Thank you for your attention to this research. Firstly, this systematic review showed that LOS was decreased in the HFNC group comparing with SOT group in low-income and middle-income countries. As you mentioned in the letter that even in high-income countries, it’s not realistic to treat all bronchiolitis patients with HFNC during RSV peaks. The inconsistent result of LOS in different countries may be caused by the level of medical practice in different areas because the LOS in low-income and middle-income countries was significantly longer than in high-income countries. So the clinical heterogeneity suggested that the level of medical practice was also important for bronchiolitis. Secondly, two studies showed that patients with treatment failures in SOT group could be treated with HFNC in the wards. This meta-analysis showed that there was a significant increase in the incidence of treatment failure in HFNC group compared with nCPAP group (RR 1.61, 95% CI 1.06 to 2.42, p=0.02). Therefore, we need more research to explore which choice (HFNC or nCPAP) is better for patients with treatment failures in standard oxygen supplementation.
Retzler et al. report estimates of the economic cost of congenital cytomegalovirus (cCMV) in the United Kingdom.1 The projected costs of autism spectrum disorder (ASD) among persons with cCMV accounted for at least 50% of the total costs attributed to cCMV. However, an association between cCMV and ASD has not been conclusively established,2 and, in their analysis, Retzler et al. did not take into account the cost of ASD among children without cCMV.
Retzler et al. used published ASD prevalence estimates from a Dutch study of >30,000 children screened for cCMV at 6 years of age using stored dried blood specimens, of whom 133 were CMV-positive. Of 26 children classified with symptomatic cCMV, 2 (7.7%) had ASD, as did 2/107 (1.9%) with asymptomatic cCMV.3 Retzler et al. assumed 11% of children with cCMV are symptomatic, which implies a weighted average ASD prevalence of 2.5% among children with cCMV. Five of 274 (1.8%) matched children without cCMV in the Dutch study also had ASD. If ASD were causally associated with cCMV, which has not been shown, the cost of ASD attributable to cCMV would be the cost difference of ASD among children with and without cCMV. Therefore, the projected cost of cCMV has been overestimated. Moreover, if the reported association of cCMV with ASD turns out to be non-causal, the total cost of cCMV could be half that estimated by Retzler et al.
References
1. Retzler J, Hex N, Bartlett C, et al. Economic cost of congenital CMV...
Retzler et al. report estimates of the economic cost of congenital cytomegalovirus (cCMV) in the United Kingdom.1 The projected costs of autism spectrum disorder (ASD) among persons with cCMV accounted for at least 50% of the total costs attributed to cCMV. However, an association between cCMV and ASD has not been conclusively established,2 and, in their analysis, Retzler et al. did not take into account the cost of ASD among children without cCMV.
Retzler et al. used published ASD prevalence estimates from a Dutch study of >30,000 children screened for cCMV at 6 years of age using stored dried blood specimens, of whom 133 were CMV-positive. Of 26 children classified with symptomatic cCMV, 2 (7.7%) had ASD, as did 2/107 (1.9%) with asymptomatic cCMV.3 Retzler et al. assumed 11% of children with cCMV are symptomatic, which implies a weighted average ASD prevalence of 2.5% among children with cCMV. Five of 274 (1.8%) matched children without cCMV in the Dutch study also had ASD. If ASD were causally associated with cCMV, which has not been shown, the cost of ASD attributable to cCMV would be the cost difference of ASD among children with and without cCMV. Therefore, the projected cost of cCMV has been overestimated. Moreover, if the reported association of cCMV with ASD turns out to be non-causal, the total cost of cCMV could be half that estimated by Retzler et al.
References
1. Retzler J, Hex N, Bartlett C, et al. Economic cost of congenital CMV in the UK. Arch Dis Child 2018 doi: 10.1136/archdischild-2018-316010 [published Online First: 2018/11/26]
2. Maeyama K, Tomioka K, Nagase H, et al. Congenital cytomegalovirus infection in children with autism spectrum disorder: systematic review and meta-analysis. J Autism Dev Disord 2018;48(5):1483-91. doi: 10.1007/s10803-017-3412-x [published Online First: 2017/12/01]
3. Korndewal MJ, Oudesluys-Murphy AM, Kroes ACM, et al. Long-term impairment attributable to congenital cytomegalovirus infection: a retrospective cohort study. Dev Med Child Neurol 2017;59(12):1261-68. doi: 10.1111/dmcn.13556 [published Online First: 2017/10/11]
Sir,
I would like to add to the article ‘What dose of aspirin should be used in the initial treatment of Kawasaki disease?’ by Luke Guo Yang Ho and Nigel Curtis (Archives, 2017, 102, 1180-1182). Fifteen months have passed since this article concluded that low-dose aspirin is not inferior to higher doses in reducing the risk of coronary artery abnormalities in acute Kawasaki disease. Since then, it is worth considering what and if anything has changed in the field. A recent study not included in the review is a retrospective cohort study by Huang et al1 (2018), where 910 patients followed up for 2 years, which showed that there was no significant difference between 3 groups in terms of anti-inflammation or prevention of coronary artery abnormalities. This paper concluded that the role of aspirin in the treatment of the acute phase of Kawasaki disease should be questioned, as a definite benefit has not been shown. Therefore, in concordance with the conclusion of the review, this rapid response poses that current data remains unchanged with regards to the role and effects of administration of higher doses of aspirin on coronary outcome in acute Kawasaki disease. In the absence of evidence to support higher doses in prevention of coronary artery abnormalities, low-dose aspirin (3–5 mg/kg) may be the safest, most rational approach until better evidence becomes available.
There are currently three prospective randomised control trials in process to continue this inv...
Sir,
I would like to add to the article ‘What dose of aspirin should be used in the initial treatment of Kawasaki disease?’ by Luke Guo Yang Ho and Nigel Curtis (Archives, 2017, 102, 1180-1182). Fifteen months have passed since this article concluded that low-dose aspirin is not inferior to higher doses in reducing the risk of coronary artery abnormalities in acute Kawasaki disease. Since then, it is worth considering what and if anything has changed in the field. A recent study not included in the review is a retrospective cohort study by Huang et al1 (2018), where 910 patients followed up for 2 years, which showed that there was no significant difference between 3 groups in terms of anti-inflammation or prevention of coronary artery abnormalities. This paper concluded that the role of aspirin in the treatment of the acute phase of Kawasaki disease should be questioned, as a definite benefit has not been shown. Therefore, in concordance with the conclusion of the review, this rapid response poses that current data remains unchanged with regards to the role and effects of administration of higher doses of aspirin on coronary outcome in acute Kawasaki disease. In the absence of evidence to support higher doses in prevention of coronary artery abnormalities, low-dose aspirin (3–5 mg/kg) may be the safest, most rational approach until better evidence becomes available.
