The patient was not firstborn or breech, and there was no family history of hip dysplasia. On prior infant well-child examinations, Ortolani and Barlow maneuvers were negative, and the patient demonstrated spontaneous movement of both legs. There was no evidence of hip dysplasia, lower extremity weakness, musculoskeletal abnormalities, or abnormal skin markings. The patient had normal growth and development (50th percentile for height and weight, average Ages & Stages Questionnaire scores) and no history of infection or trauma.
At the current presentation, the FP noted a leg-length discrepancy while palpating the bony (patellar and malleolar) landmarks of the lower extremities, but the right and left anterior superior iliac spine was symmetrical. The gluteal folds and popliteal fossae were asymmetric, a Galeazzi test was positive, and the right leg measured approximately 2 cm shorter than the left leg. There was no evidence of scoliosis or pelvic abnormalities. Physical examination revealed no ecchymosis or trauma. Orthopedic evaluation by the FP of the hips, knees, and ankles was normal, including negative repeat Ortolani and Barlow maneuvers and normal range of motion. We obtained x-rays of the lower extremities and ordered an orthopedic consultation.
THE DIAGNOSIS
The differential diagnosis included congenital, traumatic, infectious, inflammatory, idiopathic, and neurologic causes.1-3 The most common etiologies of leg-length discrepancies are summarized in TABLE 1.1-3 Radiographic imaging showed a femur length discrepancy, which was determined to be congenital without indication of trauma or disease; therefore, a diagnosis of congenital femoral bowing was made.
Initial orthopedic evaluation revealed a femur length discrepancy of approximately 2 cm. Plain films showed lateral femoral bowing (FIGURE 1A).
DISCUSSION
Congenital femoral bowing, which can present as a leg-length discrepancy in infants, is a relatively rare finding with an incidence of 1 per 52,000 births.4 Our patient presented with an isolated limb deformity, but congenital femoral bowing is recognized as a clinical feature of several skeletal dysplasias (TABLE 2).5
What’s recommended
The American Academy of Pediatrics recommends routine age-appropriate physical examination without specifying leg-length assessment.6 There is insufficient evidence, according to
Congenital femoral bowing requires plain film diagnosis
Following physical examination, diagnosis of congenital femoral bowing should be confirmed by plain films. Plain radiography remains the main imaging modality for proximal focal femoral deficiency and fibular hemimelia, and appropriate identification of the osseous abnormalities seen on radiographs allows for accurate classification of congenital femoral bowing, prognosis, and surgical planning.
Continue to: Early diagnosis can improve treatment outcome
Early diagnosis can improve treatment outcome
Both early diagnosis of congenital femoral bowing and prediction of leg-length discrepancy at skeletal maturity can influence potential treatment options, which range from conservative management (eg, watchful waiting, physical therapy, shoe lifts, orthotics, bracing) to surgical intervention. Several models have been used to predict skeletal growth, including the Moseley straight line graph, Green and Anderson growth curve, Amstutz method, and Paley’s multiplier method.4,9-14
Intervention for leg-length discrepancy generally is dictated by the magnitude of the inequality and the presence of functional deficits and/or pain.2 If the degree of femur angulation begins to affect structural development, surgical intervention should be considered to align development and/or correct the discrepancy. Physical therapy, shoe lifts, orthotics, and bracing are treatment options for managing smaller discrepancies.2,15
Our patient. The physician (CP) reviewed treatment options with the family that included watchful waiting, use of a shoe lift and/or orthotics, and bracing. The family chose watchful waiting due to the structural integrity of the patient’s other major joints and her relatively preserved function.
Surgery. Ultimately the patient underwent medial distal femoral hemiepiphysiodesis of the right lower extremity at 6 years of age due to increasing leg-length discrepancy and lateralization of the patella from the valgus deformity. The patient’s mother reported that she did well postoperatively, with increased range of motion, improved physical capabilities, and reduced discomfort in the right leg.
A second surgery. At approximately 8 years and 9 months of age, the orthopedist noted that the patient’s leg-length discrepancy had increased, and she had right extensor mechanism malalignment and severe patellar subluxation. The patient subsequently underwent surgery to remove the existing hardware, including right extensor mechanism realignment via a Roux-Goldthwait procedure (with reconstruction of the medial patellofemoral ligament and anterior cruciate ligament), as well as left distal femoral epiphysiodesis. She did very well postoperatively and continues to participate in physical therapy approximately once weekly. She has had an improvement in her gait and stability using shoe lifts.
Continue to: THE TAKEAWAY
THE TAKEAWAY
A routine well-child examination can be an opportunity to identify congenital musculoskeletal problems. Congenital femoral bowing is a relatively rare finding4 that may present as a leg-length discrepancy. With proper evaluation, including visual inspection, palpation, range-of-motion testing, and special tests as needed (eg, Galeazzi test, Ortolani and Barlow maneuvers), early intervention is possible if a leg-length discrepancy is noted. Close monitoring of gait abnormalities at routine well-child visits is essential.
Physical therapy, shoe lift therapy, and surgical approaches are treatment options for leg-length discrepancy,2 and early intervention can improve treatment outcomes.14 Understanding how to manage congenital femoral bowing over time is important in providing options and counselling patients and their families.15
Treatment of leg-length discrepancy in pediatric patients requires long-term management with a team approach that includes patients and their families. The goal of intervention is to reduce physical and emotional trauma, while addressing complications and maintaining function of the affected limb, as well as the whole body.15
CORRESPONDENCE
Beth P. Davis, DPT, MBA, FNAP, Emory University School of Medicine, Department of Rehabilitation Medicine, Division of Physical Therapy, 1462 Clifton Road NE, Suite 312, Atlanta, GA 30342; bethpdavis@emory.edu.
1. Shailam R, Jaramillo D, Kan JH. Growth arrest and leg-length discrepancy. Pediatr Radiol. 2013:43(suppl 1):S155-S165.
2. Brady RJ, Dean JB, Skinner TM, et al. Limb length inequality: clinical implications for assessment and intervention. J Orthop Sports Phys Ther. 2003;33:221-234.
3. Stanitski DF. Limb-length inequality: assessment and treatment options. J Am Acad Orthop Surg. 1999;7:143-153.
4. Bedoya MA, Chauvin NA, Jaramillo D, et al. Common patterns of congenital lower extremity shortening: diagnosis, classification, and follow-up. Radiographics. 2015;35:1191-1207.
5. Alanay Y, Krakow D, Rimoin DL, et al. Angulated femurs and the skeletal dysplasias: experience of the International Skeletal Dysplasia Registry (1988-2006). Am J Med Genet. 2007;143A:1159-1168.
6. Hagan JF, Shaw JS, Duncan PM, eds. Bright Futures: Guidelines for Health Supervision of Infants, Children, and Adolescents. 4th ed. Elk Grove Village, IL: American Academy of Pediatrics; 2017.
7. Shipman SA, Hefland M, Moyer VA, et al. Screening for developmental dysplasia of the hip: a systematic literature review for the US Preventive Services Task Force. Pediatrics. 2006;117:557-576.
8. US Preventive Services Task Force. Screening for developmental dysplasia of the hip: recommendation statement. Pediatrics. 2006;117:898-902.
9. Paley D, Bhave A, Herzenberg JE, et al. Multiplier method for predicting limb-length discrepancy. J Bone Joint Surg Am. 2000;82-A:1432-1446.
10. Castaneda P, Urquhart B, Sullivan E, et al. Hemiepiphysiodesis for the correcting of angular deformity about the knee. J Pediatr Orthop. 2008;28:188-191.
11. Mosley CF. A straight-line graph for leg-length discrepancies. J Bone Joint Surg Am. 1977; 59:174-179.
12. Anderson M, Messner MB, Green WT. Distribution of lengths of the normal femur and tibia in children from one to eighteen years of age. J Bone Joint Surg Am. 1964;46:1197-1202.
13. Amstutz HC. The morphology, natural history, and treatment of proximal femoral focal deficiency. In: GT Aitken, ed. Proximal Femoral Focal Deficiency: A Congenital Anomaly. Washington, DC: National Academy of Sciences; 1969: 50-76.
14. Amstutz HC. Natural history and treatment of congenital absence of the fibula. J Bone and Joint Surg Am. 1972;54(A):1349.
15. Guidera KJ, Helal AA, Zuern KA. Management of pediatric limb length inequality. Adv Pediatr. 1995;42:501-543.
1. Shailam R, Jaramillo D, Kan JH. Growth arrest and leg-length discrepancy. Pediatr Radiol. 2013:43(suppl 1):S155-S165.
2. Brady RJ, Dean JB, Skinner TM, et al. Limb length inequality: clinical implications for assessment and intervention. J Orthop Sports Phys Ther. 2003;33:221-234.
3. Stanitski DF. Limb-length inequality: assessment and treatment options. J Am Acad Orthop Surg. 1999;7:143-153.
4. Bedoya MA, Chauvin NA, Jaramillo D, et al. Common patterns of congenital lower extremity shortening: diagnosis, classification, and follow-up. Radiographics. 2015;35:1191-1207.
5. Alanay Y, Krakow D, Rimoin DL, et al. Angulated femurs and the skeletal dysplasias: experience of the International Skeletal Dysplasia Registry (1988-2006). Am J Med Genet. 2007;143A:1159-1168.
6. Hagan JF, Shaw JS, Duncan PM, eds. Bright Futures: Guidelines for Health Supervision of Infants, Children, and Adolescents. 4th ed. Elk Grove Village, IL: American Academy of Pediatrics; 2017.
7. Shipman SA, Hefland M, Moyer VA, et al. Screening for developmental dysplasia of the hip: a systematic literature review for the US Preventive Services Task Force. Pediatrics. 2006;117:557-576.
8. US Preventive Services Task Force. Screening for developmental dysplasia of the hip: recommendation statement. Pediatrics. 2006;117:898-902.
9. Paley D, Bhave A, Herzenberg JE, et al. Multiplier method for predicting limb-length discrepancy. J Bone Joint Surg Am. 2000;82-A:1432-1446.
10. Castaneda P, Urquhart B, Sullivan E, et al. Hemiepiphysiodesis for the correcting of angular deformity about the knee. J Pediatr Orthop. 2008;28:188-191.
11. Mosley CF. A straight-line graph for leg-length discrepancies. J Bone Joint Surg Am. 1977; 59:174-179.
12. Anderson M, Messner MB, Green WT. Distribution of lengths of the normal femur and tibia in children from one to eighteen years of age. J Bone Joint Surg Am. 1964;46:1197-1202.
13. Amstutz HC. The morphology, natural history, and treatment of proximal femoral focal deficiency. In: GT Aitken, ed. Proximal Femoral Focal Deficiency: A Congenital Anomaly. Washington, DC: National Academy of Sciences; 1969: 50-76.
14. Amstutz HC. Natural history and treatment of congenital absence of the fibula. J Bone and Joint Surg Am. 1972;54(A):1349.
15. Guidera KJ, Helal AA, Zuern KA. Management of pediatric limb length inequality. Adv Pediatr. 1995;42:501-543.
Neonatal hyperbilirubinemia: An evidence-based approach
More than 60% of newborns appear clinically jaundiced in the first few weeks of life,1 most often due to physiologic jaundice. Mild hyperbilirubinemia peaks at Days 3 to 5 and returns to normal in the following weeks.1 However, approximately 10% of term and 25% of late preterm infants will undergo phototherapy for hyperbilirubinemia in an effort to prevent acute bilirubin encephalopathy (ABE) and kernicterus.2
Heightened vigilance to prevent these rare but devastating outcomes has made hyperbilirubinemia the most common cause of hospital readmission in infants in the United States3 and one with significant health care costs. This article summarizes the evidence and recommendations for the screening, evaluation, and management of hyperbilirubinemia in term infants.
But first, we begin with a quick look at the causes of hyperbilirubinemia.
Causes of conjugated vs unconjugated hyperbilirubinemia
Bilirubin is generated when red blood cells break down and release heme, which is metabolized into biliverdin and then to bilirubin. Unconjugated bilirubin binds to albumin in the blood and is transported to hepatocytes where conjugation occurs, allowing it to be excreted through the gastrointestinal tract. In neonates, most of the conjugated bilirubin that reaches the gut is then unconjugated, resulting in its recirculation. Additionally, neonates have an increased volume of red blood cells and a slow conjugating system. These factors all contribute to excess unconjugated bilirubin, which manifests as physiologic, nonpathologic jaundice.4TABLE 14-6 lists causes of unconjugated hyperbilirubinemia.
Elevated conjugated hyperbilirubinemia (conjugated bilirubin level ≥20% of total serum bilirubin [TSB]) is always pathologic and occurs due to intrahepatic or extrahepatic obstruction. TABLE 27 lists causes of conjugated hyperbilirubinemia. Infants found to have conjugated hyperbilirubinemia should undergo an additional work-up to determine the cause and identify potential complications of this disease.8
Given that the differential for conjugated hyperbilirubinemia is so broad and that it is often associated with severe disease requiring complicated and invasive treatments, infants with conjugated hyperbilirubinemia should be referred to a pediatric tertiary care facility with pediatric gastroenterologists, infectious disease specialists, and surgeons.7
What puts newborns at risk?
Major and minor risk factors for the development of severe hyperbilirubinemia in well newborns ≥35 weeks’ gestation are listed in TABLE 3.9 Those that carry the highest risk include gestational age <38 weeks, having a sibling who required phototherapy, visible jaundice by the time of discharge, and exclusive breastfeeding.9 Several more recent cohort studies, however, suggest that breastfeeding may not be a significant risk factor.10 The more risk factors present, the higher the risk. Infants who are formula fed, age ≥41 gestational weeks, or have no major or minor risk factors have a very low likelihood of developing severe hyperbilirubinemia.9
Continue to: The Bhutani curve...
The Bhutani curve11 is a widely used, validated nomogram based on pre-discharge hour-specific serum bilirubin measurements. (Go to http://pediatrics.aappublications.org/content/114/1/297 and see Figure 2.) It is the most reliable way to assess the risk for subsequent development of significant hyperbilirubinemia requiring phototherapy.9 As such, it is the basis for several online calculators and apps such as BiliTool (bilitool.org).
An alternative nomogram developed by Varvarigou et al12 is available for predicting significant hyperbilirubinemia based on transcutaneous bilirubin assessment. (Go to https://pdfs.semanticscholar.org/a9a6/5a988dba7a3442bcebc149ad5aea5e3c35d5.pdf and see Figure 3.) The American Academy of Pediatrics (AAP) supports the use of either bilirubin assessment for the screening and diagnosis of hyperbilirubinemia in infants ≥35 weeks’ gestation.9
Neurotoxicity risk factors. It is important to differentiate the major and minor risk factors for severe hyperbilirubinemia from neurotoxicity risk factors, also listed in TABLE 3.9 Neurotoxicity risk factors are indicative of conditions that may affect albumin binding of bilirubin and are thought to lower the threshold at which bilirubin may cross the blood-brain barrier and render the brain more susceptible to damage from bilirubin. These neurotoxicity risk factors should be applied to the AAP phototherapy nomogram (see Figure 3 at pediatrics.aappublications.org/content/114/1/297) to determine the threshold for initiation of phototherapy in infants with hyperbilirubinemia.9
Few investigators have attempted to define risk factors for the development of poor neurologic outcomes associated with hyperbilirubinemia. Evidence to date has not allowed the determination of a specific bilirubin level at which subsequent development of kernicterus occurs.9 The limited data available suggest a poor correlation between TSB level and bilirubin-induced neurologic dysfunction.13
(For more on kernicterus, as well as ABE and bilirubin-induced neurologic dysfunction [BIND], see “Why do we worry about hyperbilirubinemia?”9,14-16)
SIDEBAR
Why do we worry about hyperbilirubinemia?
When circulating bilirubin crosses the blood-brain barrier, neurologic dysfunction can occur that may become permanent. Bilirubin-induced neurologic dysfunction (BIND) occurs on a spectrum, beginning with acute bilirubin encephalopathy (ABE) and progressing to the irreversible condition—kernicterus.
The incidence of BIND has not been well documented; rates of kernicterus and ABE are thought to be about 1 in 133,000,16 but ABE and kernicterus are not reportable conditions in the United States, so exact prevalence is unknown.
Acute bilirubin encephalopathy may present subtly at first with lethargy, hypotonia, and a high-pitched cry. If not corrected, the condition can progress to hypertonicity (with arching of the neck and trunk), poor sucking, and irritability. It can lead to apnea, intractable seizures, respiratory failure, and even death.14
Kernicterus was originally a term used to describe the yellow bilirubin-staining of brainstem nuclei and the cerebellum seen on autopsy,9 but is now synonymous with chronic bilirubin encephalopathy. Kernicterus describes the irreversible manifestations of bilirubin neurotoxicity that often present as a classical tetrad of motor deficits (athetoid cerebral palsy), auditory processing deficits (with or without hearing loss), oculomotor deficits (especially impairments of upward vertical gaze), and enamel dysplasia of deciduous teeth.15 Abnormal magnetic resonance imaging of the globus pallidus and subthalamic nuclei is often seen in infants with kernicterus.14
Continue to: Diagnosis relies on TSB and/or TcB
Diagnosis relies on TSB and/or TcB
TSB measurement is the traditional and most widely used method for screening and diagnosing neonatal hyperbilirubinemia, but the blood draw is invasive and carries a risk (albeit low) of infection and anemia.17 Transcutaneous bilirubin (TcB) assessment is a noninvasive alternative that generally correlates well with TSB values ≤15 mg/dL,17-20 even in Hispanic, African, and multiethnic populations.18,21,22
Diagnosis of hyperbilirubinemia is made with TSB or TcB measured at >95th percentile for age in hours. TcB levels measured at >15 mg/dL should be confirmed with TSB measurement. Visual assessment of jaundice should not be used for diagnosis, as it may lead to errors.9-23
The total cost of testing is lower with TcB ($4-$15 per patient17) than with TSB when the cost of supplies and personnel are considered.24 Although more recent evidence suggests that TcB is an acceptable way to measure bilirubin in premature infants, no professional society currently recommends the use of TcB for the diagnosis of hyperbilirubinemia in infants25 <35 weeks’ gestation.
