Early to late adolescence is an intense period of development.
Anecdotal evidence suggests that teens may avoid or ignore treatment regimens.
Teens must master and prioritize daily complex symptom management.
Parents need to communicate, monitor adherence, and be a resource.
Chronic illness effects one in ten adolescents worldwide. Adolescence involves a desire for autonomy from parental control and the necessity to transition care from parent to child. This review investigates the transition to adolescent self-management of chronic illness treatment behaviors in the context of parent-adolescent relationships.
A systematic search of PubMed, CINAHL, and Web of Science was conducted from earliest database records to early June 2017. Articles were included if they focused on adolescents, addressed illness self-management, discussed the parent-adolescent relationship, and were published in English. Articles were excluded if the chronic illness was a mental health condition, included children younger than 10 years of age, or lacked peer review.
Nine studies met inclusion criteria. Outcomes included challenges to adolescent self-management, nature of the parent-adolescent relationship, illness representation, perceptions of adolescent self-efficacy in compliance, medical decision making, laboratory measures, and adolescent self-management competence. Across diagnoses, parents who were available to monitor, be a resource, collaborate with their adolescent, and engage in ongoing dialogue were key in the successful transition to autonomous illness management.
There is a paucity of research addressing the experiences of adolescents in becoming experts in their own care.
This guideline covers specific aspects of respiratory support (for example, oxygen supplementation, assisted ventilation, treatment of some respiratory disorders, and aspects of monitoring) for preterm babies in hospital.
Vasoactive drug preparation for continuous infusion in children is both complex and time consuming and places the paediatric population at higher risk than adults for medication errors. We developed a mobile device application (app) as a step-by-step guide for the preparation to delivery of drugs requiring continuous infusion. The app has been previously tested during simulation-based resuscitations in a previous single-centre trial. In this trial, our aim was to assess this app in various hospital settings.
We did a prospective, multicentre, randomised, controlled, crossover trial to compare this app with an internationally used drug-infusion-rates table for the preparation of continuous drug infusion during standardised, simulation-based, paediatric post-cardiac arrest scenarios using a high-fidelity manikin. The scenarios were split into two study periods to assess the two preparation methods consecutively, separated by a washout distraction manoeuvre. Nurses in six paediatric emergency centres in Switzerland were randomly assigned (1:1) to start the scenario with either the app or the infusion-rates table and then complete the scenario using the other preparation method. The primary endpoint was the proportion of participants committing a medication error, which was defined as a deviation from the correct weight dose of more than 10%, miscalculation of the infusion rate, misprogramming of the infusion pump, or the inability to calculate drug dosage without calculation and guidance help from the study team. The medication error proportions observed with both preparation methods were compared by pooling both study periods, with paired data analysed using the unconditional exact McNemar test for dependent groups with a two-sided α level of 0·05. We did sensitivity analyses to investigate the carryover effect. This trial is registered with ClinicalTrials.gov, number NCT03021122.
From March 1 to Dec 31, 2017, we randomly assigned 128 nurses to start the scenario using the app (n=64) or the infusion-rates table (n=64). Among the 128 drug preparations associated with each of the two methods, 96 (75%, 95% CI 67-82) delivered using the infusion-rates table were associated with medication errors compared with nine (7%, 3-13) delivered using the mobile app. Medication errors were reduced by 68% (95% CI 59-76%; p<0·0001) with the app compared with the table, as was the mean time to drug preparation (difference 148·2 s [95% CI 124·2-172·1], a 45% reduction; p<0·0001) and mean time to drug delivery (168·5 s [146·1-190·8], a 40% reduction; p<0·0001). Hospital size and nurses’ experience did not modify the intervention effect. We detected no carryover effect.
Critically ill children are particularly vulnerable to medication errors. A mobile app designed to help paediatric drug preparation during resuscitation with the aim to significantly reduce the occurrence of medication errors, drug preparation time, and delivery time could have the potential to change paediatric clinical practice in the area of emergency medicine.