There are currently three prospective randomised control trials in process to continue this investigation2-4, it would be interesting to review this on their completion.
1. Huang, X. et al. Is aspirin necessary in the acute phase of Kawasaki disease? J. Paediatr. Child Health 54, 661–664 (2018).
2. NCT02951234. A Multi-center, Randomized to Compare the Efficacy of IVIG Alone and IVIG Plus High-dose Aspirin in Kawasaki Disease. Https://clinicaltrials.gov/show/nct02951234 doi:10.1002/CENTRAL/CN-01559692
3. NCT02359643. Multi-center Prospective Randomized Control Trail of High Dose Aspirin in Acute Stage of Kawasaki Disease. Https://clinicaltrials.gov/show/nct02359643 (2015). doi:10.1002/CENTRAL/CN-01582768
4. Kuo, H.-C., Guo, M. M.-H., Lo, M.-H., Hsieh, K.-S. & Huang, Y.-H. Effectiveness of intravenous immunoglobulin alone and intravenous immunoglobulin combined with high-dose aspirin in the acute stage of Kawasaki disease: study protocol for a randomized controlled trial. BMC Pediatr. 18, 200 (2018).
Authors (full names and academics degrees)
• Laura Moreno-Galarraga1 MD PhD
• Miguel Ángel Martínez-González2 MD PhD MPH
• Diego Mauricio Peñafiel Freire3 MD
• Elsie M Taveras4 MD MPH
Affiliations
1) Department of Pediatrics, Complejo Hospitalario de Navarra. IdisNa; Instituto de Investigación Sanitaria de Navarra, Health Research Institute of Navarra, Pamplona, Spain.
2) Department of Preventive Medicine and Public Health, University of Navarra Pamplona, Spain. Dpt. Nutrition, Harvard TH Chan School of Public Health, Boston, MA. CIBER Fisiopatología de la Obesidad y Nutrición, Instituto de Salud Carlos III, Madrid, Spain.
3) Department of Pediatrics, Complejo Hospitalario de Navarra, Pamplona, Spain
4) Division of General Academic Pediatrics, Massachusetts General Hospital for Children, Boston, MA; Department of Pediatrics, Harvard Medical School, Boston, MA; Department of Nutrition, Harvard T.H. Chan School of Public Health, Boston, MA.
Dear Editor;
We have read the article about myths, milk and mucus, and we couldn’t agree more.1 We have observed the prevalence of the same myth and the same concern that many parents are limiting their child’s consumption of dairy products or replacing milk with vegetable drinks, despite the current recommendations.2
We conducted a study in 169 school-age children in Spain and we did not find any association between dairy products consumption (milk, cheese or yo...
Authors (full names and academics degrees)
• Laura Moreno-Galarraga1 MD PhD
• Miguel Ángel Martínez-González2 MD PhD MPH
• Diego Mauricio Peñafiel Freire3 MD
• Elsie M Taveras4 MD MPH
Affiliations
1) Department of Pediatrics, Complejo Hospitalario de Navarra. IdisNa; Instituto de Investigación Sanitaria de Navarra, Health Research Institute of Navarra, Pamplona, Spain.
2) Department of Preventive Medicine and Public Health, University of Navarra Pamplona, Spain. Dpt. Nutrition, Harvard TH Chan School of Public Health, Boston, MA. CIBER Fisiopatología de la Obesidad y Nutrición, Instituto de Salud Carlos III, Madrid, Spain.
3) Department of Pediatrics, Complejo Hospitalario de Navarra, Pamplona, Spain
4) Division of General Academic Pediatrics, Massachusetts General Hospital for Children, Boston, MA; Department of Pediatrics, Harvard Medical School, Boston, MA; Department of Nutrition, Harvard T.H. Chan School of Public Health, Boston, MA.
Dear Editor;
We have read the article about myths, milk and mucus, and we couldn’t agree more.1 We have observed the prevalence of the same myth and the same concern that many parents are limiting their child’s consumption of dairy products or replacing milk with vegetable drinks, despite the current recommendations.2
We conducted a study in 169 school-age children in Spain and we did not find any association between dairy products consumption (milk, cheese or yoghurt) and respiratory diseases (OR=0.85 95%CI (0.44-1.64))3. Additionally studies conducted in various populations have not found evidence that this association exists1 and some studies even indicate that cow-milk consumption in early life is a protector factor against asthma4. In infant nutrition several scientific societies, as the European Society for Paediatric Gastroenterology, Hepatology, and Nutrition (ESPGHAN), maintain few indications for soy-based formula, and state that in healthy infants they have no nutritional advantages over cow's milk protein formulae, but their utilization rates keeps increasing.5
The question then remains: Why does the myth persist despite the evidence? Authors claim in their article: "Milk-mucus myth needs to be rebutted firmly by healthcare workers".1 But, how?
The perpetuation of this myth might be related to some commercial interests, that have been rigourously addressed by some investigators.6,7 We think that paediatricians should reinforce the current WHO recommendations on paediatric feeding, and specifically inform parents about this unsupported belief and the current scientific evidence. We think that the time has come to find a common ground on this issue; there probably is no need to conduct new clinical studies to discard this myth, but to defend the scientific truth. In the same way as policies to avoid formula milk advertisements that may compromise breast-feeding were implanted, we need now policies to defend the harmlessness of dairy products regarding respiratory problems.1,3,4 It is important to transmit to the general population that avoiding dairy products is not useful to prevent respiratory illnesses, and that vegetables drinks are not “kinds of milk”, that they do not have the same nutritional or health benefits, and that they are not better substitutes of milk during childhood.
Health myths are remarkably persistent. But, if the myth that milk is related to mucus or respiratory pathology has been unfounded by scientific evidence, we believe our next step should be to transmit evidence-based information to the population and to combat false advertising and fake information spreading on social media.
References:
1. Balfour-Lynn IM, Milk, mucus and myths. Arch Dis Child. 2019 Jan;104(1):91-93.
2. World Health Organization Global Strategy for Infant and Young Child Feeding. Geneva: World Health Organization; WHO nutrition publications. 2003. http://www.who.int/nutrition/publications/infantfeeding
3. Peñafiel Freire DM, Martín Calvo N, García Blanco L, et al. Association of dairy consumption with respiratory infections. Myth or reality?. Rev Pediatr Aten Primaria. 2018;20(1):45-52.
4. Lumia M, Takkinen HM, Luukkainen P, et al. Food consumption and risk of childhood asthma. Pediatr Allergy Immunol. 2015; 26(8): 789-96.
5. Agostoni C, Axelsson I, Goulet O, et al. Soy protein infant formulae and follow-on formulae: a commentary by the ESPGHAN Committee on Nutrition. JPediatr Gastroenterol Nutr. (2006) 42:352–61.