Screening recommendations lack consensus
There is a lack of consensus among professional societies on appropriate screening for neonatal hyperbilirubinemia, likely due to limited available data, necessitating expert-driven recommendations.
The AAP recommends universal screening of infants ≥35 weeks’ gestation prior to discharge with measurement of TSB/TcB and/or clinical assessment.9 The Canadian Pediatric Society recommends universal screening with TSB/TcB measurement in all infants in the first 72 hours of life.26
Continue to: The US Preventive Services Task Force...
The US Preventative Services Task Force, however, found insufficient evidence to recommend universal screening for infants ≥35 weeks’ gestation.27 The main rationale for their “I” recommendation was that although screening can identify infants at risk of developing severe hyperbilirubinemia, there is no clear evidence that identifying and treating elevated bilirubin levels results in the prevention of kernicterus.
The United Kingdom’s National Institute for Health and Care Excellence (NICE) guidelines do not support universal screening either.28 NICE recommends risk factor assessment and visual inspection for jaundice in all newborns and also additional physical examination for newborns with risk factors. NICE recommends against routine monitoring of bilirubin levels in infants who do not appear jaundiced.
All infants who appear jaundiced should be evaluated with either risk factor assessment or bilirubin measurement (TSB or TcB). Infants born to mothers who are Rh-negative or have type O blood should have cord blood tested for blood type, Rh status, and other antibodies with a direct Coombs test, as ABO and Rh incompatibility are major risk factors for development of hyperbilirubinemia because of hemolysis.8,9
A question of cost-efficacy? Data from a multicenter prospective clinical trial suggest a number needed to screen of 128,600 to prevent 1 case of kernicterus,29 making cost another important factor in the discussion about screening for neonatal hyperbilirubinemia. Universal screening is associated not only with the cost of TSB and TcB measurements, but also with the cost of phototherapy, rates of which are increased with universal screening.24,29,30 The cost of caring for 1 patient with kernicterus over a lifetime is estimated at $900,000, while the estimated cost to prevent 1 case of kernicterus with universal TSB/TcB screening is between $5.7 and $9.2 million.31
In Canada, universal screening was found to decrease emergency department visits for jaundice, but did not affect rates of readmission for hyperbilirubinemia, length of hospital stay, or rates of phototherapy after discharge.30
Continue to: Phototherapy: What kind of light, when to initiate
Phototherapy: What kind of light, when to initiate
The initial management of hyperbilirubinemia is phototherapy. Light directed at the skin converts bilirubin to lumirubin—a compound that unlike bilirubin does not require conjugation in the liver and can be directly excreted in the urine or bile.8
Light in the blue-green spectrum (460-490 nm) is most effective. Generally, phototherapy is more effective the closer the light is to the infant and the greater the surface area of skin the infant has exposed. There are many different types of lights used to provide phototherapy including fluorescent, halogen, light emitting diode (LED), and fiber optic lights, which are commonly used in home biliblankets.8 Fluorescent and halogen lights are the conventional methods, but newer LED systems are equally effective in terms of rate of decline of serum bilirubin levels, duration of phototherapy required, and need for exchange transfusion. Fiber optic lights work as well as other lights in preterm infants but are less effective in term infants. Using 2 fiber optic lights in term infants can increase efficacy to the level of a single conventional or LED source.32
Phototherapy thresholds. The AAP phototherapy curve (see Figure 3 at http://pediatrics.aappublications.org/content/114/1/297) is commonly used to determine phototherapy thresholds for infants with hyperbilirubinemia. This nomogram applies TSB level and age in hours to a “low,” “medium,” or “high” risk curve that is determined by the presence of neurotoxicity risk factors and gestational age. Infants on the “medium” and “high” risk curves have lower thresholds for initiation of phototherapy.9 The majority of infants born at gestational age ≥38 weeks being cared for in a newborn nursery will be assigned to a low risk curve on the AAP phototherapy nomogram, as many of the neurotoxicity risk factors that elevate risk would also be reasons for infants to be in an intensive care unit.
Online calculators and apps based on the AAP phototherapy nomogram, such as BiliTool (bilitool.org), offer recommendations for phototherapy thresholds and may suggest a time interval at which to repeat bilirubin testing if phototherapy is not indicated.
The additional work-up for infants requiring phototherapy often includes neonatal blood type, direct Coombs test, complete blood count and smear, and conjugated bilirubin level.9 Besser et al,33 however, found that 88% of infants requiring phototherapy had normal laboratory results. They also found that those infants with lab abnormalities often started phototherapy before 48 hours of age and did not have an appropriate decrease in bilirubin after initiation of phototherapy.
Continue to: Timing
Timing. Based on this data, it is reasonable to start phototherapy in term infants who develop jaundice at >48 to 72 hours of age without doing additional testing.
Bilirubin levels are expected to drop about 0.5 mg/dL per hour in the first 4 to 8 hours after starting phototherapy, but if the bilirubin measurement is not decreasing as expected or is increasing, additional work-up, with reticulocyte count, G6PD (glucose-6-phosphate dehydrogenase) concentration, end-tidal carbon dioxide determination (ETCO), and a bilirubin/albumin (B/A) ratio is warranted.8 Since unbound bilirubin can cross the blood-brain barrier, increased B/A ratio could theoretically be a predictor of bilirubin-induced neurologic dysfunction risk, but Iskander et al34 found that it was not superior to TSB levels in predicting neurotoxicity. ETCO may help identify children with ongoing hemolysis.8
The ideal time to stop phototherapy is not clear. Expert recommendations for phototherapy discontinuation thresholds range from 4-5 mg/dL to 13-14 mg/dL,8 while other clinicians stop phototherapy when bilirubin falls 1 to 2 mg/dL below the phototherapy initiation threshold. Phototherapy should be continued for any infant with signs of acute bilirubin encephalopathy, even if the bilirubin level is decreasing.9 Rebound hyperbilirubinemia is rare, and checking rebound bilirubin levels is not recommended.8
Safety. Phototherapy is generally considered safe, but both short- and long-term adverse effects are possible. Immediate adverse effects include intestinal hypermobility/diarrhea and temperature instability. Long-term issues include increased risks of the development of childhood asthma (odds ratio=1.4) and type 1 diabetes (odds ratio=3.79).35 Phototherapy can also be distressing for parents, as it requires frequent blood draws, physical separation, and possible disruption of breastfeeding.36 One study found a number needed to harm of 4 for cessation of breastfeeding at 1 month in jaundiced infants.37
Maintain breastfeeding. The AAP recommends breastfeeding be continued and promoted in infants who are jaundiced and receiving phototherapy.9 Maternal interaction with health care professionals who are encouraging of this practice was the best predictor of ongoing breastfeeding in a qualitative study of jaundiced infants and their families.38 Interrupting phototherapy for up to 30 minutes to allow for breastfeeding without eye covers has not been shown to decrease the efficacy of phototherapy.38
Continue to: Available evidence does not provide a clear answer...
Available evidence does not provide a clear answer regarding whether formula supplementation should be initiated in breastfed infants with hyperbilirubinemia. Cow’s milk formula supplementation decreases intestinal reabsorption of bilirubin, lowering serum bilirubin levels, but may interfere with successful breastfeeding.39 The Academy of Breastfeeding Medicine recommends an individual discussion about formula supplementation in place of, or prior to, phototherapy if an infant’s bilirubin is approaching (within 2-3 mg/dL) or above the threshold for phototherapy.39 Routine supplementation with intravenous fluids or other non–milk-based supplementation is not recommended for infants receiving phototherapy.9
Adjuvant therapies and exchange transfusion
Clofibrate, metalloporphyrins, and ursodiol have been studied in the management of unconjugated hyperbilirubinemia as augmentation to phototherapy. Honar et al40 found that ursodiol added at the time of phototherapy initiation demonstrated a significant reduction in peak bilirubin levels and duration of phototherapy in term infants with unconjugated hyperbilirubinemia without any adverse effects. Cochrane reviews of clofibrat5 and metalloporphyrins41 found that when added to phototherapy, these medications significantly decreased serum bilirubin levels and duration of phototherapy. However, there was insufficient evidence to recommend their use due to inadequate data on safety and long-term outcomes.
Exchange transfusion. Infants with bilirubin levels >25 mg/dL, those who are not responding to phototherapy, and those with evidence of acute bilirubin encephalopathy should be treated with exchange transfusion, with initiation based on an infant’s age in hours and neurotoxicity risk factors.9 Exchange transfusion involves taking small aliquots of blood from the infant and replacing them with donor red cells until the infant’s blood volume has been replaced twice to remove bilirubin and antibodies that may be causing hemolysis. It should be carried out in a neonatal intensive care unit due to significant risks.
Approximately 12% of infants have a complication from exchange transfusion including infection, electrolyte imbalances, thrombosis, thrombocytopenia, and necrotizing enterocolitis.8 The mortality rate in neonates without hemolysis who undergo exchange transfusion is 3 to 4 per 1000 treated.42
Post-discharge follow-up
Infants discharged before 72 hours of life should be seen within 2 days of discharge. Those infants with significant risk factors for development of severe hyperbilirubinemia should be seen within 1 day. Arrangements for follow-up should be made prior to discharge. Some infants discharged before 48 hours of life may require 2 follow-up visits. If follow-up cannot be ensured for an infant with risk factors for the development of severe hyperbilirubinemia, delay of discharge may be appropriate.9
CORRESPONDENCE
Katharine C. DeGeorge, MD, MS, Department of Family Medicine, University of Virginia, PO Box 800729, Charlottesville, VA, 22908-0729; kd6fp@virginia.edu.
1. Schwartz HP, Haberman BE, Ruddy RM. Hyperbilirubinemia: current guidelines and emerging therapies. Pediatr Emerg Care. 2011;27:884-889.
2. Sarici SU, Serdar MA, Korkmaz A, et al. Incidence, course, and prediction of hyperbilirubinemia in near-term and term newborns. Pediatrics. 2004;113:775-780.
3. Maisels MJ, Kring E. Length of stay, jaundice, and hospital readmission. Pediatrics. 1998;101:995-998.
4. Maisels MJ. Neonatal jaundice. Pediatr Rev. 2006;27:443-454.
5. Gholitabar M, McGuire H, Rennie J, et al. Clofibrate in combination with phototherapy for unconjugated neonatal hyperbilirubinaemia. Cochrane Database Syst Rev. 2012;12:CD009017.
6. Maruo Y, Morioka Y, Fujito H, et al. Bilirubin uridine diphosphate-glucuronosyltransferase variation is a genetic basis of breast milk jaundice. J Pediatr. 2014;165:36-41.e1.
7. Brumbaugh D, Mack C. Conjugated hyperbilirubinemia in children. Pediatr Rev. 2012;33:291-302.
8. Lauer BJ, Spector ND. Hyperbilirubinemia in the newborn. Pediatr Rev. 2011;32:341-349.
9. American Academy of Pediatrics Subcommittee on Hyperbilirubinemia. Management of hyperbilirubinemia in the newborn infant 35 or more weeks of gestation. Pediatrics. 2004;114:297-316.
10. Bertini G, Dani C, Tronchin M, et al. Is breastfeeding really favoring early neonatal jaundice? Pediatrics. 2001;107:E41.
11. Bhutani VK, Johnson L, Sivieri EM. Predictive ability of a predischarge hour-specific serum bilirubin for subsequent significant hyperbilirubinemia in healthy term and near-term newborns. Pediatrics. 1999;103:6-14.
12. Varvarigou A, Fouzas S, Skylogianni E, et al. Transcutaneous bilirubin nomogram for prediction of significant neonatal hyperbilirubinemia. Pediatrics. 2009;124:1052-1059.
13. Gamaleldin R, Iskander I, Seoud I, et al. Risk factors for neurotoxicity in newborns with severe neonatal hyperbilirubinemia. Pediatrics. 2011;128:e925-e931.
14. Wisnowski JL, Panigrahy A, Painter MJ, et al. Magnetic resonance imaging of bilirubin encephalopathy: current limitations and future promise. Semin Perinatol. 2014;38:422-428.
15. Shapiro SM. Chronic bilirubin encephalopathy: diagnosis and outcome. Semin Fetal Neonatal Med. 2010;15:157-163.
16. Kuzniewicz MW, Wickremasinghe AC, Wu YW, et al. Incidence, etiology, and outcomes of hazardous hyperbilirubinemia in newborns. Pediatrics. 2014;134:504-509.
17. Mahram M, Oveisi S, Jaberi N. Trans-cutaneous bilirubinometery versus serum bilirubin in neonatal jaundice. Acta Med Iran. 2015;53:764-769.
18. Campbell DM, Danayan KC, McGovern V, et al. Transcutaneous bilirubin measurement at the time of hospital discharge in a multiethnic newborn population. Paediatr Child Health. 2011;16:141-145.
19. Bhutani VK, Gourley GR, Adler S, et al. Noninvasive measurement of total serum bilirubin in a multiracial predischarge newborn population to assess the risk of severe hyperbilirubinemia. Pediatrics. 2000;106:E17.
20. Holland L, Blick K. Implementing and validating transcutaneous bilirubinometry for neonates. Am J Clin Pathol. 2009;132:555-561.
21. Kolman KB, Mathieson KM, Frias C. A comparison of transcutaneous and total serum bilirubin in newborn Hispanic infants at 35 or more weeks of gestation. J Am Board Fam Med. 2007;20:266-271.
22. Slusher TM, Angyo IA, Bode-Thomas F, et al. Transcutaneous bilirubin measurements and serum total bilirubin levels in indigenous African infants. Pediatrics. 2004;113:1636-1641.
23. Riskin A, Tamir A, Kugelman A, et al. Is visual assessment of jaundice reliable as a screening tool to detect significant neonatal hyperbilirubinemia? J Pediatr. 2008;152:782-787.
24. Bhutani VK, Vilms RJ, Hamerman-Johnson L. Universal bilirubin screening for severe neonatal hyperbilirubinemia. J Perinatol. 2010;30 Suppl:S6-S15.
25. Nagar G, Vandermeer B, Campbell S, et al. Reliability of transcutaneous bilirubin devices in preterm infants: a systematic review. Pediatrics. 2013;132:871-881.
26. Guidelines for detection, management and prevention of hyperbilirubinemia in term and late preterm newborn infants (35 or more weeks’ gestation) - summary. Paediatr Child Health. 2007;12:401-418.
27. US Preventive Services Task Force. Screening of infants for hyperbilirubinemia to prevent chronic bilirubin encephalopathy: US Preventive Services Task Force recommendation statement. Pediatrics. 2009;124:1172-1177.
28. National Institute for Health and Care Excellence. Jaundice in newborn babies under 28 days. Clinical guideline [CG98].https://www.nice.org.uk/guidance/cg98. Updated October 2016. Accessed October 17, 2018.
29. Mah MP, Clark SL, Akhigbe E, et al. Reduction of severe hyperbilirubinemia after institution of predischarge bilirubin screening. Pediatrics. 2010;125:e1143-e1148.
30. Darling EK, Ramsay T, Sprague AE, et al. Universal bilirubin screening and health care utilization. Pediatrics. 2014;134:e1017-e1024.
31. Suresh GK, Clark RE. Cost-effectiveness of strategies that are intended to prevent kernicterus in newborn infants. Pediatrics. 2004;114:917-924.
32. Kumar P, Chawla D, Deorari A. Light-emitting diode phototherapy for unconjugated hyperbilirubinaemia in neonates. Cochrane Database Syst Rev. 2011;7:CD007969.
33. Besser I, Perry ZH, Mesner O, et al. Yield of recommended blood tests for neonates requiring phototherapy for hyperbilirubinemia. Isr Med Assoc J. 2010;12:220-224.
34. Iskander I, Gamaleldin R, El Houchi S, et al. Serum bilirubin and bilirubin/albumin ratio as predictors of bilirubin encephalopathy. Pediatrics. 2014;134:e1330-e1339.
35. Aspberg S, Dahlquist G, Kahan T, Källén B. Confirmed association between neonatal phototherapy or neonatal icterus and risk of childhood asthma. Pediatr Allergy Immunol. 2010;21(4 Pt 2):e733-e739.
36. Muchowski KE. Evaluation and treatment of neonatal hyperbilirubinemia. Am Fam Physician. 2014;89:873-878.
37. Kemper K, Forsyth B, McCarthy P. Jaundice, terminating breast-feeding, and the vulnerable child. Pediatrics. 1989;84:773-778.
38. Willis SK, Hannon PR, Scrimshaw SC. The impact of the maternal experience with a jaundiced newborn on the breastfeeding relationship. J Fam Pract. 2002;51:465.
39. The Academy of Breastfeeding Medicine Protocol Committee. ABM clinical protocol #22: guidelines for management of jaundice in the breastfeeding infant equal to or greater than 35 weeks’ gestation. Breastfeed Med. 2010;5:87-93.
40. Honar N, Ghashghaei Saadi E, Saki F, et al. Effect of ursodeoxycholic acid on indirect hyperbilirubinemia in neonates treated with phototherapy. J Pediatr Gastroenterol Nutr. 2016;62:97-100.
41. Suresh GK, Martin CL, Soll RF. Metalloporphyrins for treatment of unconjugated hyperbilirubinemia in neonates. Cochrane Database Syst Rev. 2003;2:CD004207.