This pathway describes the action that a practitioner should take if they become aware of a bruise or suspicious mark on a non-mobile baby. A new animation film, developed by a multi-agency partnership group led by Dr Becky Sands (Designated Doctor for Safeguarding), is now available to help promote the pathway. The film provides advice to practitioners about seeking an explanation from the babies carers and what action to take if no explanation is provided or an unlikely or inadequate explanation is given.
Please take a look at the animation and share it with your colleagues.
The film promotes the ‘bruising in babies pathway’ which has recently been updated
The ‘bruising in babies pathway’ can be found in the resources section of the procedures.
A little over a decade ago, the Lancet Climate Commission concluded that anthropogenic climate change threatens to undermine the past 50 years of gains in public health and, conversely, that a comprehensive response to climate change could be ‘the greatest global health opportunity of the 21 st century’. In a recent review, experts quantified the impact of climate change on health and estimated that heatwaves between 2000 and 2016 had resulted in 5.3% lower outdoor manual productivity and that economic losses from climate change related events in 2016 alone totalled almost US$129 billion.
Children pay a disproportionate price for climate change, with some estimates suggesting up to 88% of the burden of disease related to it. Such excess risks are related to a combination of physiological vulnerability, especially among young children, as well as risk of exposure. In a study of nearly 500 000 deaths in the Catalonia region of Spain during the warm seasons of 1983–2006, Basagaña et al evaluated the association between the occurrence of extremely hot days (days with maximum temperature above the 95th percentile) and mortality. They documented 50% excess mortality among infants in the perinatal period during these extremely hot days (relative risk of death from conditions originating in the perinatal period was 1.53 (95% CI 1.16 to 2.02).
Amid the doomsday scenarios that rapid climate change foretells, there is room for optimism that collective action can bring about change. With the sustainable development goals that have been signed into a global compact by 193 countries of the world, there are unprecedented opportunities to make real and lasting strides in towards better health and well-being for generations to come (starting with our children of today). Paediatricians can play a pivotal role in translating research to practice and leading a global movement that can address many determinants of planetary health and health inequities within a generation.
The mother of a 5-week-old term infant brings the infant to the pediatrician’s office, along with a plastic milk bottle used to feed the baby. The bottle has splotches of red-pink material on the inside (Fig. 1). She wants to know what is happening to the milk in the bottle. The mother has been breastfeeding and has recently been transitioning to pumped breast milk in preparation for returning to work. For the past few days, she has noticed that the breast milk remaining in bottles that were left in a sink overnight after evening feedings turns bright pink by morning. The breast milk has been normal in color during pumping, in the pump tubing, and in bottles stored in the refrigerator before feedings.
The mother denies taking any medications, herbal supplements, or illicit drugs while breastfeeding. The pregnancy was complicated by multiple urinary tract infections, which were treated with nitrofurantoin and trimethoprim-sulfamethoxazole. She denies any signs or symptoms of mastitis.
The infant has been asymptomatic, feeding well, and is gaining weight. Birth was uncomplicated. The infant is afebrile and is well-nourished, well-hydrated, and in no distress. There are no lesions or abnormal findings on the oral mucosa. There is no lymphadenopathy. The remainder of the physical examination appears normal.
The pediatrician sent samples of pink exudate in the bottle as well as stored, expressed breast milk (which had not yet been fed to the infant) for culture. Both cultures yielded the same microbe.
What microbe is the most likely cause of this scenario? When the pediatrician calls to tell you this story and the culture results, what advice do you give?
Clinical Question Do dietary interventions, such as probiotics, improve pain in children with recurrent abdominal pain?
Clinical Application Compared with placebo, children who were treated with probiotic preparations were more likely to experience improvement in pain in the short term (odds ratio, 1.63; 95% CI, 1.07-2.47), suggesting that clinicians could consider probiotics as part of a holistic management strategy in recurrent abdominal pain.