6. Nestle M.Corporate funding of food and nutrition research: science or marketing? JAMA Intern Med. 2016;176(1):13-14.
7. Lesser LI, Ebbeling CB, Goozner M, Wypij D, Ludwig DS. Relationship between funding source and conclusion among nutrition-related scientific articles. PLoS Med. 2007 Jan;4(1):e5.
We thank Drs Bok et al. for their comments on our recent editorial about the use of palivizumab in children with Down syndrome (DS).[1] However, most of their arguments are not pertinent to DS. First, they describe the general incidence of respiratory syncytial virus (RSV) in children aged <5years. Second, they discuss the efficacy of palivizumab based on the IMpact trial [2] that did not include children with DS. We provided concrete evidence from [3] metanalyses conducted in 1.1 million children with DS, that the risk of RSV-related hospitalisation (RSVH) is 6.1–8.7- fold higher than children without DS.1 Drs Bok et al. also fail to appreciate that the overall relative risk of RSVH without palivizumab, is 5.5-fold (95% CI 3.97 to 7.7) higher based on robust, high quality evidence.[3] In our previous study we also reported that for every 1000 children with DS with RSV there will be 200 more (95% CI,131-297) hospitalisations compared with 1000 children without DS with RSV (RR, 5.53; 95% CI,3.97-7.73; high GRADE).[4] Moreover, Drs Bok et al. have extrapolated the number needed to treat (NNT) with prophylaxis to prevent one RSVH in children with DS using sub-optimal data. In a prospective case-control, cohort study conducted in the Netherlands and Canada, the estimated NNT in children with DS, adjusted for confounding variables, is 12 and not 20.[5] This number also aligns with the report from the CARESS registry [6] and compares favourably with the NNT of 16 for preter...
We thank Drs Bok et al. for their comments on our recent editorial about the use of palivizumab in children with Down syndrome (DS).[1] However, most of their arguments are not pertinent to DS. First, they describe the general incidence of respiratory syncytial virus (RSV) in children aged <5years. Second, they discuss the efficacy of palivizumab based on the IMpact trial [2] that did not include children with DS. We provided concrete evidence from [3] metanalyses conducted in 1.1 million children with DS, that the risk of RSV-related hospitalisation (RSVH) is 6.1–8.7- fold higher than children without DS.1 Drs Bok et al. also fail to appreciate that the overall relative risk of RSVH without palivizumab, is 5.5-fold (95% CI 3.97 to 7.7) higher based on robust, high quality evidence.[3] In our previous study we also reported that for every 1000 children with DS with RSV there will be 200 more (95% CI,131-297) hospitalisations compared with 1000 children without DS with RSV (RR, 5.53; 95% CI,3.97-7.73; high GRADE).[4] Moreover, Drs Bok et al. have extrapolated the number needed to treat (NNT) with prophylaxis to prevent one RSVH in children with DS using sub-optimal data. In a prospective case-control, cohort study conducted in the Netherlands and Canada, the estimated NNT in children with DS, adjusted for confounding variables, is 12 and not 20.[5] This number also aligns with the report from the CARESS registry [6] and compares favourably with the NNT of 16 for preterms <35 weeks gestation without bronchopulmonary dysplasia, 20 for children with bronchopulmonary dysplasia and 23 for those with congenital heart disease, based on randomised trials.
Last, regarding costs, Drs Bok et al. also fall short in their attempt to reconcile that palivizumab is not cost-effective in children with DS using data derived from preterm infants, which unfortunately has little relevance. In our editorial[1] and original report,[4] we emphasised that a well-conducted cost-utility analysis of RSV prophylaxis in children with DS that measures RSV-related disease burden on both the quality and quantity of life.is still lacking. What we do know from solid evidence is that the burden of illness associated with RSVH in children with DS and those without congenital heart disease compared to children without DS is significant,[1],[4] and is steadily increasing with concurrent healthcare expenditure.[7] Our editorial provides concrete information about the risks of RSVH in all children with DS while indicating that the real-world use of prophylaxis in this population is of greater benefit versus harm, and that non-intervention has significant clinical, healthcare costs and socioeconomic implications, the latter of which is often overlooked.[1],[8] After systematically weighing the pros and cons, we re-affirm that the time is right to consider RSV prophylaxis for all children with DS aged < 2 years, since the opposing data provided by Dr Bok et al. is at best hypothetical. However, we do agree that the adoption of a global policy for RSV prophylaxis in all children with DS must be balanced in each country against available funding, overall costs for RSVH and incurred short and long-term morbidity.
References
1 Paes B, Mitra S. Palivizumab for children with Down syndrome: is the time right for a universal recommendation? Arch Dis Child doi:10.1136/archdischild-2018-316408.
2 The IMpact-RSV Study Group. Palivizumab, a humanized respiratory syncytial virus monoclonal antibody, reduces hospitalization from respiratory syncytial virus infection in high-risk children. Pediatrics 1998; 102:531-7.
3 Guyatt GH, Oxman AD, Vist G, et al. GRADE guidelines: 4. Rating the quality of evidence—study limitations (risk of bias). J Clin Epidemiol 2011; 64:407-15.
4 Mitra S, El Azrak M, McCord H et al. Hospitalization for respiratory syncytial virus in children with Down syndrome less than 2 years of age: A systematic review and meta-analysis. J Pediatr. 2018; 203:92-100.e3.
5 Yi H, Lanctôt KL, Bont L, Bloemers BL, et al. Respiratory syncytial virus prophylaxis in Down syndrome: a prospective cohort study. Pediatrics 2014; 133:1031-7.
6 Paes B, Mitchell I, Yi H, et al. Hospitalization for respiratory syncytial virus illness in Down syndrome following prophylaxis with palivizumab. Pediatr Infect Dis J 2014; 33:e29-33.
7 Doucette A, Jiang X, Fryzek J, et al. Trends in respiratory syncytial virus and bronchiolitis hospitalization rates in high-risk infants in a United States nationally representative database, 1997-2012. PLoS One 2016; 11: e0152208.
8 Martínez-Valverde S, Salinas-Escudero G, García-Delgado C et al. Out-of-pocket expenditures and care time for children with Down Syndrome: A single-hospital study in Mexico City. PLoS One 2019;14:e0208076.
We thank Dr Nadeem, for highlighting that the clinical features of drowsiness and infant focal seizures in our case report indicates that early treatment for viral/herpes encephalitis was an imperative.
We would like to reassure Dr Nadeem that our infant did indeed receive a combination of early intravenous antiviral treatment (acyclovir) and antibiotics (cefotaxime and amoxicillin) and this was continued until final viral/bacterial PCR and CSF culture results were obtained. The use of acyclovir and amoxicillin was omitted from the original report due to word count limitations.