42. Muchowski KE. Evaluation and treatment of neonatal hyperbilirubinemia. Am Fam Physician. 2014;89:873-878.
More than 60% of newborns appear clinically jaundiced in the first few weeks of life,1 most often due to physiologic jaundice. Mild hyperbilirubinemia peaks at Days 3 to 5 and returns to normal in the following weeks.1 However, approximately 10% of term and 25% of late preterm infants will undergo phototherapy for hyperbilirubinemia in an effort to prevent acute bilirubin encephalopathy (ABE) and kernicterus.2
Heightened vigilance to prevent these rare but devastating outcomes has made hyperbilirubinemia the most common cause of hospital readmission in infants in the United States3 and one with significant health care costs. This article summarizes the evidence and recommendations for the screening, evaluation, and management of hyperbilirubinemia in term infants.
But first, we begin with a quick look at the causes of hyperbilirubinemia.
Causes of conjugated vs unconjugated hyperbilirubinemia
Bilirubin is generated when red blood cells break down and release heme, which is metabolized into biliverdin and then to bilirubin. Unconjugated bilirubin binds to albumin in the blood and is transported to hepatocytes where conjugation occurs, allowing it to be excreted through the gastrointestinal tract. In neonates, most of the conjugated bilirubin that reaches the gut is then unconjugated, resulting in its recirculation. Additionally, neonates have an increased volume of red blood cells and a slow conjugating system. These factors all contribute to excess unconjugated bilirubin, which manifests as physiologic, nonpathologic jaundice.4TABLE 14-6 lists causes of unconjugated hyperbilirubinemia.
Elevated conjugated hyperbilirubinemia (conjugated bilirubin level ≥20% of total serum bilirubin [TSB]) is always pathologic and occurs due to intrahepatic or extrahepatic obstruction. TABLE 27 lists causes of conjugated hyperbilirubinemia. Infants found to have conjugated hyperbilirubinemia should undergo an additional work-up to determine the cause and identify potential complications of this disease.8
Given that the differential for conjugated hyperbilirubinemia is so broad and that it is often associated with severe disease requiring complicated and invasive treatments, infants with conjugated hyperbilirubinemia should be referred to a pediatric tertiary care facility with pediatric gastroenterologists, infectious disease specialists, and surgeons.7
What puts newborns at risk?
Major and minor risk factors for the development of severe hyperbilirubinemia in well newborns ≥35 weeks’ gestation are listed in TABLE 3.9 Those that carry the highest risk include gestational age <38 weeks, having a sibling who required phototherapy, visible jaundice by the time of discharge, and exclusive breastfeeding.9 Several more recent cohort studies, however, suggest that breastfeeding may not be a significant risk factor.10 The more risk factors present, the higher the risk. Infants who are formula fed, age ≥41 gestational weeks, or have no major or minor risk factors have a very low likelihood of developing severe hyperbilirubinemia.9
Continue to: The Bhutani curve...
The Bhutani curve11 is a widely used, validated nomogram based on pre-discharge hour-specific serum bilirubin measurements. (Go to http://pediatrics.aappublications.org/content/114/1/297 and see Figure 2.) It is the most reliable way to assess the risk for subsequent development of significant hyperbilirubinemia requiring phototherapy.9 As such, it is the basis for several online calculators and apps such as BiliTool (bilitool.org).
An alternative nomogram developed by Varvarigou et al12 is available for predicting significant hyperbilirubinemia based on transcutaneous bilirubin assessment. (Go to https://pdfs.semanticscholar.org/a9a6/5a988dba7a3442bcebc149ad5aea5e3c35d5.pdf and see Figure 3.) The American Academy of Pediatrics (AAP) supports the use of either bilirubin assessment for the screening and diagnosis of hyperbilirubinemia in infants ≥35 weeks’ gestation.9
Neurotoxicity risk factors. It is important to differentiate the major and minor risk factors for severe hyperbilirubinemia from neurotoxicity risk factors, also listed in TABLE 3.9 Neurotoxicity risk factors are indicative of conditions that may affect albumin binding of bilirubin and are thought to lower the threshold at which bilirubin may cross the blood-brain barrier and render the brain more susceptible to damage from bilirubin. These neurotoxicity risk factors should be applied to the AAP phototherapy nomogram (see Figure 3 at pediatrics.aappublications.org/content/114/1/297) to determine the threshold for initiation of phototherapy in infants with hyperbilirubinemia.9
Few investigators have attempted to define risk factors for the development of poor neurologic outcomes associated with hyperbilirubinemia. Evidence to date has not allowed the determination of a specific bilirubin level at which subsequent development of kernicterus occurs.9 The limited data available suggest a poor correlation between TSB level and bilirubin-induced neurologic dysfunction.13
(For more on kernicterus, as well as ABE and bilirubin-induced neurologic dysfunction [BIND], see “Why do we worry about hyperbilirubinemia?”9,14-16)
SIDEBAR
Why do we worry about hyperbilirubinemia?
When circulating bilirubin crosses the blood-brain barrier, neurologic dysfunction can occur that may become permanent. Bilirubin-induced neurologic dysfunction (BIND) occurs on a spectrum, beginning with acute bilirubin encephalopathy (ABE) and progressing to the irreversible condition—kernicterus.
The incidence of BIND has not been well documented; rates of kernicterus and ABE are thought to be about 1 in 133,000,16 but ABE and kernicterus are not reportable conditions in the United States, so exact prevalence is unknown.
Acute bilirubin encephalopathy may present subtly at first with lethargy, hypotonia, and a high-pitched cry. If not corrected, the condition can progress to hypertonicity (with arching of the neck and trunk), poor sucking, and irritability. It can lead to apnea, intractable seizures, respiratory failure, and even death.14
Kernicterus was originally a term used to describe the yellow bilirubin-staining of brainstem nuclei and the cerebellum seen on autopsy,9 but is now synonymous with chronic bilirubin encephalopathy. Kernicterus describes the irreversible manifestations of bilirubin neurotoxicity that often present as a classical tetrad of motor deficits (athetoid cerebral palsy), auditory processing deficits (with or without hearing loss), oculomotor deficits (especially impairments of upward vertical gaze), and enamel dysplasia of deciduous teeth.15 Abnormal magnetic resonance imaging of the globus pallidus and subthalamic nuclei is often seen in infants with kernicterus.14
Continue to: Diagnosis relies on TSB and/or TcB
Diagnosis relies on TSB and/or TcB
TSB measurement is the traditional and most widely used method for screening and diagnosing neonatal hyperbilirubinemia, but the blood draw is invasive and carries a risk (albeit low) of infection and anemia.17 Transcutaneous bilirubin (TcB) assessment is a noninvasive alternative that generally correlates well with TSB values ≤15 mg/dL,17-20 even in Hispanic, African, and multiethnic populations.18,21,22
Diagnosis of hyperbilirubinemia is made with TSB or TcB measured at >95th percentile for age in hours. TcB levels measured at >15 mg/dL should be confirmed with TSB measurement. Visual assessment of jaundice should not be used for diagnosis, as it may lead to errors.9-23
The total cost of testing is lower with TcB ($4-$15 per patient17) than with TSB when the cost of supplies and personnel are considered.24 Although more recent evidence suggests that TcB is an acceptable way to measure bilirubin in premature infants, no professional society currently recommends the use of TcB for the diagnosis of hyperbilirubinemia in infants25 <35 weeks’ gestation.
Screening recommendations lack consensus
There is a lack of consensus among professional societies on appropriate screening for neonatal hyperbilirubinemia, likely due to limited available data, necessitating expert-driven recommendations.
The AAP recommends universal screening of infants ≥35 weeks’ gestation prior to discharge with measurement of TSB/TcB and/or clinical assessment.9 The Canadian Pediatric Society recommends universal screening with TSB/TcB measurement in all infants in the first 72 hours of life.26
Continue to: The US Preventive Services Task Force...
The US Preventative Services Task Force, however, found insufficient evidence to recommend universal screening for infants ≥35 weeks’ gestation.27 The main rationale for their “I” recommendation was that although screening can identify infants at risk of developing severe hyperbilirubinemia, there is no clear evidence that identifying and treating elevated bilirubin levels results in the prevention of kernicterus.
The United Kingdom’s National Institute for Health and Care Excellence (NICE) guidelines do not support universal screening either.28 NICE recommends risk factor assessment and visual inspection for jaundice in all newborns and also additional physical examination for newborns with risk factors. NICE recommends against routine monitoring of bilirubin levels in infants who do not appear jaundiced.
All infants who appear jaundiced should be evaluated with either risk factor assessment or bilirubin measurement (TSB or TcB). Infants born to mothers who are Rh-negative or have type O blood should have cord blood tested for blood type, Rh status, and other antibodies with a direct Coombs test, as ABO and Rh incompatibility are major risk factors for development of hyperbilirubinemia because of hemolysis.8,9
A question of cost-efficacy? Data from a multicenter prospective clinical trial suggest a number needed to screen of 128,600 to prevent 1 case of kernicterus,29 making cost another important factor in the discussion about screening for neonatal hyperbilirubinemia. Universal screening is associated not only with the cost of TSB and TcB measurements, but also with the cost of phototherapy, rates of which are increased with universal screening.24,29,30 The cost of caring for 1 patient with kernicterus over a lifetime is estimated at $900,000, while the estimated cost to prevent 1 case of kernicterus with universal TSB/TcB screening is between $5.7 and $9.2 million.31
In Canada, universal screening was found to decrease emergency department visits for jaundice, but did not affect rates of readmission for hyperbilirubinemia, length of hospital stay, or rates of phototherapy after discharge.30
Continue to: Phototherapy: What kind of light, when to initiate
Phototherapy: What kind of light, when to initiate
The initial management of hyperbilirubinemia is phototherapy. Light directed at the skin converts bilirubin to lumirubin—a compound that unlike bilirubin does not require conjugation in the liver and can be directly excreted in the urine or bile.8
Light in the blue-green spectrum (460-490 nm) is most effective. Generally, phototherapy is more effective the closer the light is to the infant and the greater the surface area of skin the infant has exposed. There are many different types of lights used to provide phototherapy including fluorescent, halogen, light emitting diode (LED), and fiber optic lights, which are commonly used in home biliblankets.8 Fluorescent and halogen lights are the conventional methods, but newer LED systems are equally effective in terms of rate of decline of serum bilirubin levels, duration of phototherapy required, and need for exchange transfusion. Fiber optic lights work as well as other lights in preterm infants but are less effective in term infants. Using 2 fiber optic lights in term infants can increase efficacy to the level of a single conventional or LED source.32
Phototherapy thresholds. The AAP phototherapy curve (see Figure 3 at http://pediatrics.aappublications.org/content/114/1/297) is commonly used to determine phototherapy thresholds for infants with hyperbilirubinemia. This nomogram applies TSB level and age in hours to a “low,” “medium,” or “high” risk curve that is determined by the presence of neurotoxicity risk factors and gestational age. Infants on the “medium” and “high” risk curves have lower thresholds for initiation of phototherapy.9 The majority of infants born at gestational age ≥38 weeks being cared for in a newborn nursery will be assigned to a low risk curve on the AAP phototherapy nomogram, as many of the neurotoxicity risk factors that elevate risk would also be reasons for infants to be in an intensive care unit.
Online calculators and apps based on the AAP phototherapy nomogram, such as BiliTool (bilitool.org), offer recommendations for phototherapy thresholds and may suggest a time interval at which to repeat bilirubin testing if phototherapy is not indicated.
The additional work-up for infants requiring phototherapy often includes neonatal blood type, direct Coombs test, complete blood count and smear, and conjugated bilirubin level.9 Besser et al,33 however, found that 88% of infants requiring phototherapy had normal laboratory results. They also found that those infants with lab abnormalities often started phototherapy before 48 hours of age and did not have an appropriate decrease in bilirubin after initiation of phototherapy.
Continue to: Timing
Timing. Based on this data, it is reasonable to start phototherapy in term infants who develop jaundice at >48 to 72 hours of age without doing additional testing.
Bilirubin levels are expected to drop about 0.5 mg/dL per hour in the first 4 to 8 hours after starting phototherapy, but if the bilirubin measurement is not decreasing as expected or is increasing, additional work-up, with reticulocyte count, G6PD (glucose-6-phosphate dehydrogenase) concentration, end-tidal carbon dioxide determination (ETCO), and a bilirubin/albumin (B/A) ratio is warranted.8 Since unbound bilirubin can cross the blood-brain barrier, increased B/A ratio could theoretically be a predictor of bilirubin-induced neurologic dysfunction risk, but Iskander et al34 found that it was not superior to TSB levels in predicting neurotoxicity. ETCO may help identify children with ongoing hemolysis.8
The ideal time to stop phototherapy is not clear. Expert recommendations for phototherapy discontinuation thresholds range from 4-5 mg/dL to 13-14 mg/dL,8 while other clinicians stop phototherapy when bilirubin falls 1 to 2 mg/dL below the phototherapy initiation threshold. Phototherapy should be continued for any infant with signs of acute bilirubin encephalopathy, even if the bilirubin level is decreasing.9 Rebound hyperbilirubinemia is rare, and checking rebound bilirubin levels is not recommended.8
Safety. Phototherapy is generally considered safe, but both short- and long-term adverse effects are possible. Immediate adverse effects include intestinal hypermobility/diarrhea and temperature instability. Long-term issues include increased risks of the development of childhood asthma (odds ratio=1.4) and type 1 diabetes (odds ratio=3.79).35 Phototherapy can also be distressing for parents, as it requires frequent blood draws, physical separation, and possible disruption of breastfeeding.36 One study found a number needed to harm of 4 for cessation of breastfeeding at 1 month in jaundiced infants.37
Maintain breastfeeding. The AAP recommends breastfeeding be continued and promoted in infants who are jaundiced and receiving phototherapy.9 Maternal interaction with health care professionals who are encouraging of this practice was the best predictor of ongoing breastfeeding in a qualitative study of jaundiced infants and their families.38 Interrupting phototherapy for up to 30 minutes to allow for breastfeeding without eye covers has not been shown to decrease the efficacy of phototherapy.38
Continue to: Available evidence does not provide a clear answer...
Available evidence does not provide a clear answer regarding whether formula supplementation should be initiated in breastfed infants with hyperbilirubinemia. Cow’s milk formula supplementation decreases intestinal reabsorption of bilirubin, lowering serum bilirubin levels, but may interfere with successful breastfeeding.39 The Academy of Breastfeeding Medicine recommends an individual discussion about formula supplementation in place of, or prior to, phototherapy if an infant’s bilirubin is approaching (within 2-3 mg/dL) or above the threshold for phototherapy.39 Routine supplementation with intravenous fluids or other non–milk-based supplementation is not recommended for infants receiving phototherapy.9
Adjuvant therapies and exchange transfusion
Clofibrate, metalloporphyrins, and ursodiol have been studied in the management of unconjugated hyperbilirubinemia as augmentation to phototherapy. Honar et al40 found that ursodiol added at the time of phototherapy initiation demonstrated a significant reduction in peak bilirubin levels and duration of phototherapy in term infants with unconjugated hyperbilirubinemia without any adverse effects. Cochrane reviews of clofibrat5 and metalloporphyrins41 found that when added to phototherapy, these medications significantly decreased serum bilirubin levels and duration of phototherapy. However, there was insufficient evidence to recommend their use due to inadequate data on safety and long-term outcomes.
Exchange transfusion. Infants with bilirubin levels >25 mg/dL, those who are not responding to phototherapy, and those with evidence of acute bilirubin encephalopathy should be treated with exchange transfusion, with initiation based on an infant’s age in hours and neurotoxicity risk factors.9 Exchange transfusion involves taking small aliquots of blood from the infant and replacing them with donor red cells until the infant’s blood volume has been replaced twice to remove bilirubin and antibodies that may be causing hemolysis. It should be carried out in a neonatal intensive care unit due to significant risks.
Approximately 12% of infants have a complication from exchange transfusion including infection, electrolyte imbalances, thrombosis, thrombocytopenia, and necrotizing enterocolitis.8 The mortality rate in neonates without hemolysis who undergo exchange transfusion is 3 to 4 per 1000 treated.42
Post-discharge follow-up
Infants discharged before 72 hours of life should be seen within 2 days of discharge. Those infants with significant risk factors for development of severe hyperbilirubinemia should be seen within 1 day. Arrangements for follow-up should be made prior to discharge. Some infants discharged before 48 hours of life may require 2 follow-up visits. If follow-up cannot be ensured for an infant with risk factors for the development of severe hyperbilirubinemia, delay of discharge may be appropriate.9
CORRESPONDENCE
Katharine C. DeGeorge, MD, MS, Department of Family Medicine, University of Virginia, PO Box 800729, Charlottesville, VA, 22908-0729; kd6fp@virginia.edu.
More than 60% of newborns appear clinically jaundiced in the first few weeks of life,1 most often due to physiologic jaundice. Mild hyperbilirubinemia peaks at Days 3 to 5 and returns to normal in the following weeks.1 However, approximately 10% of term and 25% of late preterm infants will undergo phototherapy for hyperbilirubinemia in an effort to prevent acute bilirubin encephalopathy (ABE) and kernicterus.2
Heightened vigilance to prevent these rare but devastating outcomes has made hyperbilirubinemia the most common cause of hospital readmission in infants in the United States3 and one with significant health care costs. This article summarizes the evidence and recommendations for the screening, evaluation, and management of hyperbilirubinemia in term infants.
But first, we begin with a quick look at the causes of hyperbilirubinemia.
Causes of conjugated vs unconjugated hyperbilirubinemia
Bilirubin is generated when red blood cells break down and release heme, which is metabolized into biliverdin and then to bilirubin. Unconjugated bilirubin binds to albumin in the blood and is transported to hepatocytes where conjugation occurs, allowing it to be excreted through the gastrointestinal tract. In neonates, most of the conjugated bilirubin that reaches the gut is then unconjugated, resulting in its recirculation. Additionally, neonates have an increased volume of red blood cells and a slow conjugating system. These factors all contribute to excess unconjugated bilirubin, which manifests as physiologic, nonpathologic jaundice.4TABLE 14-6 lists causes of unconjugated hyperbilirubinemia.
Elevated conjugated hyperbilirubinemia (conjugated bilirubin level ≥20% of total serum bilirubin [TSB]) is always pathologic and occurs due to intrahepatic or extrahepatic obstruction. TABLE 27 lists causes of conjugated hyperbilirubinemia. Infants found to have conjugated hyperbilirubinemia should undergo an additional work-up to determine the cause and identify potential complications of this disease.8
Given that the differential for conjugated hyperbilirubinemia is so broad and that it is often associated with severe disease requiring complicated and invasive treatments, infants with conjugated hyperbilirubinemia should be referred to a pediatric tertiary care facility with pediatric gastroenterologists, infectious disease specialists, and surgeons.7
What puts newborns at risk?
Major and minor risk factors for the development of severe hyperbilirubinemia in well newborns ≥35 weeks’ gestation are listed in TABLE 3.9 Those that carry the highest risk include gestational age <38 weeks, having a sibling who required phototherapy, visible jaundice by the time of discharge, and exclusive breastfeeding.9 Several more recent cohort studies, however, suggest that breastfeeding may not be a significant risk factor.10 The more risk factors present, the higher the risk. Infants who are formula fed, age ≥41 gestational weeks, or have no major or minor risk factors have a very low likelihood of developing severe hyperbilirubinemia.9
Continue to: The Bhutani curve...
The Bhutani curve11 is a widely used, validated nomogram based on pre-discharge hour-specific serum bilirubin measurements. (Go to http://pediatrics.aappublications.org/content/114/1/297 and see Figure 2.) It is the most reliable way to assess the risk for subsequent development of significant hyperbilirubinemia requiring phototherapy.9 As such, it is the basis for several online calculators and apps such as BiliTool (bilitool.org).
An alternative nomogram developed by Varvarigou et al12 is available for predicting significant hyperbilirubinemia based on transcutaneous bilirubin assessment. (Go to https://pdfs.semanticscholar.org/a9a6/5a988dba7a3442bcebc149ad5aea5e3c35d5.pdf and see Figure 3.) The American Academy of Pediatrics (AAP) supports the use of either bilirubin assessment for the screening and diagnosis of hyperbilirubinemia in infants ≥35 weeks’ gestation.9
Neurotoxicity risk factors. It is important to differentiate the major and minor risk factors for severe hyperbilirubinemia from neurotoxicity risk factors, also listed in TABLE 3.9 Neurotoxicity risk factors are indicative of conditions that may affect albumin binding of bilirubin and are thought to lower the threshold at which bilirubin may cross the blood-brain barrier and render the brain more susceptible to damage from bilirubin. These neurotoxicity risk factors should be applied to the AAP phototherapy nomogram (see Figure 3 at pediatrics.aappublications.org/content/114/1/297) to determine the threshold for initiation of phototherapy in infants with hyperbilirubinemia.9
Few investigators have attempted to define risk factors for the development of poor neurologic outcomes associated with hyperbilirubinemia. Evidence to date has not allowed the determination of a specific bilirubin level at which subsequent development of kernicterus occurs.9 The limited data available suggest a poor correlation between TSB level and bilirubin-induced neurologic dysfunction.13
(For more on kernicterus, as well as ABE and bilirubin-induced neurologic dysfunction [BIND], see “Why do we worry about hyperbilirubinemia?”9,14-16)
SIDEBAR
Why do we worry about hyperbilirubinemia?
When circulating bilirubin crosses the blood-brain barrier, neurologic dysfunction can occur that may become permanent. Bilirubin-induced neurologic dysfunction (BIND) occurs on a spectrum, beginning with acute bilirubin encephalopathy (ABE) and progressing to the irreversible condition—kernicterus.
The incidence of BIND has not been well documented; rates of kernicterus and ABE are thought to be about 1 in 133,000,16 but ABE and kernicterus are not reportable conditions in the United States, so exact prevalence is unknown.
Acute bilirubin encephalopathy may present subtly at first with lethargy, hypotonia, and a high-pitched cry. If not corrected, the condition can progress to hypertonicity (with arching of the neck and trunk), poor sucking, and irritability. It can lead to apnea, intractable seizures, respiratory failure, and even death.14
Kernicterus was originally a term used to describe the yellow bilirubin-staining of brainstem nuclei and the cerebellum seen on autopsy,9 but is now synonymous with chronic bilirubin encephalopathy. Kernicterus describes the irreversible manifestations of bilirubin neurotoxicity that often present as a classical tetrad of motor deficits (athetoid cerebral palsy), auditory processing deficits (with or without hearing loss), oculomotor deficits (especially impairments of upward vertical gaze), and enamel dysplasia of deciduous teeth.15 Abnormal magnetic resonance imaging of the globus pallidus and subthalamic nuclei is often seen in infants with kernicterus.14
Continue to: Diagnosis relies on TSB and/or TcB
Diagnosis relies on TSB and/or TcB
TSB measurement is the traditional and most widely used method for screening and diagnosing neonatal hyperbilirubinemia, but the blood draw is invasive and carries a risk (albeit low) of infection and anemia.17 Transcutaneous bilirubin (TcB) assessment is a noninvasive alternative that generally correlates well with TSB values ≤15 mg/dL,17-20 even in Hispanic, African, and multiethnic populations.18,21,22
Diagnosis of hyperbilirubinemia is made with TSB or TcB measured at >95th percentile for age in hours. TcB levels measured at >15 mg/dL should be confirmed with TSB measurement. Visual assessment of jaundice should not be used for diagnosis, as it may lead to errors.9-23
The total cost of testing is lower with TcB ($4-$15 per patient17) than with TSB when the cost of supplies and personnel are considered.24 Although more recent evidence suggests that TcB is an acceptable way to measure bilirubin in premature infants, no professional society currently recommends the use of TcB for the diagnosis of hyperbilirubinemia in infants25 <35 weeks’ gestation.
Screening recommendations lack consensus
There is a lack of consensus among professional societies on appropriate screening for neonatal hyperbilirubinemia, likely due to limited available data, necessitating expert-driven recommendations.
The AAP recommends universal screening of infants ≥35 weeks’ gestation prior to discharge with measurement of TSB/TcB and/or clinical assessment.9 The Canadian Pediatric Society recommends universal screening with TSB/TcB measurement in all infants in the first 72 hours of life.26
Continue to: The US Preventive Services Task Force...
The US Preventative Services Task Force, however, found insufficient evidence to recommend universal screening for infants ≥35 weeks’ gestation.27 The main rationale for their “I” recommendation was that although screening can identify infants at risk of developing severe hyperbilirubinemia, there is no clear evidence that identifying and treating elevated bilirubin levels results in the prevention of kernicterus.
The United Kingdom’s National Institute for Health and Care Excellence (NICE) guidelines do not support universal screening either.28 NICE recommends risk factor assessment and visual inspection for jaundice in all newborns and also additional physical examination for newborns with risk factors. NICE recommends against routine monitoring of bilirubin levels in infants who do not appear jaundiced.
All infants who appear jaundiced should be evaluated with either risk factor assessment or bilirubin measurement (TSB or TcB). Infants born to mothers who are Rh-negative or have type O blood should have cord blood tested for blood type, Rh status, and other antibodies with a direct Coombs test, as ABO and Rh incompatibility are major risk factors for development of hyperbilirubinemia because of hemolysis.8,9
A question of cost-efficacy? Data from a multicenter prospective clinical trial suggest a number needed to screen of 128,600 to prevent 1 case of kernicterus,29 making cost another important factor in the discussion about screening for neonatal hyperbilirubinemia. Universal screening is associated not only with the cost of TSB and TcB measurements, but also with the cost of phototherapy, rates of which are increased with universal screening.24,29,30 The cost of caring for 1 patient with kernicterus over a lifetime is estimated at $900,000, while the estimated cost to prevent 1 case of kernicterus with universal TSB/TcB screening is between $5.7 and $9.2 million.31
In Canada, universal screening was found to decrease emergency department visits for jaundice, but did not affect rates of readmission for hyperbilirubinemia, length of hospital stay, or rates of phototherapy after discharge.30
Continue to: Phototherapy: What kind of light, when to initiate
Phototherapy: What kind of light, when to initiate
The initial management of hyperbilirubinemia is phototherapy. Light directed at the skin converts bilirubin to lumirubin—a compound that unlike bilirubin does not require conjugation in the liver and can be directly excreted in the urine or bile.8
Light in the blue-green spectrum (460-490 nm) is most effective. Generally, phototherapy is more effective the closer the light is to the infant and the greater the surface area of skin the infant has exposed. There are many different types of lights used to provide phototherapy including fluorescent, halogen, light emitting diode (LED), and fiber optic lights, which are commonly used in home biliblankets.8 Fluorescent and halogen lights are the conventional methods, but newer LED systems are equally effective in terms of rate of decline of serum bilirubin levels, duration of phototherapy required, and need for exchange transfusion. Fiber optic lights work as well as other lights in preterm infants but are less effective in term infants. Using 2 fiber optic lights in term infants can increase efficacy to the level of a single conventional or LED source.32
Phototherapy thresholds. The AAP phototherapy curve (see Figure 3 at http://pediatrics.aappublications.org/content/114/1/297) is commonly used to determine phototherapy thresholds for infants with hyperbilirubinemia. This nomogram applies TSB level and age in hours to a “low,” “medium,” or “high” risk curve that is determined by the presence of neurotoxicity risk factors and gestational age. Infants on the “medium” and “high” risk curves have lower thresholds for initiation of phototherapy.9 The majority of infants born at gestational age ≥38 weeks being cared for in a newborn nursery will be assigned to a low risk curve on the AAP phototherapy nomogram, as many of the neurotoxicity risk factors that elevate risk would also be reasons for infants to be in an intensive care unit.
Online calculators and apps based on the AAP phototherapy nomogram, such as BiliTool (bilitool.org), offer recommendations for phototherapy thresholds and may suggest a time interval at which to repeat bilirubin testing if phototherapy is not indicated.
The additional work-up for infants requiring phototherapy often includes neonatal blood type, direct Coombs test, complete blood count and smear, and conjugated bilirubin level.9 Besser et al,33 however, found that 88% of infants requiring phototherapy had normal laboratory results. They also found that those infants with lab abnormalities often started phototherapy before 48 hours of age and did not have an appropriate decrease in bilirubin after initiation of phototherapy.
Continue to: Timing
Timing. Based on this data, it is reasonable to start phototherapy in term infants who develop jaundice at >48 to 72 hours of age without doing additional testing.
Bilirubin levels are expected to drop about 0.5 mg/dL per hour in the first 4 to 8 hours after starting phototherapy, but if the bilirubin measurement is not decreasing as expected or is increasing, additional work-up, with reticulocyte count, G6PD (glucose-6-phosphate dehydrogenase) concentration, end-tidal carbon dioxide determination (ETCO), and a bilirubin/albumin (B/A) ratio is warranted.8 Since unbound bilirubin can cross the blood-brain barrier, increased B/A ratio could theoretically be a predictor of bilirubin-induced neurologic dysfunction risk, but Iskander et al34 found that it was not superior to TSB levels in predicting neurotoxicity. ETCO may help identify children with ongoing hemolysis.8
The ideal time to stop phototherapy is not clear. Expert recommendations for phototherapy discontinuation thresholds range from 4-5 mg/dL to 13-14 mg/dL,8 while other clinicians stop phototherapy when bilirubin falls 1 to 2 mg/dL below the phototherapy initiation threshold. Phototherapy should be continued for any infant with signs of acute bilirubin encephalopathy, even if the bilirubin level is decreasing.9 Rebound hyperbilirubinemia is rare, and checking rebound bilirubin levels is not recommended.8
Safety. Phototherapy is generally considered safe, but both short- and long-term adverse effects are possible. Immediate adverse effects include intestinal hypermobility/diarrhea and temperature instability. Long-term issues include increased risks of the development of childhood asthma (odds ratio=1.4) and type 1 diabetes (odds ratio=3.79).35 Phototherapy can also be distressing for parents, as it requires frequent blood draws, physical separation, and possible disruption of breastfeeding.36 One study found a number needed to harm of 4 for cessation of breastfeeding at 1 month in jaundiced infants.37
Maintain breastfeeding. The AAP recommends breastfeeding be continued and promoted in infants who are jaundiced and receiving phototherapy.9 Maternal interaction with health care professionals who are encouraging of this practice was the best predictor of ongoing breastfeeding in a qualitative study of jaundiced infants and their families.38 Interrupting phototherapy for up to 30 minutes to allow for breastfeeding without eye covers has not been shown to decrease the efficacy of phototherapy.38
Continue to: Available evidence does not provide a clear answer...
Available evidence does not provide a clear answer regarding whether formula supplementation should be initiated in breastfed infants with hyperbilirubinemia. Cow’s milk formula supplementation decreases intestinal reabsorption of bilirubin, lowering serum bilirubin levels, but may interfere with successful breastfeeding.39 The Academy of Breastfeeding Medicine recommends an individual discussion about formula supplementation in place of, or prior to, phototherapy if an infant’s bilirubin is approaching (within 2-3 mg/dL) or above the threshold for phototherapy.39 Routine supplementation with intravenous fluids or other non–milk-based supplementation is not recommended for infants receiving phototherapy.9
Adjuvant therapies and exchange transfusion
Clofibrate, metalloporphyrins, and ursodiol have been studied in the management of unconjugated hyperbilirubinemia as augmentation to phototherapy. Honar et al40 found that ursodiol added at the time of phototherapy initiation demonstrated a significant reduction in peak bilirubin levels and duration of phototherapy in term infants with unconjugated hyperbilirubinemia without any adverse effects. Cochrane reviews of clofibrat5 and metalloporphyrins41 found that when added to phototherapy, these medications significantly decreased serum bilirubin levels and duration of phototherapy. However, there was insufficient evidence to recommend their use due to inadequate data on safety and long-term outcomes.
Exchange transfusion. Infants with bilirubin levels >25 mg/dL, those who are not responding to phototherapy, and those with evidence of acute bilirubin encephalopathy should be treated with exchange transfusion, with initiation based on an infant’s age in hours and neurotoxicity risk factors.9 Exchange transfusion involves taking small aliquots of blood from the infant and replacing them with donor red cells until the infant’s blood volume has been replaced twice to remove bilirubin and antibodies that may be causing hemolysis. It should be carried out in a neonatal intensive care unit due to significant risks.
Approximately 12% of infants have a complication from exchange transfusion including infection, electrolyte imbalances, thrombosis, thrombocytopenia, and necrotizing enterocolitis.8 The mortality rate in neonates without hemolysis who undergo exchange transfusion is 3 to 4 per 1000 treated.42
Post-discharge follow-up
Infants discharged before 72 hours of life should be seen within 2 days of discharge. Those infants with significant risk factors for development of severe hyperbilirubinemia should be seen within 1 day. Arrangements for follow-up should be made prior to discharge. Some infants discharged before 48 hours of life may require 2 follow-up visits. If follow-up cannot be ensured for an infant with risk factors for the development of severe hyperbilirubinemia, delay of discharge may be appropriate.9
CORRESPONDENCE
Katharine C. DeGeorge, MD, MS, Department of Family Medicine, University of Virginia, PO Box 800729, Charlottesville, VA, 22908-0729; kd6fp@virginia.edu.
1. Schwartz HP, Haberman BE, Ruddy RM. Hyperbilirubinemia: current guidelines and emerging therapies. Pediatr Emerg Care. 2011;27:884-889.
2. Sarici SU, Serdar MA, Korkmaz A, et al. Incidence, course, and prediction of hyperbilirubinemia in near-term and term newborns. Pediatrics. 2004;113:775-780.
3. Maisels MJ, Kring E. Length of stay, jaundice, and hospital readmission. Pediatrics. 1998;101:995-998.
4. Maisels MJ. Neonatal jaundice. Pediatr Rev. 2006;27:443-454.
5. Gholitabar M, McGuire H, Rennie J, et al. Clofibrate in combination with phototherapy for unconjugated neonatal hyperbilirubinaemia. Cochrane Database Syst Rev. 2012;12:CD009017.
6. Maruo Y, Morioka Y, Fujito H, et al. Bilirubin uridine diphosphate-glucuronosyltransferase variation is a genetic basis of breast milk jaundice. J Pediatr. 2014;165:36-41.e1.
7. Brumbaugh D, Mack C. Conjugated hyperbilirubinemia in children. Pediatr Rev. 2012;33:291-302.
8. Lauer BJ, Spector ND. Hyperbilirubinemia in the newborn. Pediatr Rev. 2011;32:341-349.
9. American Academy of Pediatrics Subcommittee on Hyperbilirubinemia. Management of hyperbilirubinemia in the newborn infant 35 or more weeks of gestation. Pediatrics. 2004;114:297-316.
10. Bertini G, Dani C, Tronchin M, et al. Is breastfeeding really favoring early neonatal jaundice? Pediatrics. 2001;107:E41.
11. Bhutani VK, Johnson L, Sivieri EM. Predictive ability of a predischarge hour-specific serum bilirubin for subsequent significant hyperbilirubinemia in healthy term and near-term newborns. Pediatrics. 1999;103:6-14.
12. Varvarigou A, Fouzas S, Skylogianni E, et al. Transcutaneous bilirubin nomogram for prediction of significant neonatal hyperbilirubinemia. Pediatrics. 2009;124:1052-1059.
13. Gamaleldin R, Iskander I, Seoud I, et al. Risk factors for neurotoxicity in newborns with severe neonatal hyperbilirubinemia. Pediatrics. 2011;128:e925-e931.
14. Wisnowski JL, Panigrahy A, Painter MJ, et al. Magnetic resonance imaging of bilirubin encephalopathy: current limitations and future promise. Semin Perinatol. 2014;38:422-428.