Viral PCR tested was negative for a range of viruses including herpes simplex (HSV). Although PCR assay is an important diagnostic modality for viral encephalitis HSV, we would add that due to focal seizures, our infant case received investigations and treatment as per national (1) and local guidelines: immediate brain CT imaging was performed to exclude neurosurgical conditions, and a later cranial MRI scan did not show selective damage to the mesial temporal lobe structures or the hippocampus. In addition, an early electroencephalogram (EEG) was normal. The EEG severity and the presence of epileptic seizures at the initial presentation would be significant indicators for predicting the 6-month clinical outcome in patients with HSE.
The seriousness of HSV CNS infections suggests that clinicians maintain a high index of suspicion to initiate evaluation under s...
We thank Dr Nadeem, for highlighting that the clinical features of drowsiness and infant focal seizures in our case report indicates that early treatment for viral/herpes encephalitis was an imperative.
We would like to reassure Dr Nadeem that our infant did indeed receive a combination of early intravenous antiviral treatment (acyclovir) and antibiotics (cefotaxime and amoxicillin) and this was continued until final viral/bacterial PCR and CSF culture results were obtained. The use of acyclovir and amoxicillin was omitted from the original report due to word count limitations.
Viral PCR tested was negative for a range of viruses including herpes simplex (HSV). Although PCR assay is an important diagnostic modality for viral encephalitis HSV, we would add that due to focal seizures, our infant case received investigations and treatment as per national (1) and local guidelines: immediate brain CT imaging was performed to exclude neurosurgical conditions, and a later cranial MRI scan did not show selective damage to the mesial temporal lobe structures or the hippocampus. In addition, an early electroencephalogram (EEG) was normal. The EEG severity and the presence of epileptic seizures at the initial presentation would be significant indicators for predicting the 6-month clinical outcome in patients with HSE.
The seriousness of HSV CNS infections suggests that clinicians maintain a high index of suspicion to initiate evaluation under suitable circumstances. We are grateful to the Editors for now publishing Dr Nadeem’s response to our letter to highlight this to our readers.
References
(1) Meningitis Research Foundation (MRF). Management of Bacterial Meningitis in infants <3 months (Neonatal Algorithm) [PDF]. London, United Kingdom: Meningitis Research Foundation (MRF); 2017 [updated Nov 2017]. Available from: https://www.meningitis.org/getmedia/75ce0638-a815-4154-b504-b18c462320c8....
We thank Dr Cliona M Ni Bhrolchain for her interest in our paper and her comments. With the exceptions of newborn hearing and blood spot screening, there is unacceptably wide variation at local level and a lack of commitment at national level in implementation and monitoring of preventive child health programmes. We suggest that this is just one manifestation of a wider problem - the serious inadequacy of NHS investment in leadership, education and training, both in general practice and in the specialties. Morale is low and there are chronic shortages of staff with the relevant skills, when medicine is changing and public expectations rising faster than ever before.
David Hall and David Sowden (affiliations as on our original paper)
I refer to the paper published by Palmer et al in Archives Diseases Childhood March 20181 that states the recommendation to avoid tramadol when breastfeeding and the contraindication to its use in children (including neonates) is inappropriate in their view. 1
I disagree with the authors that tramadol is a safe for babies of breastfeeding mothers. Their conclusion, in my opinion, is premature and not adequately evidence-based. While they acknowledge, the US Food and Drug Administration (FDA) reported cases, they ignore the serious warnings by both Manufacturer and FDA about administering tramadol to children and breast-feeding mothers. There is increasing concern that narcotics used for treating pain in breastfeeding mothers may increase the risk of adverse effects in newborns, including excessive sedation and respiratory depression. The American Academy of Pediatrics (AAP), the FDA and the American College of Obstetricians and Gynecologists (ACOG) advocate against the use of codeine and tramadol in women who are breastfeeding because their babies may suffer adverse reactions, including excessive sleepiness, difficulty breathing, and potentially fatal breathing problems. 2-5 Patient safety should be foremost in our minds in making any recommendations that are contrary to Manufacturer, FDA, and AAP recommendations. It would be difficult to justify use of tramadol in a breastfeeding mother in the event of litigation arising from adverse effects of tramadol in the baby...
I refer to the paper published by Palmer et al in Archives Diseases Childhood March 20181 that states the recommendation to avoid tramadol when breastfeeding and the contraindication to its use in children (including neonates) is inappropriate in their view. 1
I disagree with the authors that tramadol is a safe for babies of breastfeeding mothers. Their conclusion, in my opinion, is premature and not adequately evidence-based. While they acknowledge, the US Food and Drug Administration (FDA) reported cases, they ignore the serious warnings by both Manufacturer and FDA about administering tramadol to children and breast-feeding mothers. There is increasing concern that narcotics used for treating pain in breastfeeding mothers may increase the risk of adverse effects in newborns, including excessive sedation and respiratory depression. The American Academy of Pediatrics (AAP), the FDA and the American College of Obstetricians and Gynecologists (ACOG) advocate against the use of codeine and tramadol in women who are breastfeeding because their babies may suffer adverse reactions, including excessive sleepiness, difficulty breathing, and potentially fatal breathing problems. 2-5 Patient safety should be foremost in our minds in making any recommendations that are contrary to Manufacturer, FDA, and AAP recommendations. It would be difficult to justify use of tramadol in a breastfeeding mother in the event of litigation arising from adverse effects of tramadol in the baby, when safer alternatives are available.
MANUFACTURER WARNING
In March 2008, Janssen Ortho, the manufacturer of tramadol (ULTRAM®) stated that the effects of tramadol on growth and functional maturation of child, and safety in infants and newborn has not been studied and it is not recommended for use in the pediatric population. It issued the following information concerning tramadol:
• LABOR AND DELIVERY
1. ULTRAM® should not be used in pregnant women prior to or during labor unless the potential benefits outweigh the risks. Safe use in pregnancy has not been established. Chronic use during pregnancy may lead to physical dependence and post-partum withdrawal symptoms in the newborn.
2. Tramadol crosses the placenta. The effect of ULTRAM®, if any, on the later growth, development, and functional maturation of the child is unknown.
• NURSING MOTHERS
ULTRAM® is not recommended for obstetrical preoperative medication or for post-delivery analgesia in nursing mothers because its safety in infants and newborns has not been studied. Following a single IV 100 mg dose of tramadol, the cumulative excretion in breast milk within 16 hours, post-dose was 100μg of tramadol (0.1% of the maternal dose) and 27 μg of M1.