15. Shapiro SM. Chronic bilirubin encephalopathy: diagnosis and outcome. Semin Fetal Neonatal Med. 2010;15:157-163.
16. Kuzniewicz MW, Wickremasinghe AC, Wu YW, et al. Incidence, etiology, and outcomes of hazardous hyperbilirubinemia in newborns. Pediatrics. 2014;134:504-509.
17. Mahram M, Oveisi S, Jaberi N. Trans-cutaneous bilirubinometery versus serum bilirubin in neonatal jaundice. Acta Med Iran. 2015;53:764-769.
18. Campbell DM, Danayan KC, McGovern V, et al. Transcutaneous bilirubin measurement at the time of hospital discharge in a multiethnic newborn population. Paediatr Child Health. 2011;16:141-145.
19. Bhutani VK, Gourley GR, Adler S, et al. Noninvasive measurement of total serum bilirubin in a multiracial predischarge newborn population to assess the risk of severe hyperbilirubinemia. Pediatrics. 2000;106:E17.
20. Holland L, Blick K. Implementing and validating transcutaneous bilirubinometry for neonates. Am J Clin Pathol. 2009;132:555-561.
21. Kolman KB, Mathieson KM, Frias C. A comparison of transcutaneous and total serum bilirubin in newborn Hispanic infants at 35 or more weeks of gestation. J Am Board Fam Med. 2007;20:266-271.
22. Slusher TM, Angyo IA, Bode-Thomas F, et al. Transcutaneous bilirubin measurements and serum total bilirubin levels in indigenous African infants. Pediatrics. 2004;113:1636-1641.
23. Riskin A, Tamir A, Kugelman A, et al. Is visual assessment of jaundice reliable as a screening tool to detect significant neonatal hyperbilirubinemia? J Pediatr. 2008;152:782-787.
24. Bhutani VK, Vilms RJ, Hamerman-Johnson L. Universal bilirubin screening for severe neonatal hyperbilirubinemia. J Perinatol. 2010;30 Suppl:S6-S15.
25. Nagar G, Vandermeer B, Campbell S, et al. Reliability of transcutaneous bilirubin devices in preterm infants: a systematic review. Pediatrics. 2013;132:871-881.
26. Guidelines for detection, management and prevention of hyperbilirubinemia in term and late preterm newborn infants (35 or more weeks’ gestation) - summary. Paediatr Child Health. 2007;12:401-418.
27. US Preventive Services Task Force. Screening of infants for hyperbilirubinemia to prevent chronic bilirubin encephalopathy: US Preventive Services Task Force recommendation statement. Pediatrics. 2009;124:1172-1177.
28. National Institute for Health and Care Excellence. Jaundice in newborn babies under 28 days. Clinical guideline [CG98].https://www.nice.org.uk/guidance/cg98. Updated October 2016. Accessed October 17, 2018.
29. Mah MP, Clark SL, Akhigbe E, et al. Reduction of severe hyperbilirubinemia after institution of predischarge bilirubin screening. Pediatrics. 2010;125:e1143-e1148.
30. Darling EK, Ramsay T, Sprague AE, et al. Universal bilirubin screening and health care utilization. Pediatrics. 2014;134:e1017-e1024.
31. Suresh GK, Clark RE. Cost-effectiveness of strategies that are intended to prevent kernicterus in newborn infants. Pediatrics. 2004;114:917-924.
32. Kumar P, Chawla D, Deorari A. Light-emitting diode phototherapy for unconjugated hyperbilirubinaemia in neonates. Cochrane Database Syst Rev. 2011;7:CD007969.
33. Besser I, Perry ZH, Mesner O, et al. Yield of recommended blood tests for neonates requiring phototherapy for hyperbilirubinemia. Isr Med Assoc J. 2010;12:220-224.
34. Iskander I, Gamaleldin R, El Houchi S, et al. Serum bilirubin and bilirubin/albumin ratio as predictors of bilirubin encephalopathy. Pediatrics. 2014;134:e1330-e1339.
35. Aspberg S, Dahlquist G, Kahan T, Källén B. Confirmed association between neonatal phototherapy or neonatal icterus and risk of childhood asthma. Pediatr Allergy Immunol. 2010;21(4 Pt 2):e733-e739.
36. Muchowski KE. Evaluation and treatment of neonatal hyperbilirubinemia. Am Fam Physician. 2014;89:873-878.
37. Kemper K, Forsyth B, McCarthy P. Jaundice, terminating breast-feeding, and the vulnerable child. Pediatrics. 1989;84:773-778.
38. Willis SK, Hannon PR, Scrimshaw SC. The impact of the maternal experience with a jaundiced newborn on the breastfeeding relationship. J Fam Pract. 2002;51:465.
39. The Academy of Breastfeeding Medicine Protocol Committee. ABM clinical protocol #22: guidelines for management of jaundice in the breastfeeding infant equal to or greater than 35 weeks’ gestation. Breastfeed Med. 2010;5:87-93.
40. Honar N, Ghashghaei Saadi E, Saki F, et al. Effect of ursodeoxycholic acid on indirect hyperbilirubinemia in neonates treated with phototherapy. J Pediatr Gastroenterol Nutr. 2016;62:97-100.
41. Suresh GK, Martin CL, Soll RF. Metalloporphyrins for treatment of unconjugated hyperbilirubinemia in neonates. Cochrane Database Syst Rev. 2003;2:CD004207.
42. Muchowski KE. Evaluation and treatment of neonatal hyperbilirubinemia. Am Fam Physician. 2014;89:873-878.
1. Schwartz HP, Haberman BE, Ruddy RM. Hyperbilirubinemia: current guidelines and emerging therapies. Pediatr Emerg Care. 2011;27:884-889.
2. Sarici SU, Serdar MA, Korkmaz A, et al. Incidence, course, and prediction of hyperbilirubinemia in near-term and term newborns. Pediatrics. 2004;113:775-780.
3. Maisels MJ, Kring E. Length of stay, jaundice, and hospital readmission. Pediatrics. 1998;101:995-998.
4. Maisels MJ. Neonatal jaundice. Pediatr Rev. 2006;27:443-454.
5. Gholitabar M, McGuire H, Rennie J, et al. Clofibrate in combination with phototherapy for unconjugated neonatal hyperbilirubinaemia. Cochrane Database Syst Rev. 2012;12:CD009017.
6. Maruo Y, Morioka Y, Fujito H, et al. Bilirubin uridine diphosphate-glucuronosyltransferase variation is a genetic basis of breast milk jaundice. J Pediatr. 2014;165:36-41.e1.
7. Brumbaugh D, Mack C. Conjugated hyperbilirubinemia in children. Pediatr Rev. 2012;33:291-302.
8. Lauer BJ, Spector ND. Hyperbilirubinemia in the newborn. Pediatr Rev. 2011;32:341-349.
9. American Academy of Pediatrics Subcommittee on Hyperbilirubinemia. Management of hyperbilirubinemia in the newborn infant 35 or more weeks of gestation. Pediatrics. 2004;114:297-316.
10. Bertini G, Dani C, Tronchin M, et al. Is breastfeeding really favoring early neonatal jaundice? Pediatrics. 2001;107:E41.
11. Bhutani VK, Johnson L, Sivieri EM. Predictive ability of a predischarge hour-specific serum bilirubin for subsequent significant hyperbilirubinemia in healthy term and near-term newborns. Pediatrics. 1999;103:6-14.
12. Varvarigou A, Fouzas S, Skylogianni E, et al. Transcutaneous bilirubin nomogram for prediction of significant neonatal hyperbilirubinemia. Pediatrics. 2009;124:1052-1059.
13. Gamaleldin R, Iskander I, Seoud I, et al. Risk factors for neurotoxicity in newborns with severe neonatal hyperbilirubinemia. Pediatrics. 2011;128:e925-e931.
14. Wisnowski JL, Panigrahy A, Painter MJ, et al. Magnetic resonance imaging of bilirubin encephalopathy: current limitations and future promise. Semin Perinatol. 2014;38:422-428.
15. Shapiro SM. Chronic bilirubin encephalopathy: diagnosis and outcome. Semin Fetal Neonatal Med. 2010;15:157-163.
16. Kuzniewicz MW, Wickremasinghe AC, Wu YW, et al. Incidence, etiology, and outcomes of hazardous hyperbilirubinemia in newborns. Pediatrics. 2014;134:504-509.
17. Mahram M, Oveisi S, Jaberi N. Trans-cutaneous bilirubinometery versus serum bilirubin in neonatal jaundice. Acta Med Iran. 2015;53:764-769.
18. Campbell DM, Danayan KC, McGovern V, et al. Transcutaneous bilirubin measurement at the time of hospital discharge in a multiethnic newborn population. Paediatr Child Health. 2011;16:141-145.
19. Bhutani VK, Gourley GR, Adler S, et al. Noninvasive measurement of total serum bilirubin in a multiracial predischarge newborn population to assess the risk of severe hyperbilirubinemia. Pediatrics. 2000;106:E17.
20. Holland L, Blick K. Implementing and validating transcutaneous bilirubinometry for neonates. Am J Clin Pathol. 2009;132:555-561.
21. Kolman KB, Mathieson KM, Frias C. A comparison of transcutaneous and total serum bilirubin in newborn Hispanic infants at 35 or more weeks of gestation. J Am Board Fam Med. 2007;20:266-271.
22. Slusher TM, Angyo IA, Bode-Thomas F, et al. Transcutaneous bilirubin measurements and serum total bilirubin levels in indigenous African infants. Pediatrics. 2004;113:1636-1641.
23. Riskin A, Tamir A, Kugelman A, et al. Is visual assessment of jaundice reliable as a screening tool to detect significant neonatal hyperbilirubinemia? J Pediatr. 2008;152:782-787.
24. Bhutani VK, Vilms RJ, Hamerman-Johnson L. Universal bilirubin screening for severe neonatal hyperbilirubinemia. J Perinatol. 2010;30 Suppl:S6-S15.
25. Nagar G, Vandermeer B, Campbell S, et al. Reliability of transcutaneous bilirubin devices in preterm infants: a systematic review. Pediatrics. 2013;132:871-881.
26. Guidelines for detection, management and prevention of hyperbilirubinemia in term and late preterm newborn infants (35 or more weeks’ gestation) - summary. Paediatr Child Health. 2007;12:401-418.
27. US Preventive Services Task Force. Screening of infants for hyperbilirubinemia to prevent chronic bilirubin encephalopathy: US Preventive Services Task Force recommendation statement. Pediatrics. 2009;124:1172-1177.
28. National Institute for Health and Care Excellence. Jaundice in newborn babies under 28 days. Clinical guideline [CG98].https://www.nice.org.uk/guidance/cg98. Updated October 2016. Accessed October 17, 2018.
29. Mah MP, Clark SL, Akhigbe E, et al. Reduction of severe hyperbilirubinemia after institution of predischarge bilirubin screening. Pediatrics. 2010;125:e1143-e1148.
30. Darling EK, Ramsay T, Sprague AE, et al. Universal bilirubin screening and health care utilization. Pediatrics. 2014;134:e1017-e1024.
31. Suresh GK, Clark RE. Cost-effectiveness of strategies that are intended to prevent kernicterus in newborn infants. Pediatrics. 2004;114:917-924.
32. Kumar P, Chawla D, Deorari A. Light-emitting diode phototherapy for unconjugated hyperbilirubinaemia in neonates. Cochrane Database Syst Rev. 2011;7:CD007969.
33. Besser I, Perry ZH, Mesner O, et al. Yield of recommended blood tests for neonates requiring phototherapy for hyperbilirubinemia. Isr Med Assoc J. 2010;12:220-224.
34. Iskander I, Gamaleldin R, El Houchi S, et al. Serum bilirubin and bilirubin/albumin ratio as predictors of bilirubin encephalopathy. Pediatrics. 2014;134:e1330-e1339.
35. Aspberg S, Dahlquist G, Kahan T, Källén B. Confirmed association between neonatal phototherapy or neonatal icterus and risk of childhood asthma. Pediatr Allergy Immunol. 2010;21(4 Pt 2):e733-e739.
36. Muchowski KE. Evaluation and treatment of neonatal hyperbilirubinemia. Am Fam Physician. 2014;89:873-878.
37. Kemper K, Forsyth B, McCarthy P. Jaundice, terminating breast-feeding, and the vulnerable child. Pediatrics. 1989;84:773-778.
38. Willis SK, Hannon PR, Scrimshaw SC. The impact of the maternal experience with a jaundiced newborn on the breastfeeding relationship. J Fam Pract. 2002;51:465.
39. The Academy of Breastfeeding Medicine Protocol Committee. ABM clinical protocol #22: guidelines for management of jaundice in the breastfeeding infant equal to or greater than 35 weeks’ gestation. Breastfeed Med. 2010;5:87-93.
40. Honar N, Ghashghaei Saadi E, Saki F, et al. Effect of ursodeoxycholic acid on indirect hyperbilirubinemia in neonates treated with phototherapy. J Pediatr Gastroenterol Nutr. 2016;62:97-100.
41. Suresh GK, Martin CL, Soll RF. Metalloporphyrins for treatment of unconjugated hyperbilirubinemia in neonates. Cochrane Database Syst Rev. 2003;2:CD004207.
42. Muchowski KE. Evaluation and treatment of neonatal hyperbilirubinemia. Am Fam Physician. 2014;89:873-878.
PRACTICE RECOMMENDATIONS
› Diagnose hyperbilirubinemia in infants with bilirubin measured at >95th percentile for age in hours. Do not use visual assessment of jaundice for diagnosis as it may lead to errors. C
› Determine the threshold for initiation of phototherapy by applying serum bilirubin and age in hours to the American Academy of Pediatrics phototherapy nomogram along a risk curve assigned based on gestational age and neurotoxicity risk factors (not major and minor risk factors for severe hyperbilirubinemia). C
› Make arrangements to ensure that all infants are seen by a health care provider within 2 days of discharge (within 1 day if significant risk factors for development of severe hyperbilirubinemia are present). C
Strength of recommendation (SOR)
A Good-quality patient-oriented evidence
B Inconsistent or limited-quality patient-oriented evidence
C Consensus, usual practice, opinion, disease-oriented evidence, case series
Early parent-child psychotherapy is effective for childhood depression
BROOKLYN, N.Y. – There are studies demonstrating depression is more likely to resolve if depressed parents are also treated dating back more than 10 years, but new evidence suggests this effect may extend to children as young as 3 years of age, according to an update on current strategies for early intervention presented at a pediatric psychopharmacology update held by the American Academy of Child and Adolescent Psychiatry.
Of multiple triggers that can be caught and treated early to prevent children from progressing to chronic depression, addressing parental depression is an important target, according to Karen Dineen Wagner, MD, Director of the Division of Child and Adolescent Psychiatry at the University of Texas Medical Branch in Galveston.
In an overview of strategies for intervening early in children who have or are at risk for depression, Dr. Wagner looked at several targets. The purpose of recognizing and addressing such targets as parental depression is to get children well faster and avoid disease chronicity.
“If we want to intervene and potentially prevent the occurrence of depression, we need to look at disorders or triggers that may precede the depression and that, had they been treated, might have eliminated the stressors that tip the child into depression,” Dr. Wagner said.
Parental depression was just one of these factors, but along with others, such as child abuse of any kind and bullying, each poses a threat for chronic mood disorders, according to Dr. Wagner.
In the case of parental depression, Dr. Wagner cited numerous studies demonstrating a close correlation between remission in the parent and remission in the child. These trajectories interact, so children are less likely to get well if an affected parent does not get well.
“Make sure you consider depression in the parent when you are doing an evaluation, and it is not just depression in the parent who is there. Ask about the other partner who is not there,” Dr. Wagner advised. Parents reluctant to address their own depression should be informed that the mental health of their child is at risk.
The most recent evidence to show benefit from treating both child and parent was drawn from a controlled study that enrolled young children (Luby JL et al. Am J Psychiatry. 2018 Jun 20. doi: 10.1176/appi.ajp.2018.18030321).
In this study, 229 parent-child dyads were randomized to receive parent-child psychotherapy for early childhood depression or to a wait-list. The age range for the children was 3-6.2 years. The therapy was specifically designed to improve the parents’ ability to help young children cope with their feelings.
The parent-child interaction therapy “focused on emotional development which was designed to train parents to work with the child on developing emotional competence in which the child understands their emotions, understands how events affect how they are feeling, and controls emotional reactivity,” Dr. Wagner explained.
For the primary outcome of depression at the end of 18 weeks, the rates were significantly lower in those who participated in the interaction therapy than they were in those on the wait-list. Measures of parent depression and stress were also lower in the therapy group.
Currently, the U. S. Preventive Task Force recommends screening all children at age 12 for depression with the adolescent version of the Patient Health Questionnaire (PHQ-A), according to Dr. Wagner. Given the rising prevalence of depression in adolescents, which climbed 46% from 2005 (8.7%) to 2015 (12.7%) according to a published national survey, this screening is prudent, Dr. Wagner indicated. However, she further suggested that it is reasonable to screen children with risk factors, such as learning disorders or anxiety disorders, even earlier.
The reason is that there are effective therapies. Early treatment may prevent chronic and more severe forms of depression, according to Dr. Wagner. She suggested that there is a growing emphasis on not just treating depression at its early stages but also in recognizing the child at risk, identifying subsyndromal symptoms leading toward depression, and preventing children from ever reaching diagnostic criteria.
Indeed, an initiative for better and earlier detection and treatment of depression in children was begun by the AACAP when Dr. Wagner served recently as its president. Several parts of that program have now been launched. Dr. Wagner encouraged those with an interest to visit the AACAP website, where more information about this initiative can be accessed.
Dr. Wagner reported no potential conflicts of interest.
BROOKLYN, N.Y. – There are studies demonstrating depression is more likely to resolve if depressed parents are also treated dating back more than 10 years, but new evidence suggests this effect may extend to children as young as 3 years of age, according to an update on current strategies for early intervention presented at a pediatric psychopharmacology update held by the American Academy of Child and Adolescent Psychiatry.
Of multiple triggers that can be caught and treated early to prevent children from progressing to chronic depression, addressing parental depression is an important target, according to Karen Dineen Wagner, MD, Director of the Division of Child and Adolescent Psychiatry at the University of Texas Medical Branch in Galveston.
In an overview of strategies for intervening early in children who have or are at risk for depression, Dr. Wagner looked at several targets. The purpose of recognizing and addressing such targets as parental depression is to get children well faster and avoid disease chronicity.
“If we want to intervene and potentially prevent the occurrence of depression, we need to look at disorders or triggers that may precede the depression and that, had they been treated, might have eliminated the stressors that tip the child into depression,” Dr. Wagner said.
Parental depression was just one of these factors, but along with others, such as child abuse of any kind and bullying, each poses a threat for chronic mood disorders, according to Dr. Wagner.
In the case of parental depression, Dr. Wagner cited numerous studies demonstrating a close correlation between remission in the parent and remission in the child. These trajectories interact, so children are less likely to get well if an affected parent does not get well.
“Make sure you consider depression in the parent when you are doing an evaluation, and it is not just depression in the parent who is there. Ask about the other partner who is not there,” Dr. Wagner advised. Parents reluctant to address their own depression should be informed that the mental health of their child is at risk.
The most recent evidence to show benefit from treating both child and parent was drawn from a controlled study that enrolled young children (Luby JL et al. Am J Psychiatry. 2018 Jun 20. doi: 10.1176/appi.ajp.2018.18030321).
In this study, 229 parent-child dyads were randomized to receive parent-child psychotherapy for early childhood depression or to a wait-list. The age range for the children was 3-6.2 years. The therapy was specifically designed to improve the parents’ ability to help young children cope with their feelings.
The parent-child interaction therapy “focused on emotional development which was designed to train parents to work with the child on developing emotional competence in which the child understands their emotions, understands how events affect how they are feeling, and controls emotional reactivity,” Dr. Wagner explained.
For the primary outcome of depression at the end of 18 weeks, the rates were significantly lower in those who participated in the interaction therapy than they were in those on the wait-list. Measures of parent depression and stress were also lower in the therapy group.
Currently, the U. S. Preventive Task Force recommends screening all children at age 12 for depression with the adolescent version of the Patient Health Questionnaire (PHQ-A), according to Dr. Wagner. Given the rising prevalence of depression in adolescents, which climbed 46% from 2005 (8.7%) to 2015 (12.7%) according to a published national survey, this screening is prudent, Dr. Wagner indicated. However, she further suggested that it is reasonable to screen children with risk factors, such as learning disorders or anxiety disorders, even earlier.
The reason is that there are effective therapies. Early treatment may prevent chronic and more severe forms of depression, according to Dr. Wagner. She suggested that there is a growing emphasis on not just treating depression at its early stages but also in recognizing the child at risk, identifying subsyndromal symptoms leading toward depression, and preventing children from ever reaching diagnostic criteria.
Indeed, an initiative for better and earlier detection and treatment of depression in children was begun by the AACAP when Dr. Wagner served recently as its president. Several parts of that program have now been launched. Dr. Wagner encouraged those with an interest to visit the AACAP website, where more information about this initiative can be accessed.
Dr. Wagner reported no potential conflicts of interest.
BROOKLYN, N.Y. – There are studies demonstrating depression is more likely to resolve if depressed parents are also treated dating back more than 10 years, but new evidence suggests this effect may extend to children as young as 3 years of age, according to an update on current strategies for early intervention presented at a pediatric psychopharmacology update held by the American Academy of Child and Adolescent Psychiatry.
Of multiple triggers that can be caught and treated early to prevent children from progressing to chronic depression, addressing parental depression is an important target, according to Karen Dineen Wagner, MD, Director of the Division of Child and Adolescent Psychiatry at the University of Texas Medical Branch in Galveston.
In an overview of strategies for intervening early in children who have or are at risk for depression, Dr. Wagner looked at several targets. The purpose of recognizing and addressing such targets as parental depression is to get children well faster and avoid disease chronicity.
“If we want to intervene and potentially prevent the occurrence of depression, we need to look at disorders or triggers that may precede the depression and that, had they been treated, might have eliminated the stressors that tip the child into depression,” Dr. Wagner said.
Parental depression was just one of these factors, but along with others, such as child abuse of any kind and bullying, each poses a threat for chronic mood disorders, according to Dr. Wagner.
In the case of parental depression, Dr. Wagner cited numerous studies demonstrating a close correlation between remission in the parent and remission in the child. These trajectories interact, so children are less likely to get well if an affected parent does not get well.
“Make sure you consider depression in the parent when you are doing an evaluation, and it is not just depression in the parent who is there. Ask about the other partner who is not there,” Dr. Wagner advised. Parents reluctant to address their own depression should be informed that the mental health of their child is at risk.
The most recent evidence to show benefit from treating both child and parent was drawn from a controlled study that enrolled young children (Luby JL et al. Am J Psychiatry. 2018 Jun 20. doi: 10.1176/appi.ajp.2018.18030321).
In this study, 229 parent-child dyads were randomized to receive parent-child psychotherapy for early childhood depression or to a wait-list. The age range for the children was 3-6.2 years. The therapy was specifically designed to improve the parents’ ability to help young children cope with their feelings.
The parent-child interaction therapy “focused on emotional development which was designed to train parents to work with the child on developing emotional competence in which the child understands their emotions, understands how events affect how they are feeling, and controls emotional reactivity,” Dr. Wagner explained.
For the primary outcome of depression at the end of 18 weeks, the rates were significantly lower in those who participated in the interaction therapy than they were in those on the wait-list. Measures of parent depression and stress were also lower in the therapy group.
Currently, the U. S. Preventive Task Force recommends screening all children at age 12 for depression with the adolescent version of the Patient Health Questionnaire (PHQ-A), according to Dr. Wagner. Given the rising prevalence of depression in adolescents, which climbed 46% from 2005 (8.7%) to 2015 (12.7%) according to a published national survey, this screening is prudent, Dr. Wagner indicated. However, she further suggested that it is reasonable to screen children with risk factors, such as learning disorders or anxiety disorders, even earlier.
The reason is that there are effective therapies. Early treatment may prevent chronic and more severe forms of depression, according to Dr. Wagner. She suggested that there is a growing emphasis on not just treating depression at its early stages but also in recognizing the child at risk, identifying subsyndromal symptoms leading toward depression, and preventing children from ever reaching diagnostic criteria.
Indeed, an initiative for better and earlier detection and treatment of depression in children was begun by the AACAP when Dr. Wagner served recently as its president. Several parts of that program have now been launched. Dr. Wagner encouraged those with an interest to visit the AACAP website, where more information about this initiative can be accessed.
Dr. Wagner reported no potential conflicts of interest.
REPORTING FROM AACAP PEDIATRIC PSYCHOPHARMACOLOGY UPDATE INSTITUTE
Key clinical point: New data expand evidence that treating depression in parents treats depression in children.
Major finding: Interactive psychotherapy was associated with improved outcomes in children as young as 3 years.
Study details: Expert review.
Disclosures: Dr. Wagner reported no potential conflicts of interest.
Half of parents unaware of teens’ suicidal thoughts
Most parents are unaware their teenager has been having suicidal thoughts or thinking about death, according to a study published in Pediatrics.
Jason D. Jones, PhD, from the Children’s Hospital of Philadelphia, and his coauthors wrote that more than two-thirds of adolescents who experience suicidal thoughts do not get medical help, and this may be because their parents – the gatekeepers for mental health services – are unaware of what their teen is going through.
In this study, researchers recruited 5,137 adolescents aged 11-17 years and either a parent or step-parent, and interviewed both about the adolescent’s lifetime suicidal thoughts.
While 413 (8%) of the adolescents surveyed said they had had thoughts about killing themselves, 50% of those adolescents’ parents said their teen hadn’t experienced suicidal thoughts. Similarly, 786 (15%) of adolescents surveyed said they had had thoughts about death and dying, but three-quarters of their parents were unaware.
A significant number of parents – 8% – said their teenager had had suicidal thoughts, but in 48% of these cases, the teenager said they had not thought about killing themselves.
Researchers saw more agreement between parents and adolescents when the adolescents were older: The parents were less likely to be unaware that their older teen had had suicidal thoughts, and older adolescents were less likely to deny it.
“This indicates that younger adolescents may be more likely to go unnoticed and not receive services either because their parents are unaware of their suicidal thoughts or because they deny suicidal thoughts that their parents think they are having,” Dr. Jones and his associates wrote. They also suggested younger adolescents may have “interpretive difficulties” around questions of suicidal ideation.
“These age findings are particularly noteworthy in light of recent evidence that deaths by suicide have increased among younger adolescents,” they noted.
There also was an interaction between age and gender. For girls, parents were less likely to be aware of suicidal thoughts in their younger daughters but more likely to be aware of them in their older daughters. However the opposite was true for boys: Parental unawareness increased slightly in older boys.
Parents of Hispanic or Latino ethnicity were less likely to be aware that their offspring had had thoughts about death and dying.
Generally fathers were less likely than mothers to be aware of suicidal thoughts in their adolescents.
However, if adolescents had previously received psychiatric treatment, or there was a family history of suicide, parents were more likely to be aware of suicidal thoughts, and adolescents who had a history of psychiatric hospitalization were less likely to deny suicidal thoughts, the researchers reported.
The study was supported by grants from the National Institutes of Health, the Dowshen Program for Neuroscience, and the Lifespan Brain Institute of the Children’s Hospital of Philadelphia and University of Pennsylvania. The study was funded by NIH. One author declared a board position and stock options in Taliaz Health unrelated to the study subject; the other authors said they had no relevant financial disclosures.
SOURCE: Jones JD et al. Pediatrics. 2019 Jan 14. doi: 10.1542/peds.2018-1771.
Suicide prevention relies on identifying individuals at risk, but in the case of young people, this often relies on parents. This study, and previous research, highlights the limitations of parent report of adolescents’ suicidal thoughts, as well as the issue of adolescents’ denying suicidal thoughts when parents report them.
Given that as many as 40% of adolescents who think about suicide act on those thoughts, it is vital that we achieve more specificity in identifying young people at risk of attempting suicide. These findings have implications for screening in the primary care setting, and they suggest a need for multi-informant assessments, as well as careful exploration of disagreements between parents’ and adolescent’s reports.
Khyati Brahmbhatt, MD, and Jacqueline Grupp-Phelan, MD, MPH, are from the University of California, San Francisco, Benioff Children’s Hospitals. These comments are taken from an accompanying editorial (Pediatrics. 2019 Jan 14. doi: 10.1542/peds.2018-3071). No conflicts of interest were declared. The editorial was funded by the National Institutes of Health.
Suicide prevention relies on identifying individuals at risk, but in the case of young people, this often relies on parents. This study, and previous research, highlights the limitations of parent report of adolescents’ suicidal thoughts, as well as the issue of adolescents’ denying suicidal thoughts when parents report them.
Given that as many as 40% of adolescents who think about suicide act on those thoughts, it is vital that we achieve more specificity in identifying young people at risk of attempting suicide. These findings have implications for screening in the primary care setting, and they suggest a need for multi-informant assessments, as well as careful exploration of disagreements between parents’ and adolescent’s reports.
Khyati Brahmbhatt, MD, and Jacqueline Grupp-Phelan, MD, MPH, are from the University of California, San Francisco, Benioff Children’s Hospitals. These comments are taken from an accompanying editorial (Pediatrics. 2019 Jan 14. doi: 10.1542/peds.2018-3071). No conflicts of interest were declared. The editorial was funded by the National Institutes of Health.
Suicide prevention relies on identifying individuals at risk, but in the case of young people, this often relies on parents. This study, and previous research, highlights the limitations of parent report of adolescents’ suicidal thoughts, as well as the issue of adolescents’ denying suicidal thoughts when parents report them.
Given that as many as 40% of adolescents who think about suicide act on those thoughts, it is vital that we achieve more specificity in identifying young people at risk of attempting suicide. These findings have implications for screening in the primary care setting, and they suggest a need for multi-informant assessments, as well as careful exploration of disagreements between parents’ and adolescent’s reports.
Khyati Brahmbhatt, MD, and Jacqueline Grupp-Phelan, MD, MPH, are from the University of California, San Francisco, Benioff Children’s Hospitals. These comments are taken from an accompanying editorial (Pediatrics. 2019 Jan 14. doi: 10.1542/peds.2018-3071). No conflicts of interest were declared. The editorial was funded by the National Institutes of Health.
Most parents are unaware their teenager has been having suicidal thoughts or thinking about death, according to a study published in Pediatrics.
Jason D. Jones, PhD, from the Children’s Hospital of Philadelphia, and his coauthors wrote that more than two-thirds of adolescents who experience suicidal thoughts do not get medical help, and this may be because their parents – the gatekeepers for mental health services – are unaware of what their teen is going through.
In this study, researchers recruited 5,137 adolescents aged 11-17 years and either a parent or step-parent, and interviewed both about the adolescent’s lifetime suicidal thoughts.
While 413 (8%) of the adolescents surveyed said they had had thoughts about killing themselves, 50% of those adolescents’ parents said their teen hadn’t experienced suicidal thoughts. Similarly, 786 (15%) of adolescents surveyed said they had had thoughts about death and dying, but three-quarters of their parents were unaware.
A significant number of parents – 8% – said their teenager had had suicidal thoughts, but in 48% of these cases, the teenager said they had not thought about killing themselves.
Researchers saw more agreement between parents and adolescents when the adolescents were older: The parents were less likely to be unaware that their older teen had had suicidal thoughts, and older adolescents were less likely to deny it.
“This indicates that younger adolescents may be more likely to go unnoticed and not receive services either because their parents are unaware of their suicidal thoughts or because they deny suicidal thoughts that their parents think they are having,” Dr. Jones and his associates wrote. They also suggested younger adolescents may have “interpretive difficulties” around questions of suicidal ideation.
“These age findings are particularly noteworthy in light of recent evidence that deaths by suicide have increased among younger adolescents,” they noted.
There also was an interaction between age and gender. For girls, parents were less likely to be aware of suicidal thoughts in their younger daughters but more likely to be aware of them in their older daughters. However the opposite was true for boys: Parental unawareness increased slightly in older boys.
Parents of Hispanic or Latino ethnicity were less likely to be aware that their offspring had had thoughts about death and dying.
Generally fathers were less likely than mothers to be aware of suicidal thoughts in their adolescents.
However, if adolescents had previously received psychiatric treatment, or there was a family history of suicide, parents were more likely to be aware of suicidal thoughts, and adolescents who had a history of psychiatric hospitalization were less likely to deny suicidal thoughts, the researchers reported.
The study was supported by grants from the National Institutes of Health, the Dowshen Program for Neuroscience, and the Lifespan Brain Institute of the Children’s Hospital of Philadelphia and University of Pennsylvania. The study was funded by NIH. One author declared a board position and stock options in Taliaz Health unrelated to the study subject; the other authors said they had no relevant financial disclosures.
SOURCE: Jones JD et al. Pediatrics. 2019 Jan 14. doi: 10.1542/peds.2018-1771.
Most parents are unaware their teenager has been having suicidal thoughts or thinking about death, according to a study published in Pediatrics.
Jason D. Jones, PhD, from the Children’s Hospital of Philadelphia, and his coauthors wrote that more than two-thirds of adolescents who experience suicidal thoughts do not get medical help, and this may be because their parents – the gatekeepers for mental health services – are unaware of what their teen is going through.
In this study, researchers recruited 5,137 adolescents aged 11-17 years and either a parent or step-parent, and interviewed both about the adolescent’s lifetime suicidal thoughts.
While 413 (8%) of the adolescents surveyed said they had had thoughts about killing themselves, 50% of those adolescents’ parents said their teen hadn’t experienced suicidal thoughts. Similarly, 786 (15%) of adolescents surveyed said they had had thoughts about death and dying, but three-quarters of their parents were unaware.
A significant number of parents – 8% – said their teenager had had suicidal thoughts, but in 48% of these cases, the teenager said they had not thought about killing themselves.
Researchers saw more agreement between parents and adolescents when the adolescents were older: The parents were less likely to be unaware that their older teen had had suicidal thoughts, and older adolescents were less likely to deny it.
“This indicates that younger adolescents may be more likely to go unnoticed and not receive services either because their parents are unaware of their suicidal thoughts or because they deny suicidal thoughts that their parents think they are having,” Dr. Jones and his associates wrote. They also suggested younger adolescents may have “interpretive difficulties” around questions of suicidal ideation.
“These age findings are particularly noteworthy in light of recent evidence that deaths by suicide have increased among younger adolescents,” they noted.
There also was an interaction between age and gender. For girls, parents were less likely to be aware of suicidal thoughts in their younger daughters but more likely to be aware of them in their older daughters. However the opposite was true for boys: Parental unawareness increased slightly in older boys.
Parents of Hispanic or Latino ethnicity were less likely to be aware that their offspring had had thoughts about death and dying.
Generally fathers were less likely than mothers to be aware of suicidal thoughts in their adolescents.
However, if adolescents had previously received psychiatric treatment, or there was a family history of suicide, parents were more likely to be aware of suicidal thoughts, and adolescents who had a history of psychiatric hospitalization were less likely to deny suicidal thoughts, the researchers reported.
The study was supported by grants from the National Institutes of Health, the Dowshen Program for Neuroscience, and the Lifespan Brain Institute of the Children’s Hospital of Philadelphia and University of Pennsylvania. The study was funded by NIH. One author declared a board position and stock options in Taliaz Health unrelated to the study subject; the other authors said they had no relevant financial disclosures.
SOURCE: Jones JD et al. Pediatrics. 2019 Jan 14. doi: 10.1542/peds.2018-1771.