• PEDIATRIC USE
The safety and efficacy of ULTRAM® in patients under 16 years of age have not been established. The use of ULTRAM® in the pediatric population is not recommended. 6
FDA WARNINGS
1. In 2013, FDA placed restrictions on its use in children younger than 18 years to treat pain after surgery to remove the tonsils and/or adenoids.7
2. FDA reviewed adverse event reports submitted to it from January 1969 to May 2015, and identified 64 cases of serious breathing problems, including 24 deaths, with codeine-containing medicines in children younger than 18 years. As this included only reports submitted to FDA, there may be additional cases about which FDA is unaware. FDA also identified nine cases of serious breathing problems, including three deaths, with the use of tramadol in children younger than 18 years from January 1969 to March 2016. Most of the serious side-effects with both codeine and tramadol occurred in children younger than 12 years, and some cases occurred after a single dose of the medicine.8
3. On July1, 2015, FDA issued warning about the potential risks of using codeine cough-and-cold medicines in children on July 1, 2015,4 and in September 21, 2015, FDA issued warning on the risks of using the pain medicine tramadol in children aged 17 and younger issued on September 21, 2015. 9
4. On 1-11-2018, the FDA restricted the use of codeine and tramadol medicines in children as these medicines carry serious risks, including slowed or difficult breathing and death, which appear to be a greater risk in children younger than 12 years, and should not be used in these children. FDA warned against the use of codeine and tramadol medicines in breastfeeding mothers due to possible harm to their infants. 10
5. Use of tramadol during pregnancy could make the baby dependent on the drug and cause Life-threatening withdrawal effects that may necessitate medical treatment for several weeks. 11
Additional concerns relating to the use of tramadol are suicidal thoughts and suicide attempts have emerged. In the article: Tramadol and Suicide attempt - from FDA reports, dated November 8, 2018, suicide attempt is found among people who take Tramadol, especially female, 40-49 old, who have been taking the drug for < 1 month. In the study based on reports of 102,114 people who have side effects when taking Tramadol from FDA, and is updated regularly. 102,114 people reported side effects when taking Tramadol. Among them, 765 people (0.75%) have attempted suicide. Suicide attempts are reported in children from the age of 10 years.12
In the light of the above data, there does not appear to be adequate evidence to support Palmer et al.’s contention that both Manufacturer and FDA recommendation to avoid use of tramadol when breastfeeding and contraindication to its use in children (including neonates) should be ignored.1 The AAP, the FDA, and the ACOG recommend against the use of codeine and tramadol in women who are breastfeeding because their newborns may have adverse reactions, including excessive sleepiness, difficulty breathing, and potentially fatal breathing problems. 2-5
Practice of medicine should be evidence-based. Patient safety comes foremost. Safer alternatives to tramadol are available. Acetaminophen and/or ibuprofen is recommended for pain management in women who are breastfeeding. If narcotic treatment is considered necessary, the lowest effective dose of morphine for the shortest time possible could be prescribed. 2
REFERENCE
1. Greta M Palmer, Brian J Anderson, David K Linscott, Michael J Paech, Karel Allegaert. Tramadol, breast feeding and safety in the newborn. (http://dx.doi.org/10.1136/archdischild-2017-313786).
2. Robert L. Barbieri. Editorial. Stop using codeine, oxycodone, hydrocodone, tramadol, and aspirin in women who are breast-feeding. OBG Manag. 2017 October;29(10):8-10,12. https://www.mdedge.com/obgyn/article/148018/obstetrics/stop-using-codein....
3. Sachs HC; Committee on Drugs. The transfer of drugs and therapeutics into human breast milk: an update on selected topics. Pediatrics. 2013;132(3):e796–e809.
4. US Food and Drug Administration. FDA Drug Safety Communication. FDA restricts use of prescription codeine pain and cough medicines and tramadol pain medicines in children; recommends against use in breastfeeding women. Silver Spring, MD: US Food and Drug Administration. https://www.fda.gov/Drugs/DrugSafety/ucm118113.htm. Published April 2017.
5. Practice advisory on codeine and tramadol for breast feeding women. American College of Obstetricians and Gynecologists website. https://www.acog.org/About-ACOG/News-Room/Practice-Advisories/Practice-A.... Published April 27, 2017.
6. ULTRAM® (tramadol hydrochloride) Tablets. Full Prescribing Information. https://www.accessdata.fda.gov/drugsatfda_docs/label/2009/020281s032s033...
7. FDA Drug Safety Communication: Safety review update of codeine use in children; new Boxed Warning and Contraindication on use after tonsillectomy and/or adenoidectomy. (2-20-2013). https://www.fda.gov/downloads/Drugs/DrugSafety/UCM339116.pdf - accessed February 16, 2019.
8. FDA Drug Safety Communication: FDA evaluating the potential risks of using codeine cough-and-cold medicines in children. https://www.fda.gov/Drugs/DrugSafety/ucm453125.htm
9. FDA Drug Safety Communication: FDA evaluating the risks of using the pain medicine tramadol in children aged 17 and younger. https://www.fda.gov/Drugs/DrugSafety/ucm462991.htm (9-21-2015).
10. FDA Drug Safety Communication: FDA restricts use of prescription codeine pain and cough medicines and tramadol pain medicines in children; recommends against use in breastfeeding women. https://www.fda.gov/Drugs/DrugSafety/ucm549679.htm (1-11-2018)
11. Kaci Durbin. (Updated 29-12-2018) Tramadol. https://www.drugs.com/tramadol.html
12. Tramadol and Suicide attempt - from FDA reports. http://www.ehealthme.com/ds/tramadol/suicide-attempt/
Conflict of Interest
None declared
Professor Dr. Davendralingam Sinniah
We welcome the paper by Verfurden et al1 on avoidable mortality from RTI and SUDIC with chronic conditions. We do not doubt the conclusion that chronic conditions are strongly associated with deaths from RTI, but disagree with the conclusion that chronic conditions are also associated with SUDIC or the need for changes to death certification.
The study excludes deaths of infants less than 2 months old; however the peak age for unexplained infant deaths (classified as SIDS or unascertained) is 6 weeks. Data from England for the years 2004-10 show that 45% of unexpected infant deaths occurred prior to 2 months of age2, with the exception of those infants with congenital anomalies it is unlikely that these infants will have been diagnosed with a chronic condition by the time of death. Due to these issues, the study is likely to have significantly over-estimated the association of chronic conditions with SUDIC and we would invite the authors to revise their conclusion.
The authors suggest that death registrations and hospital databases should categorise deaths as expected or unexpected to help identify potentially preventable deaths. Child Death Overview Panels in England review all deaths, determining modifiable factors; and these reviews are to be collated nationally by the new established National Child Mortality Database. A similar system of Child Death Reviews has already been recommended by the Scottish Government. It would seem more sensible to fully embrace...
We welcome the paper by Verfurden et al1 on avoidable mortality from RTI and SUDIC with chronic conditions. We do not doubt the conclusion that chronic conditions are strongly associated with deaths from RTI, but disagree with the conclusion that chronic conditions are also associated with SUDIC or the need for changes to death certification.
The study excludes deaths of infants less than 2 months old; however the peak age for unexplained infant deaths (classified as SIDS or unascertained) is 6 weeks. Data from England for the years 2004-10 show that 45% of unexpected infant deaths occurred prior to 2 months of age2, with the exception of those infants with congenital anomalies it is unlikely that these infants will have been diagnosed with a chronic condition by the time of death. Due to these issues, the study is likely to have significantly over-estimated the association of chronic conditions with SUDIC and we would invite the authors to revise their conclusion.
The authors suggest that death registrations and hospital databases should categorise deaths as expected or unexpected to help identify potentially preventable deaths. Child Death Overview Panels in England review all deaths, determining modifiable factors; and these reviews are to be collated nationally by the new established National Child Mortality Database. A similar system of Child Death Reviews has already been recommended by the Scottish Government. It would seem more sensible to fully embrace the proposed Child Death Review process than suggest small changes to child death registrations.
Yours sincerely
J Garstang and G Debelle
1. Verurden ML, Gilbert R, Sibere N, Hardelid P. Avoidable mortality from respiratory tract infection and sudden unexplained death in children with chronic conditions: a data likage study. Arch Dis Child 2018; 103: 1125 – 1131.
2. Office for National Statistics. Unexplained Death in Infancy - England and Wales, 2010. 2012; Available from: www.statistics.gov.uk.
In their editorial Paes and Mitra suggest that all patients with down syndrome (DS) <2 years should be considered to give palivizumab (Synagis®) to prevent respiratory syncytial virus (RSV) infection. We agree with the authors that DS children are at increased risk to develop RSV infections. However, we do not agree with their recommendation for palivizumab prevention in all DS children <2 years. In our opinion there is insufficient evidence on the efficiency and cost effectiveness and the recommendation is therefore premature.
For the evaluation of preventive interventions the incidence and the absolute risk of acquiring the disease, and the effectiveness of the proposed intervention are important factors. The reported incidence of clinical relevant RSV infections in the general population in western countries is about 18/1,000 in newborns <2 months, 17/1,000 in children <6 months and 3/1,000 in children <5 years ( 2,3). Considering a relative extra risk of 5.5 in DS children (1) the calculated RSV incidence is 99/1,000 <2 months ( one out of 10) , 94/1,000 <6 months and 17/1,000 <5 years, respectively. The effectiveness of prevention of clinical treatment in premature children with palivizumab is about 50% (4). The extrapolated number needed to treat (NNT) for newborns with DS is 20 to prevent one hospitalization due to RSV infection. But what is the harm of this treatment as 19 out of 20 DS newborns will be given 114 injections per year...
In their editorial Paes and Mitra suggest that all patients with down syndrome (DS) <2 years should be considered to give palivizumab (Synagis®) to prevent respiratory syncytial virus (RSV) infection. We agree with the authors that DS children are at increased risk to develop RSV infections. However, we do not agree with their recommendation for palivizumab prevention in all DS children <2 years. In our opinion there is insufficient evidence on the efficiency and cost effectiveness and the recommendation is therefore premature.
For the evaluation of preventive interventions the incidence and the absolute risk of acquiring the disease, and the effectiveness of the proposed intervention are important factors. The reported incidence of clinical relevant RSV infections in the general population in western countries is about 18/1,000 in newborns <2 months, 17/1,000 in children <6 months and 3/1,000 in children <5 years ( 2,3). Considering a relative extra risk of 5.5 in DS children (1) the calculated RSV incidence is 99/1,000 <2 months ( one out of 10) , 94/1,000 <6 months and 17/1,000 <5 years, respectively. The effectiveness of prevention of clinical treatment in premature children with palivizumab is about 50% (4). The extrapolated number needed to treat (NNT) for newborns with DS is 20 to prevent one hospitalization due to RSV infection. But what is the harm of this treatment as 19 out of 20 DS newborns will be given 114 injections per year. For DS patients <5 years these numbers are even worse: 594 injections are given to prevent 1 clinical admission, as the NNT in this DS age group is about 100. In our opinion the potential harm of palivizumab treatment does not outweigh the harm of one prevented hospital admission.
What about the financial burden? For the DS newborns <2 years in The Netherlands the costs to prevent one hospitalization will be about Euro 76.200 (20 * 6 * Euro 635); for DS children < 5 years these costs to prevent one admission rise to Euro 630.000 (100 * 6 * Euro 1,050). Recent studies from various countries, including The Netherlands, have evaluated the cost effectiveness of palivizumab prophylaxis for RSV infections in risk groups (5,6). These studies concluded that palivizumab prophylaxis is not cost effective with a probable exception for patients with a strongly increased risk (not DS).
Conclusion. We do not agree with the authors to treat all DS children with palivizumab. Palivizumab should only be given in well proven risk populations. We do agree with the authors that a randomized controlled trial (RCT) to prove the efficacy, safety and (cost)effectiveness of palivizumab prevention is needed in DS children.
In their editorial Paes and Mitra suggest that all patients with down syndrome (DS) <2 years should be considered to give palivizumab (Synagis®) to prevent respiratory syncytial virus (RSV) infection. We agree with the authors that DS children are at increased risk to develop RSV infections. However, we do not agree with their recommendation for palivizumab prevention in all DS children <2 years. In our opinion there is insufficient evidence on the efficiency and cost effectiveness and the recommendation is therefore premature.
For the evaluation of preventive interventions the incidence and the absolute risk of acquiring the disease, and the effectiveness of the proposed intervention are important factors. The reported incidence of clinical relevant RSV infections in the general population in western countries is about 18/1,000 in newborns <2 months, 17/1,000 in children <6 months and 3/1,000 in children <5 years ( 2,3). Considering a relative extra risk of 5.5 in DS children (1) the calculated RSV incidence is 99/1,000 <2 months ( one out of 10) , 94/1,000 <6 months and 17/1,000 <5 years, respectively. The effectiveness of prevention of clinical treatment in premature children with palivizumab is about 50% (4). The extrapolated number needed to treat (NNT) for newborns with DS is 20 to prevent one hospitalization due to RSV infection. But what is the harm of this treatment as 19 out of 20 DS newborns will be given 114 injections per year. For DS patients <5 years these numbers are even worse: 594 injections are given to prevent 1 clinical admission, as the NNT in this DS age group is about 100. In our opinion the potential harm of palivizumab treatment does not outweigh the harm of one prevented hospital admission.
What about the financial burden? For the DS newborns <2 years in The Netherlands the costs to prevent one hospitalization will be about Euro 76.200 (20 * 6 * Euro 635); for DS children < 5 years these costs to prevent one admission rise to Euro 630.000 (100 * 6 * Euro 1,050). Recent studies from various countries, including The Netherlands, have evaluated the cost effectiveness of palivizumab prophylaxis for RSV infections in risk groups (5,6). These studies concluded that palivizumab prophylaxis is not cost effective with a probable exception for patients with a strongly increased risk (not DS).