FROM PEDIATRICS
Key clinical point: Many parents are unaware of their teenager’s suicidal thoughts.
Major finding: Half of parents are unaware that their adolescent child has had suicidal thoughts.
Study details: Survey of 5,137 adolescents and their parents or step-parents.
Disclosures: The study was supported by grants from the National Institutes of Health, the Dowshen Program for Neuroscience, and the Lifespan Brain Institute of the Children’s Hospital of Philadelphia and University of Pennsylvania. The study was funded by NIH. One author declared a board position and stock options in Taliaz Health unrelated to the study subject; the other authors said they had no relevant financial disclosures.
Source: Jones JD et al. Pediatrics. 2019, Jan 14. doi: 10.1542/peds.2018-1771.
FDA approves 0.5-mL Fluzone Quadrivalent vaccine in young children
according to Sanofi Pasteur, the vaccine’s manufacturer.
FDA approval was based on results of a phase 4 safety and immunogenicity study of nearly 2,000 children. Children aged 6-35 months who received one or two doses of Fluzone at 0.50 mL had a safety profile similar to that of children who received one or two doses of Fluzone at 0.25 mL. Results from the study were presented at the Pediatric Academic Societies annual meeting in April 2018.
This flu vaccine should not be given to anyone with a severe allergic reaction (anaphylaxis) to egg or egg products, according to the press release.
In children, the most common adverse events are injection site reactions, muscle aches, fatigue, and headache; in young children, irritability, abnormal crying, drowsiness, appetite loss, vomiting, and fever are common.
“Offering pediatricians the convenience of the same 0.5-mL dose option for children may help streamline immunization efforts. The potentially life-threatening effects of influenza in children reported during the 2017-18 season, especially among those who were not vaccinated, is sobering,” David P. Greenberg, MD, regional medical head of Sanofi Pasteur of North America, said in the press release.
Find the full press release on the Sanofi website.
according to Sanofi Pasteur, the vaccine’s manufacturer.
FDA approval was based on results of a phase 4 safety and immunogenicity study of nearly 2,000 children. Children aged 6-35 months who received one or two doses of Fluzone at 0.50 mL had a safety profile similar to that of children who received one or two doses of Fluzone at 0.25 mL. Results from the study were presented at the Pediatric Academic Societies annual meeting in April 2018.
This flu vaccine should not be given to anyone with a severe allergic reaction (anaphylaxis) to egg or egg products, according to the press release.
In children, the most common adverse events are injection site reactions, muscle aches, fatigue, and headache; in young children, irritability, abnormal crying, drowsiness, appetite loss, vomiting, and fever are common.
“Offering pediatricians the convenience of the same 0.5-mL dose option for children may help streamline immunization efforts. The potentially life-threatening effects of influenza in children reported during the 2017-18 season, especially among those who were not vaccinated, is sobering,” David P. Greenberg, MD, regional medical head of Sanofi Pasteur of North America, said in the press release.
Find the full press release on the Sanofi website.
according to Sanofi Pasteur, the vaccine’s manufacturer.
FDA approval was based on results of a phase 4 safety and immunogenicity study of nearly 2,000 children. Children aged 6-35 months who received one or two doses of Fluzone at 0.50 mL had a safety profile similar to that of children who received one or two doses of Fluzone at 0.25 mL. Results from the study were presented at the Pediatric Academic Societies annual meeting in April 2018.
This flu vaccine should not be given to anyone with a severe allergic reaction (anaphylaxis) to egg or egg products, according to the press release.
In children, the most common adverse events are injection site reactions, muscle aches, fatigue, and headache; in young children, irritability, abnormal crying, drowsiness, appetite loss, vomiting, and fever are common.
“Offering pediatricians the convenience of the same 0.5-mL dose option for children may help streamline immunization efforts. The potentially life-threatening effects of influenza in children reported during the 2017-18 season, especially among those who were not vaccinated, is sobering,” David P. Greenberg, MD, regional medical head of Sanofi Pasteur of North America, said in the press release.
Find the full press release on the Sanofi website.
Buprenorphine for NAS shows promise in reducing length of stay
In what is believed to be the first study of its kind to compare all available pharmacologic treatment options for relief of symptoms associated with neonatal abstinence syndrome (NAS), buprenorphine has the greatest probability of reducing duration of treatment and length of stay among newborns, reported Timothy Disher, PhD, of Dalhousie University School of Nursing, Halifax, N.S., and his associates.
It was noteworthy that the study also found morphine and phenobarbital monotherapies to be worst in overall effectiveness and ranking because these pharmacotherapies are the most frequently used treatments in the United States, according to the authors. Dr. Disher and his associates underscored the need for concern over the common rationale of treatment centers, especially in using phenobarbital, since the American Academy of Pediatrics “highlights that phenobarbital is most commonly used only as adjuvant therapy” and was not intended as a first-line treatment.
In their efforts to identify treatments that are most effective at easing the symptoms of NAS, Dr. Disher and his colleagues conducted a systematic review and network meta-analysis in June 2018, which included a search of the Cochrane Central Register of Controlled Trials, Ovid MEDLINE, Embase, and the Web of Science Core Collection. In addition, they referenced ClinicalTrials.gov to identify relevant ongoing trials. Studies ultimately included in the review were randomized clinical trials comparing at least two pharmacotherapies prescribed for NAS that had been published in peer-reviewed journals.
Eighteen studies examining treatment for NAS among 1,072 newborns, including 10 studies published since 2000, were identified; the remaining studies were published between 1977 and 1986. Altogether, eight treatment interventions were examined across 10 studies
Dr. Disher and his associates reported that, during 2004-2014, there was a fivefold increase in the number of babies presenting with NAS, from 1.5/1,000 live births to 8.0/1,000, which represented a sevenfold increase in treatment cost in the Medicaid population during the same period, from $65.4 million to $462 million.
Although Dr. Disher and his colleagues acknowledged that buprenorphine was identified as best treatment by median ranks, “the ranks for most treatments are imprecise,” they said. According to results of their analysis, buprenorphine was associated with a reduction in 2.19 days of treatment, compared with clonidine, and 12.75 days, compared with morphine. In terms of secondary outcomes, buprenorphine was associated with a reduction in length of stay of 5.35 days, compared with clonidine, and 11.43 days, compared with morphine.
Seven of the studies evaluated (n = 394) included infants requiring adjuvant treatment. Agthe et al. reported that no infants in the concomitant diluted tincture of opium (DTO) and clonidine arm needed adjuvant treatment compared with five infants in the DTO-only arm who did. Surran et al. reported 2 of 32 infants who failed attempts to wean in the concomitant morphine and clonidine group compared with none of the 34 who were in the morphine and phenobarbital group.
In terms of adverse events, one study reported a seizure that was unrelated to treatment (Kraft et al). Agthe et al. reported three infants experiencing seizure in the DTO-only group compared with no infants who received concomitant clonidine. In Surran et al., three infants receiving concomitant phenobarbital and morphine were reported to be oversedated.
In general, the rationale explaining differences in why pharmacologic therapies affect treatment length is underdeveloped, the authors said. Buprenorphine, in particular, is favored because of its ease of dosing schedule and the possible improved safety profile given its longer half-life and greater micro-opioid receptor activity. It has been further suggested that the prolonged half-life of buprenorphine may be responsible for preventing sudden withdrawal symptoms. The researchers found no significant adverse events associated with buprenorphine treatment.
Although there were differences across buprenorphine treatment protocols, Dr. Disher and his colleagues noted that they were “broadly similar.” The authors conceded, however, that there is reason to question “how much of the observed improvement in buprenorphine may be attributable to the differences in optimization of the treatment and weaning protocols.”
Based on findings in this review, the authors caution that it is unlikely “that the current evidence base is sufficient to recommend specific large-scale changes in treatment away from the current standard of care.”
Despite recent research, which proposes trying nonpharmacologic treatments first and incorporating shared rooms for families and infants to reduce length of stay when treatment is required, up to 70% of infants ultimately require pharmacologic treatment. When drug therapy is needed, the average length of stay and overall treatment costs double, 10.9 vs. 22 days and $20,708 vs. $44,720, respectively.
Since results of the analysis show benefit, however variable, in reducing the length of treatment, “continued efforts to identify the optimal pharmacological agents are justified,” urged Dr. Disher and his associates.
Ultimately, before buprenorphine can be considered as a universally accepted standard of care in the treatment of NAS, “a large multisite pragmatic trial that compares buprenorphine with other treatments” will be needed.
One of the researchers – Chris Cameron, PhD – is an employee and holds shares of the Cornerstone Research Group, which provides consultant services to various pharmaceutical and device companies. Dr. Disher is a subcontractor for the Cornerstone Research Group. There were no other disclosures to report.
SOURCE: Disher T et al. JAMA Pediatr. 2019. doi: 10.1001/jamapediatrics.2018.5044.
Most of the 50%-80% of newborns treated for NAS are treated pharmacologically in newborn ICUs at significant cost ($93,400 for mean stay of 23 days). To date, the wide variations in care, including pharmacologic options for treating NAS, leave clinicians with no consensus regarding which medication is best. The further absence of high-quality studies that depict effective management strategies for NAS offers “little guidance to inform best practice recommendations,” Elisha M. Wachman, MD, and Martha M. Werler, DSc, wrote in an editorial published with the study.
The network analysis approach followed by Disher et al. requires some assumptions, namely “minimal bias and homogeneity of methods,” the authors observed. Yet, some of the randomized, clinical trials included in their evaluation were “not blinded and thus carry high risk of bias.” In addition, given the varied methods employed across the studies cited, “the primary findings of this meta-analysis warrant further discussion.”
Disher et al. concede that the benefits afforded with buprenorphine treatment could be more pronounced because of the dosing and weaning methods rather than from the effect of the medicine alone. Given that some studies cited did experience a shorter absolute median length of treatment with morphine, it is possible that the shortened lengths of treatment and stay concerning buprenorphine treatment “may be overestimates,” suggested Dr. Wachman and Dr. Werler.
Because of the extent of variability across studies cited, “results of the network meta-analysis by Disher et al. should be interpreted with caution.” It is worth noting that most of the studies evaluated did not “examine long-term outcomes beyond the initial birth hospitalization.” The question is: Does shorter length of treatment lead to improved long-term outcomes, or “does it put the infant at risk for readmission and altered neurobehavior and development?”
Although the researchers provide evidence of buprenorphine’s effectiveness in significantly shortening length of treatment, compared with morphine, “results should be interpreted with caution given the small number of RCTs, small sample sizes, heterogeneous methods and study populations, and lack of long-term outcome data.”
Dr. Wachman is affiliated with the department of pediatrics, Boston Medical Center. Dr. Werler is chair of the department of epidemiology, Boston University School of Public Health. The authors were supported by a grant from the National Institute of Child Health and Human Development. Dr. Werler also is supported by a grant from the Centers for Disease Control and Prevention/Massachusetts Department of Public Health. This editorial accompanied the article by Disher et al. (JAMA Pediatrics. 2019. doi: 10. 1001/jamapediatric.2018.5029).
Most of the 50%-80% of newborns treated for NAS are treated pharmacologically in newborn ICUs at significant cost ($93,400 for mean stay of 23 days). To date, the wide variations in care, including pharmacologic options for treating NAS, leave clinicians with no consensus regarding which medication is best. The further absence of high-quality studies that depict effective management strategies for NAS offers “little guidance to inform best practice recommendations,” Elisha M. Wachman, MD, and Martha M. Werler, DSc, wrote in an editorial published with the study.
The network analysis approach followed by Disher et al. requires some assumptions, namely “minimal bias and homogeneity of methods,” the authors observed. Yet, some of the randomized, clinical trials included in their evaluation were “not blinded and thus carry high risk of bias.” In addition, given the varied methods employed across the studies cited, “the primary findings of this meta-analysis warrant further discussion.”
Disher et al. concede that the benefits afforded with buprenorphine treatment could be more pronounced because of the dosing and weaning methods rather than from the effect of the medicine alone. Given that some studies cited did experience a shorter absolute median length of treatment with morphine, it is possible that the shortened lengths of treatment and stay concerning buprenorphine treatment “may be overestimates,” suggested Dr. Wachman and Dr. Werler.
Because of the extent of variability across studies cited, “results of the network meta-analysis by Disher et al. should be interpreted with caution.” It is worth noting that most of the studies evaluated did not “examine long-term outcomes beyond the initial birth hospitalization.” The question is: Does shorter length of treatment lead to improved long-term outcomes, or “does it put the infant at risk for readmission and altered neurobehavior and development?”
Although the researchers provide evidence of buprenorphine’s effectiveness in significantly shortening length of treatment, compared with morphine, “results should be interpreted with caution given the small number of RCTs, small sample sizes, heterogeneous methods and study populations, and lack of long-term outcome data.”
Dr. Wachman is affiliated with the department of pediatrics, Boston Medical Center. Dr. Werler is chair of the department of epidemiology, Boston University School of Public Health. The authors were supported by a grant from the National Institute of Child Health and Human Development. Dr. Werler also is supported by a grant from the Centers for Disease Control and Prevention/Massachusetts Department of Public Health. This editorial accompanied the article by Disher et al. (JAMA Pediatrics. 2019. doi: 10. 1001/jamapediatric.2018.5029).
Most of the 50%-80% of newborns treated for NAS are treated pharmacologically in newborn ICUs at significant cost ($93,400 for mean stay of 23 days). To date, the wide variations in care, including pharmacologic options for treating NAS, leave clinicians with no consensus regarding which medication is best. The further absence of high-quality studies that depict effective management strategies for NAS offers “little guidance to inform best practice recommendations,” Elisha M. Wachman, MD, and Martha M. Werler, DSc, wrote in an editorial published with the study.
The network analysis approach followed by Disher et al. requires some assumptions, namely “minimal bias and homogeneity of methods,” the authors observed. Yet, some of the randomized, clinical trials included in their evaluation were “not blinded and thus carry high risk of bias.” In addition, given the varied methods employed across the studies cited, “the primary findings of this meta-analysis warrant further discussion.”
Disher et al. concede that the benefits afforded with buprenorphine treatment could be more pronounced because of the dosing and weaning methods rather than from the effect of the medicine alone. Given that some studies cited did experience a shorter absolute median length of treatment with morphine, it is possible that the shortened lengths of treatment and stay concerning buprenorphine treatment “may be overestimates,” suggested Dr. Wachman and Dr. Werler.
Because of the extent of variability across studies cited, “results of the network meta-analysis by Disher et al. should be interpreted with caution.” It is worth noting that most of the studies evaluated did not “examine long-term outcomes beyond the initial birth hospitalization.” The question is: Does shorter length of treatment lead to improved long-term outcomes, or “does it put the infant at risk for readmission and altered neurobehavior and development?”
Although the researchers provide evidence of buprenorphine’s effectiveness in significantly shortening length of treatment, compared with morphine, “results should be interpreted with caution given the small number of RCTs, small sample sizes, heterogeneous methods and study populations, and lack of long-term outcome data.”
Dr. Wachman is affiliated with the department of pediatrics, Boston Medical Center. Dr. Werler is chair of the department of epidemiology, Boston University School of Public Health. The authors were supported by a grant from the National Institute of Child Health and Human Development. Dr. Werler also is supported by a grant from the Centers for Disease Control and Prevention/Massachusetts Department of Public Health. This editorial accompanied the article by Disher et al. (JAMA Pediatrics. 2019. doi: 10. 1001/jamapediatric.2018.5029).
In what is believed to be the first study of its kind to compare all available pharmacologic treatment options for relief of symptoms associated with neonatal abstinence syndrome (NAS), buprenorphine has the greatest probability of reducing duration of treatment and length of stay among newborns, reported Timothy Disher, PhD, of Dalhousie University School of Nursing, Halifax, N.S., and his associates.
It was noteworthy that the study also found morphine and phenobarbital monotherapies to be worst in overall effectiveness and ranking because these pharmacotherapies are the most frequently used treatments in the United States, according to the authors. Dr. Disher and his associates underscored the need for concern over the common rationale of treatment centers, especially in using phenobarbital, since the American Academy of Pediatrics “highlights that phenobarbital is most commonly used only as adjuvant therapy” and was not intended as a first-line treatment.
In their efforts to identify treatments that are most effective at easing the symptoms of NAS, Dr. Disher and his colleagues conducted a systematic review and network meta-analysis in June 2018, which included a search of the Cochrane Central Register of Controlled Trials, Ovid MEDLINE, Embase, and the Web of Science Core Collection. In addition, they referenced ClinicalTrials.gov to identify relevant ongoing trials. Studies ultimately included in the review were randomized clinical trials comparing at least two pharmacotherapies prescribed for NAS that had been published in peer-reviewed journals.
Eighteen studies examining treatment for NAS among 1,072 newborns, including 10 studies published since 2000, were identified; the remaining studies were published between 1977 and 1986. Altogether, eight treatment interventions were examined across 10 studies
Dr. Disher and his associates reported that, during 2004-2014, there was a fivefold increase in the number of babies presenting with NAS, from 1.5/1,000 live births to 8.0/1,000, which represented a sevenfold increase in treatment cost in the Medicaid population during the same period, from $65.4 million to $462 million.
Although Dr. Disher and his colleagues acknowledged that buprenorphine was identified as best treatment by median ranks, “the ranks for most treatments are imprecise,” they said. According to results of their analysis, buprenorphine was associated with a reduction in 2.19 days of treatment, compared with clonidine, and 12.75 days, compared with morphine. In terms of secondary outcomes, buprenorphine was associated with a reduction in length of stay of 5.35 days, compared with clonidine, and 11.43 days, compared with morphine.