Conclusion. We do not agree with the authors to treat all DS children with palivizumab. Palivizumab should only be given in well proven risk populations. We do agree with the authors that a randomized controlled trial (RCT) to prove the efficacy, safety and (cost)effectiveness of palivizumab prevention is needed in DS children.
References.
1. Paes B, Mitra S. Palivizumab for Children with Down syndrome: is the time right for a universal recommendation? Arch Dis Child doi:10.1136/archdischild-2018-316408
2. Hall CB, Weinberg GA, Iwane MK, et al. The burden of respiratory syncytial virus infection in young children. N Engl J Med 2009; 360: 588-98.
3. Hall CB, Weinberg GA, Blumkin AK, et al. Respiratoy syncytial virus-associated hospitalizations among children less than 24 months of age. Pediatrics 2013; 132: e341-8.
4. The Impact-RSV Study Group. Palivizumab, a humanized respiratory syncytial virus monoclonal antibody, reduces hospitalization from respiratory syncytial virus infection in high-risk infants. Pediatrics 1998; 102: 531-7.
5. Olchanski N, Hansen RN, et al. Palivizumab prophylaxis for respiratory syncytial virus: examining the evidence around value. Open Forum Infectious Diseases OFID 2018. Doi: 10.1093/ofid/ofy031.
6. Blanken MO, Frederix GW, et al. Cost-effectiveness of rule-based immunoprophylaxis against respiratory syncytial virus infections in preterm infants. Eur J Pediatr 2018; 177: 133-44 Doi.org/10.1007/s00431-017-3046-1.
Thank you for your attention to this research. Firstly, this systematic review showed that LOS was decreased in the HFNC group comparing with SOT group in low-income and middle-income countries. As you mentioned in the letter that even in high-income countries, it’s not realistic to treat all bronchiolitis patients with HFNC during RSV peaks. The inconsistent result of LOS in different countries may be caused by the level of medical practice in different areas because the LOS in low-income and middle-income countries was significantly longer than in high-income countries. So the clinical heterogeneity suggested that the level of medical practice was also important for bronchiolitis. Secondly, two studies showed that patients with treatment failures in SOT group could be treated with HFNC in the wards. This meta-analysis showed that there was a significant increase in the incidence of treatment failure in HFNC group compared with nCPAP group (RR 1.61, 95% CI 1.06 to 2.42, p=0.02). Therefore, we need more research to explore which choice (HFNC or nCPAP) is better for patients with treatment failures in standard oxygen supplementation.
Retzler et al. report estimates of the economic cost of congenital cytomegalovirus (cCMV) in the United Kingdom.1 The projected costs of autism spectrum disorder (ASD) among persons with cCMV accounted for at least 50% of the total costs attributed to cCMV. However, an association between cCMV and ASD has not been conclusively established,2 and, in their analysis, Retzler et al. did not take into account the cost of ASD among children without cCMV.
Retzler et al. used published ASD prevalence estimates from a Dutch study of >30,000 children screened for cCMV at 6 years of age using stored dried blood specimens, of whom 133 were CMV-positive. Of 26 children classified with symptomatic cCMV, 2 (7.7%) had ASD, as did 2/107 (1.9%) with asymptomatic cCMV.3 Retzler et al. assumed 11% of children with cCMV are symptomatic, which implies a weighted average ASD prevalence of 2.5% among children with cCMV. Five of 274 (1.8%) matched children without cCMV in the Dutch study also had ASD. If ASD were causally associated with cCMV, which has not been shown, the cost of ASD attributable to cCMV would be the cost difference of ASD among children with and without cCMV. Therefore, the projected cost of cCMV has been overestimated. Moreover, if the reported association of cCMV with ASD turns out to be non-causal, the total cost of cCMV could be half that estimated by Retzler et al.
References
Show More1. Retzler J, Hex N, Bartlett C, et al. Economic cost of congenital CMV...
Sir,
I would like to add to the article ‘What dose of aspirin should be used in the initial treatment of Kawasaki disease?’ by Luke Guo Yang Ho and Nigel Curtis (Archives, 2017, 102, 1180-1182). Fifteen months have passed since this article concluded that low-dose aspirin is not inferior to higher doses in reducing the risk of coronary artery abnormalities in acute Kawasaki disease. Since then, it is worth considering what and if anything has changed in the field. A recent study not included in the review is a retrospective cohort study by Huang et al1 (2018), where 910 patients followed up for 2 years, which showed that there was no significant difference between 3 groups in terms of anti-inflammation or prevention of coronary artery abnormalities. This paper concluded that the role of aspirin in the treatment of the acute phase of Kawasaki disease should be questioned, as a definite benefit has not been shown. Therefore, in concordance with the conclusion of the review, this rapid response poses that current data remains unchanged with regards to the role and effects of administration of higher doses of aspirin on coronary outcome in acute Kawasaki disease. In the absence of evidence to support higher doses in prevention of coronary artery abnormalities, low-dose aspirin (3–5 mg/kg) may be the safest, most rational approach until better evidence becomes available.
There are currently three prospective randomised control trials in process to continue this inv...
Show MoreAuthors (full names and academics degrees)
• Laura Moreno-Galarraga1 MD PhD
• Miguel Ángel Martínez-González2 MD PhD MPH
• Diego Mauricio Peñafiel Freire3 MD
• Elsie M Taveras4 MD MPH
Affiliations
1) Department of Pediatrics, Complejo Hospitalario de Navarra. IdisNa; Instituto de Investigación Sanitaria de Navarra, Health Research Institute of Navarra, Pamplona, Spain.
2) Department of Preventive Medicine and Public Health, University of Navarra Pamplona, Spain. Dpt. Nutrition, Harvard TH Chan School of Public Health, Boston, MA. CIBER Fisiopatología de la Obesidad y Nutrición, Instituto de Salud Carlos III, Madrid, Spain.
3) Department of Pediatrics, Complejo Hospitalario de Navarra, Pamplona, Spain
4) Division of General Academic Pediatrics, Massachusetts General Hospital for Children, Boston, MA; Department of Pediatrics, Harvard Medical School, Boston, MA; Department of Nutrition, Harvard T.H. Chan School of Public Health, Boston, MA.
Dear Editor;
We have read the article about myths, milk and mucus, and we couldn’t agree more.1 We have observed the prevalence of the same myth and the same concern that many parents are limiting their child’s consumption of dairy products or replacing milk with vegetable drinks, despite the current recommendations.2
We conducted a study in 169 school-age children in Spain and we did not find any association between dairy products consumption (milk, cheese or yo...