Seven of the studies evaluated (n = 394) included infants requiring adjuvant treatment. Agthe et al. reported that no infants in the concomitant diluted tincture of opium (DTO) and clonidine arm needed adjuvant treatment compared with five infants in the DTO-only arm who did. Surran et al. reported 2 of 32 infants who failed attempts to wean in the concomitant morphine and clonidine group compared with none of the 34 who were in the morphine and phenobarbital group.
In terms of adverse events, one study reported a seizure that was unrelated to treatment (Kraft et al). Agthe et al. reported three infants experiencing seizure in the DTO-only group compared with no infants who received concomitant clonidine. In Surran et al., three infants receiving concomitant phenobarbital and morphine were reported to be oversedated.
In general, the rationale explaining differences in why pharmacologic therapies affect treatment length is underdeveloped, the authors said. Buprenorphine, in particular, is favored because of its ease of dosing schedule and the possible improved safety profile given its longer half-life and greater micro-opioid receptor activity. It has been further suggested that the prolonged half-life of buprenorphine may be responsible for preventing sudden withdrawal symptoms. The researchers found no significant adverse events associated with buprenorphine treatment.
Although there were differences across buprenorphine treatment protocols, Dr. Disher and his colleagues noted that they were “broadly similar.” The authors conceded, however, that there is reason to question “how much of the observed improvement in buprenorphine may be attributable to the differences in optimization of the treatment and weaning protocols.”
Based on findings in this review, the authors caution that it is unlikely “that the current evidence base is sufficient to recommend specific large-scale changes in treatment away from the current standard of care.”
Despite recent research, which proposes trying nonpharmacologic treatments first and incorporating shared rooms for families and infants to reduce length of stay when treatment is required, up to 70% of infants ultimately require pharmacologic treatment. When drug therapy is needed, the average length of stay and overall treatment costs double, 10.9 vs. 22 days and $20,708 vs. $44,720, respectively.
Since results of the analysis show benefit, however variable, in reducing the length of treatment, “continued efforts to identify the optimal pharmacological agents are justified,” urged Dr. Disher and his associates.
Ultimately, before buprenorphine can be considered as a universally accepted standard of care in the treatment of NAS, “a large multisite pragmatic trial that compares buprenorphine with other treatments” will be needed.
One of the researchers – Chris Cameron, PhD – is an employee and holds shares of the Cornerstone Research Group, which provides consultant services to various pharmaceutical and device companies. Dr. Disher is a subcontractor for the Cornerstone Research Group. There were no other disclosures to report.
SOURCE: Disher T et al. JAMA Pediatr. 2019. doi: 10.1001/jamapediatrics.2018.5044.
In what is believed to be the first study of its kind to compare all available pharmacologic treatment options for relief of symptoms associated with neonatal abstinence syndrome (NAS), buprenorphine has the greatest probability of reducing duration of treatment and length of stay among newborns, reported Timothy Disher, PhD, of Dalhousie University School of Nursing, Halifax, N.S., and his associates.
It was noteworthy that the study also found morphine and phenobarbital monotherapies to be worst in overall effectiveness and ranking because these pharmacotherapies are the most frequently used treatments in the United States, according to the authors. Dr. Disher and his associates underscored the need for concern over the common rationale of treatment centers, especially in using phenobarbital, since the American Academy of Pediatrics “highlights that phenobarbital is most commonly used only as adjuvant therapy” and was not intended as a first-line treatment.
In their efforts to identify treatments that are most effective at easing the symptoms of NAS, Dr. Disher and his colleagues conducted a systematic review and network meta-analysis in June 2018, which included a search of the Cochrane Central Register of Controlled Trials, Ovid MEDLINE, Embase, and the Web of Science Core Collection. In addition, they referenced ClinicalTrials.gov to identify relevant ongoing trials. Studies ultimately included in the review were randomized clinical trials comparing at least two pharmacotherapies prescribed for NAS that had been published in peer-reviewed journals.
Eighteen studies examining treatment for NAS among 1,072 newborns, including 10 studies published since 2000, were identified; the remaining studies were published between 1977 and 1986. Altogether, eight treatment interventions were examined across 10 studies
Dr. Disher and his associates reported that, during 2004-2014, there was a fivefold increase in the number of babies presenting with NAS, from 1.5/1,000 live births to 8.0/1,000, which represented a sevenfold increase in treatment cost in the Medicaid population during the same period, from $65.4 million to $462 million.
Although Dr. Disher and his colleagues acknowledged that buprenorphine was identified as best treatment by median ranks, “the ranks for most treatments are imprecise,” they said. According to results of their analysis, buprenorphine was associated with a reduction in 2.19 days of treatment, compared with clonidine, and 12.75 days, compared with morphine. In terms of secondary outcomes, buprenorphine was associated with a reduction in length of stay of 5.35 days, compared with clonidine, and 11.43 days, compared with morphine.
Seven of the studies evaluated (n = 394) included infants requiring adjuvant treatment. Agthe et al. reported that no infants in the concomitant diluted tincture of opium (DTO) and clonidine arm needed adjuvant treatment compared with five infants in the DTO-only arm who did. Surran et al. reported 2 of 32 infants who failed attempts to wean in the concomitant morphine and clonidine group compared with none of the 34 who were in the morphine and phenobarbital group.
In terms of adverse events, one study reported a seizure that was unrelated to treatment (Kraft et al). Agthe et al. reported three infants experiencing seizure in the DTO-only group compared with no infants who received concomitant clonidine. In Surran et al., three infants receiving concomitant phenobarbital and morphine were reported to be oversedated.
In general, the rationale explaining differences in why pharmacologic therapies affect treatment length is underdeveloped, the authors said. Buprenorphine, in particular, is favored because of its ease of dosing schedule and the possible improved safety profile given its longer half-life and greater micro-opioid receptor activity. It has been further suggested that the prolonged half-life of buprenorphine may be responsible for preventing sudden withdrawal symptoms. The researchers found no significant adverse events associated with buprenorphine treatment.
Although there were differences across buprenorphine treatment protocols, Dr. Disher and his colleagues noted that they were “broadly similar.” The authors conceded, however, that there is reason to question “how much of the observed improvement in buprenorphine may be attributable to the differences in optimization of the treatment and weaning protocols.”
Based on findings in this review, the authors caution that it is unlikely “that the current evidence base is sufficient to recommend specific large-scale changes in treatment away from the current standard of care.”
Despite recent research, which proposes trying nonpharmacologic treatments first and incorporating shared rooms for families and infants to reduce length of stay when treatment is required, up to 70% of infants ultimately require pharmacologic treatment. When drug therapy is needed, the average length of stay and overall treatment costs double, 10.9 vs. 22 days and $20,708 vs. $44,720, respectively.
Since results of the analysis show benefit, however variable, in reducing the length of treatment, “continued efforts to identify the optimal pharmacological agents are justified,” urged Dr. Disher and his associates.
Ultimately, before buprenorphine can be considered as a universally accepted standard of care in the treatment of NAS, “a large multisite pragmatic trial that compares buprenorphine with other treatments” will be needed.
One of the researchers – Chris Cameron, PhD – is an employee and holds shares of the Cornerstone Research Group, which provides consultant services to various pharmaceutical and device companies. Dr. Disher is a subcontractor for the Cornerstone Research Group. There were no other disclosures to report.
SOURCE: Disher T et al. JAMA Pediatr. 2019. doi: 10.1001/jamapediatrics.2018.5044.
FROM JAMA PEDIATRICS
Key clinical point: A larger study comparing buprenorphine and morphine is needed to confirm study findings.
Major finding: Although morphine and phenobarbital are prescribed most frequently in the United States, they were found to be the least effective treatments available.
Study details: Systematic review and network meta-analysis.
Disclosures: The authors had no financial relationships relevant to this article to disclose.
Source: Disher T et al. JAMA Pediatr. 2019. doi: 10.1001/jamapediatrics.2018.5044.
Stigma against gay fathers still common, especially in low-equality states
Gay men who become fathers still commonly experience barriers and stigma, but those living in states that offer legal protections experienced less stigma and fewer barriers, according to Ellen C. Perrin, MD, of Tufts Medical Center in Boston and her associates.
A total of 732 fathers living in 47 states, with 1,316 children (average age, 13 years), responded to a survey, they wrote in Pediatrics. More than 80% had a male partner, 64% had earned a bachelor degree or higher, and 81% were white and non-Hispanic.
In 35% of cases, children entered a family through adoption and/or foster care, 14% through the assistance of a pregnancy carrier or surrogate, and 39% through a heterosexual relationship. Families in states with fewer legal protections were more likely to have been formed through heterosexual relationships (odds ratio, 1.42; 95% confidence interval, 1.11-1.81), while families in states with a greater equality rating were more likely to have been formed through a pregnancy surrogate (OR, 1.41; 95% CI, 1.08-1.84). A total of 41% of fathers reported facing barriers to adoption, and 33% reported having difficulty arranging custody of children born in a heterosexual relationship.
Active stigma experienced by the fathers was most commonly experienced in a religious setting, reported by 35%, with other common sources including neighbors (28%), service providers (26%), family members (24%), gay friends (24%), the child’s school (18%), the workplace (16%), and in health care (11%). Children most often experienced active stigma by their friends (33%), followed by a religious setting (17%), school (16%), neighbors (15%), family (11%), and in health care settings (4%).
Active and avoidant stigma was more likely in states with a low equality rating, especially in religious settings and among family members and neighbors, the investigators noted.
“Given their important role as leaders in the community’s support for all families, pediatricians caring for children and their gay fathers should recognize the likelihood that stigma may be a part of the family’s experience and help both families and communities to counteract it. Pediatricians also have the opportunity to be leaders in opposing discrimination in religious and other community institutions,” Dr. Perrin and her associates wrote.
The study received funding from the Gil Foundation, the Arcus Foundation, and private donations. The study authors reported no relevant financial disclosures or conflicts of interest.
SOURCE: Perrin EC et al. Pediatrics. 2019 Jan 14. doi: 10.1542/peds.2018-0683.
Gay men who become fathers still commonly experience barriers and stigma, but those living in states that offer legal protections experienced less stigma and fewer barriers, according to Ellen C. Perrin, MD, of Tufts Medical Center in Boston and her associates.
A total of 732 fathers living in 47 states, with 1,316 children (average age, 13 years), responded to a survey, they wrote in Pediatrics. More than 80% had a male partner, 64% had earned a bachelor degree or higher, and 81% were white and non-Hispanic.
In 35% of cases, children entered a family through adoption and/or foster care, 14% through the assistance of a pregnancy carrier or surrogate, and 39% through a heterosexual relationship. Families in states with fewer legal protections were more likely to have been formed through heterosexual relationships (odds ratio, 1.42; 95% confidence interval, 1.11-1.81), while families in states with a greater equality rating were more likely to have been formed through a pregnancy surrogate (OR, 1.41; 95% CI, 1.08-1.84). A total of 41% of fathers reported facing barriers to adoption, and 33% reported having difficulty arranging custody of children born in a heterosexual relationship.
Active stigma experienced by the fathers was most commonly experienced in a religious setting, reported by 35%, with other common sources including neighbors (28%), service providers (26%), family members (24%), gay friends (24%), the child’s school (18%), the workplace (16%), and in health care (11%). Children most often experienced active stigma by their friends (33%), followed by a religious setting (17%), school (16%), neighbors (15%), family (11%), and in health care settings (4%).
Active and avoidant stigma was more likely in states with a low equality rating, especially in religious settings and among family members and neighbors, the investigators noted.
“Given their important role as leaders in the community’s support for all families, pediatricians caring for children and their gay fathers should recognize the likelihood that stigma may be a part of the family’s experience and help both families and communities to counteract it. Pediatricians also have the opportunity to be leaders in opposing discrimination in religious and other community institutions,” Dr. Perrin and her associates wrote.
The study received funding from the Gil Foundation, the Arcus Foundation, and private donations. The study authors reported no relevant financial disclosures or conflicts of interest.
SOURCE: Perrin EC et al. Pediatrics. 2019 Jan 14. doi: 10.1542/peds.2018-0683.
Gay men who become fathers still commonly experience barriers and stigma, but those living in states that offer legal protections experienced less stigma and fewer barriers, according to Ellen C. Perrin, MD, of Tufts Medical Center in Boston and her associates.
A total of 732 fathers living in 47 states, with 1,316 children (average age, 13 years), responded to a survey, they wrote in Pediatrics. More than 80% had a male partner, 64% had earned a bachelor degree or higher, and 81% were white and non-Hispanic.
In 35% of cases, children entered a family through adoption and/or foster care, 14% through the assistance of a pregnancy carrier or surrogate, and 39% through a heterosexual relationship. Families in states with fewer legal protections were more likely to have been formed through heterosexual relationships (odds ratio, 1.42; 95% confidence interval, 1.11-1.81), while families in states with a greater equality rating were more likely to have been formed through a pregnancy surrogate (OR, 1.41; 95% CI, 1.08-1.84). A total of 41% of fathers reported facing barriers to adoption, and 33% reported having difficulty arranging custody of children born in a heterosexual relationship.
Active stigma experienced by the fathers was most commonly experienced in a religious setting, reported by 35%, with other common sources including neighbors (28%), service providers (26%), family members (24%), gay friends (24%), the child’s school (18%), the workplace (16%), and in health care (11%). Children most often experienced active stigma by their friends (33%), followed by a religious setting (17%), school (16%), neighbors (15%), family (11%), and in health care settings (4%).
Active and avoidant stigma was more likely in states with a low equality rating, especially in religious settings and among family members and neighbors, the investigators noted.
“Given their important role as leaders in the community’s support for all families, pediatricians caring for children and their gay fathers should recognize the likelihood that stigma may be a part of the family’s experience and help both families and communities to counteract it. Pediatricians also have the opportunity to be leaders in opposing discrimination in religious and other community institutions,” Dr. Perrin and her associates wrote.
The study received funding from the Gil Foundation, the Arcus Foundation, and private donations. The study authors reported no relevant financial disclosures or conflicts of interest.
SOURCE: Perrin EC et al. Pediatrics. 2019 Jan 14. doi: 10.1542/peds.2018-0683.
FROM PEDIATRICS
Device approved to treat PDA in premature infants
weighing as little as 2 pounds.
PDA is a life-threatening opening between two blood vessels leading from the heart and commonly occurs in premature infants, with about one in five infants born prematurely having a hemodynamically significant PDA. The Amplatzer Piccolo Occluder is a self-expanding, wire mesh device that is minimally invasive and is the first device approved for use in very-low-birth-weight infants.
FDA approval was based on results of the ADO II AS trial, which evaluated the device in 50 patients with PDA who were older than 3 days. In addition, the safety and efficacy of the Amplatzer Piccolo Occluder was supported by a continued access protocol involving 150 more patients.
“This approval is a potentially life-saving advance for the very smallest premature infants that will help us treat these delicate babies who might otherwise not be able to survive,” said Evan Zahn, MD, principal investigator of ADO II AS and director of the congenital heart program at Cedars-Sinai’s Smidt Heart Institute in Los Angeles.
Find the full press release on the Abbott website.
weighing as little as 2 pounds.
PDA is a life-threatening opening between two blood vessels leading from the heart and commonly occurs in premature infants, with about one in five infants born prematurely having a hemodynamically significant PDA. The Amplatzer Piccolo Occluder is a self-expanding, wire mesh device that is minimally invasive and is the first device approved for use in very-low-birth-weight infants.
FDA approval was based on results of the ADO II AS trial, which evaluated the device in 50 patients with PDA who were older than 3 days. In addition, the safety and efficacy of the Amplatzer Piccolo Occluder was supported by a continued access protocol involving 150 more patients.
“This approval is a potentially life-saving advance for the very smallest premature infants that will help us treat these delicate babies who might otherwise not be able to survive,” said Evan Zahn, MD, principal investigator of ADO II AS and director of the congenital heart program at Cedars-Sinai’s Smidt Heart Institute in Los Angeles.
Find the full press release on the Abbott website.
weighing as little as 2 pounds.
PDA is a life-threatening opening between two blood vessels leading from the heart and commonly occurs in premature infants, with about one in five infants born prematurely having a hemodynamically significant PDA. The Amplatzer Piccolo Occluder is a self-expanding, wire mesh device that is minimally invasive and is the first device approved for use in very-low-birth-weight infants.
FDA approval was based on results of the ADO II AS trial, which evaluated the device in 50 patients with PDA who were older than 3 days. In addition, the safety and efficacy of the Amplatzer Piccolo Occluder was supported by a continued access protocol involving 150 more patients.
“This approval is a potentially life-saving advance for the very smallest premature infants that will help us treat these delicate babies who might otherwise not be able to survive,” said Evan Zahn, MD, principal investigator of ADO II AS and director of the congenital heart program at Cedars-Sinai’s Smidt Heart Institute in Los Angeles.
Find the full press release on the Abbott website.
Violence against women: Gail Robinson
Dr. Robinson is professor of psychiatry and obstetrics/gynecology and professor of equality, gender, and population at the University of Toronto. She’s also chair of GAP’s Committee on Gender & Mental Health. In this episode, Dr. Robinson delves into strategies for interacting with survivors of violence, the roots of the “Me Too” movement, as well as rising rates of maternal mortality in the United States.
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Dr. Robinson is professor of psychiatry and obstetrics/gynecology and professor of equality, gender, and population at the University of Toronto. She’s also chair of GAP’s Committee on Gender & Mental Health. In this episode, Dr. Robinson delves into strategies for interacting with survivors of violence, the roots of the “Me Too” movement, as well as rising rates of maternal mortality in the United States.
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Apple Podcasts
Google Podcasts
Spotify
Dr. Robinson is professor of psychiatry and obstetrics/gynecology and professor of equality, gender, and population at the University of Toronto. She’s also chair of GAP’s Committee on Gender & Mental Health. In this episode, Dr. Robinson delves into strategies for interacting with survivors of violence, the roots of the “Me Too” movement, as well as rising rates of maternal mortality in the United States.
Amazon
Apple Podcasts
Google Podcasts
Spotify