Show MoreWe thank Drs Bok et al. for their comments on our recent editorial about the use of palivizumab in children with Down syndrome (DS).[1] However, most of their arguments are not pertinent to DS. First, they describe the general incidence of respiratory syncytial virus (RSV) in children aged <5years. Second, they discuss the efficacy of palivizumab based on the IMpact trial [2] that did not include children with DS. We provided concrete evidence from [3] metanalyses conducted in 1.1 million children with DS, that the risk of RSV-related hospitalisation (RSVH) is 6.1–8.7- fold higher than children without DS.1 Drs Bok et al. also fail to appreciate that the overall relative risk of RSVH without palivizumab, is 5.5-fold (95% CI 3.97 to 7.7) higher based on robust, high quality evidence.[3] In our previous study we also reported that for every 1000 children with DS with RSV there will be 200 more (95% CI,131-297) hospitalisations compared with 1000 children without DS with RSV (RR, 5.53; 95% CI,3.97-7.73; high GRADE).[4] Moreover, Drs Bok et al. have extrapolated the number needed to treat (NNT) with prophylaxis to prevent one RSVH in children with DS using sub-optimal data. In a prospective case-control, cohort study conducted in the Netherlands and Canada, the estimated NNT in children with DS, adjusted for confounding variables, is 12 and not 20.[5] This number also aligns with the report from the CARESS registry [6] and compares favourably with the NNT of 16 for preter...
Show MoreDear Sir,
We thank Dr Nadeem, for highlighting that the clinical features of drowsiness and infant focal seizures in our case report indicates that early treatment for viral/herpes encephalitis was an imperative.
We would like to reassure Dr Nadeem that our infant did indeed receive a combination of early intravenous antiviral treatment (acyclovir) and antibiotics (cefotaxime and amoxicillin) and this was continued until final viral/bacterial PCR and CSF culture results were obtained. The use of acyclovir and amoxicillin was omitted from the original report due to word count limitations.
Viral PCR tested was negative for a range of viruses including herpes simplex (HSV). Although PCR assay is an important diagnostic modality for viral encephalitis HSV, we would add that due to focal seizures, our infant case received investigations and treatment as per national (1) and local guidelines: immediate brain CT imaging was performed to exclude neurosurgical conditions, and a later cranial MRI scan did not show selective damage to the mesial temporal lobe structures or the hippocampus. In addition, an early electroencephalogram (EEG) was normal. The EEG severity and the presence of epileptic seizures at the initial presentation would be significant indicators for predicting the 6-month clinical outcome in patients with HSE.
The seriousness of HSV CNS infections suggests that clinicians maintain a high index of suspicion to initiate evaluation under s...
Show MoreWe thank Dr Cliona M Ni Bhrolchain for her interest in our paper and her comments. With the exceptions of newborn hearing and blood spot screening, there is unacceptably wide variation at local level and a lack of commitment at national level in implementation and monitoring of preventive child health programmes. We suggest that this is just one manifestation of a wider problem - the serious inadequacy of NHS investment in leadership, education and training, both in general practice and in the specialties. Morale is low and there are chronic shortages of staff with the relevant skills, when medicine is changing and public expectations rising faster than ever before.
David Hall and David Sowden (affiliations as on our original paper)
I refer to the paper published by Palmer et al in Archives Diseases Childhood March 20181 that states the recommendation to avoid tramadol when breastfeeding and the contraindication to its use in children (including neonates) is inappropriate in their view. 1
Show MoreI disagree with the authors that tramadol is a safe for babies of breastfeeding mothers. Their conclusion, in my opinion, is premature and not adequately evidence-based. While they acknowledge, the US Food and Drug Administration (FDA) reported cases, they ignore the serious warnings by both Manufacturer and FDA about administering tramadol to children and breast-feeding mothers. There is increasing concern that narcotics used for treating pain in breastfeeding mothers may increase the risk of adverse effects in newborns, including excessive sedation and respiratory depression. The American Academy of Pediatrics (AAP), the FDA and the American College of Obstetricians and Gynecologists (ACOG) advocate against the use of codeine and tramadol in women who are breastfeeding because their babies may suffer adverse reactions, including excessive sleepiness, difficulty breathing, and potentially fatal breathing problems. 2-5 Patient safety should be foremost in our minds in making any recommendations that are contrary to Manufacturer, FDA, and AAP recommendations. It would be difficult to justify use of tramadol in a breastfeeding mother in the event of litigation arising from adverse effects of tramadol in the baby...
We welcome the paper by Verfurden et al1 on avoidable mortality from RTI and SUDIC with chronic conditions. We do not doubt the conclusion that chronic conditions are strongly associated with deaths from RTI, but disagree with the conclusion that chronic conditions are also associated with SUDIC or the need for changes to death certification.
Show MoreThe study excludes deaths of infants less than 2 months old; however the peak age for unexplained infant deaths (classified as SIDS or unascertained) is 6 weeks. Data from England for the years 2004-10 show that 45% of unexpected infant deaths occurred prior to 2 months of age2, with the exception of those infants with congenital anomalies it is unlikely that these infants will have been diagnosed with a chronic condition by the time of death. Due to these issues, the study is likely to have significantly over-estimated the association of chronic conditions with SUDIC and we would invite the authors to revise their conclusion.
The authors suggest that death registrations and hospital databases should categorise deaths as expected or unexpected to help identify potentially preventable deaths. Child Death Overview Panels in England review all deaths, determining modifiable factors; and these reviews are to be collated nationally by the new established National Child Mortality Database. A similar system of Child Death Reviews has already been recommended by the Scottish Government. It would seem more sensible to fully embrace...
In their editorial Paes and Mitra suggest that all patients with down syndrome (DS) <2 years should be considered to give palivizumab (Synagis®) to prevent respiratory syncytial virus (RSV) infection. We agree with the authors that DS children are at increased risk to develop RSV infections. However, we do not agree with their recommendation for palivizumab prevention in all DS children <2 years. In our opinion there is insufficient evidence on the efficiency and cost effectiveness and the recommendation is therefore premature.
Show MoreFor the evaluation of preventive interventions the incidence and the absolute risk of acquiring the disease, and the effectiveness of the proposed intervention are important factors. The reported incidence of clinical relevant RSV infections in the general population in western countries is about 18/1,000 in newborns <2 months, 17/1,000 in children <6 months and 3/1,000 in children <5 years ( 2,3). Considering a relative extra risk of 5.5 in DS children (1) the calculated RSV incidence is 99/1,000 <2 months ( one out of 10) , 94/1,000 <6 months and 17/1,000 <5 years, respectively. The effectiveness of prevention of clinical treatment in premature children with palivizumab is about 50% (4). The extrapolated number needed to treat (NNT) for newborns with DS is 20 to prevent one hospitalization due to RSV infection. But what is the harm of this treatment as 19 out of 20 DS newborns will be given 114 injections per year...
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