In our experience, most anastomotic leaks can be managed with conservative measures alone. In many patients, abdominal drains are effective in the management of leaks, obviating the need for reintervention. Nasoenteral nutrition was effective in the non-operative management of gastrojejunal leaks in patients without signs of systemic toxicity.

Background: Mechanistic target of rapamycin (mTOR) inhibitors are being used off-label showing promising results in patients with vascular anomalies. Children with lymphatic malformations (LMs) involving the airway benefit from sirolimus therapy soon after birth, reducing the need of tracheostomy. Available information about efficacy and side effects in neonates remains poor. We present seven newborns with severe head and neck LM showing response to sirolimus with no significant toxicity. Methods and Results: We performed a retrospective review of neonates with head and neck LM who received sirolimus between January 2014 and May 2018 with upper airway involvement needing ventilatory support. We analyzed type of LM, involved anatomical area, symptoms and response to sirolimus, including dosage, blood levels, response, side effects, and complications. Seven neonates received primary treatment with sirolimus in the context of cervical LM. Sirolimus was started at the recommended dose of 0.8 mg/m 2 /12 h and adjusted to maintain blood levels between 4 and 12 ng/mL. Median follow-up was 32 months (4-43) with a median treatment duration of 12 months (3-43). One patient had complete resolution of the malformation, one had complete resolution of symptoms, and five had partial resolution of the malformation with significant improvement in their respiratory conditions. Two patients required additional subtotal surgical resection and one tracheostomy. Four patients remain under treatment. Toxicity was not observed. Conclusions: Sirolimus is a safe drug in neonates and can be considered the first therapeutical option in newborns at high risk of respiratory failure before sclerosis or surgery. Close follow-up is mandatory to identify side effects at long-term use.

LRYGB is a technically demanding procedure for the surgical treatment of morbid obesity with significant morbidity during the learning curve. The learning curve can be soon overcome, reaching a rate plateau of complications after adequate training. Morbidly obese patients should be operated on in expert bariatric surgical laparoscopic units to obtain the best results.

CSF beta(2)-m was increased in newborns with CMV infection (median 6.21 mg/L) compared with controls (1.68 mg/L) (P<.001). beta(2)-m showed a correlation with neuroimaging scores (r (s)=0.753, P=.002). beta(2)-m was higher in patients who scored 2-3 (12.83 mg/L) than in patients who scored 0-1 (5.52 mg/L) (P=.028). CSF beta(2)-m is increased in newborns with symptomatic congenital CMV infection and correlates with neuroimaging abnormalities. beta(2)-m appears to be an indicator of the severity of brain involvement in congenital CMV infection.

The quality of life of morbidly obese patients is worsened not only because of the presence of digestive symptoms but also because of their emotional, physical and social impact. Patients operated on by LRYGBP experience an improvement in their quality of life, with good tolerance of the anatomical changes.

Background: Family Integrated Care (FICare) integrates parents in the direct care of their child while the healthcare personnel act as teachers and guides. To this date, most reports on the feasibility of this model refer to stable preterm infants admitted to Neonatal Intensive Care Units (NICUs).Objectives: To scale up and adapt FICare to make it suitable in level IIIC NICUs, which care for extreme prematurity and other complex medical or surgical neonatal conditions.Materials and Methods: Step 1 was the creation of the FICare implementation team (FICare-IT) and baseline analysis of current procedures for critical care to identify needs, wishes, and requirements; we aimed for protocol elaboration tailored to our cultural, architectural, and clinical context (March 2017 to April 2018). Step 2 as a dissemination strategy by FICare-IT acting as primary trainers and mentors to ensure the education of 90% of nursing staff (May 2018 to July 2018). Step 3 involved piloting and evaluation with the aim to refine the procedure (July 2018 to December 2020).Results: A rigorous but flexible protocol was edited. The FICare educational manual included two curricula: for healthcare professionals/staff (Training the trainers) and for families (Education of caregivers), the latter being categorized in two intervention levels (basic and advanced), depending on the infant care needs and parent's decision. In total, 76 families and 91 infants (74.7% preterm; 18.7% complex surgery; 6.6% others) were enrolled in the pilot. No differences in acceptance rate (overall 86.4%) or in the number of infant-family dyads in the program per month were observed when considering the pre- and post-Covid-19 pandemic periods. All families, except for one who dropped out of the program, completed the agreed individualized training. Mothers spent more time in NICU than fathers (p &lt; 0.05); uninterrupted time spent by mothers in NICU was longer during the pre-pandemic period (p &lt; 0.01). Observed time to reach proficiency by task was within the expected time in 70% of the program contents. The parents revealed educational manuals, workshops, and cot-side teaching sessions as essential for their training, and 100% said they would accept entry into the FICare program again.Conclusions: The principles of the FICare model are suitable for all levels of care in NICUs. Leadership and continuous evaluation/refinement of implementation procedures are essential components to achieve the objectives.

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The proband had metabolic acidosis, which was probably related to continuous contractions of somatic muscles and intractable hypertonia. Data seem to show a direct relationship between the mechanism of inheritance of the disorder and the location of the molecular defect. The patients showed almost all the clinical signs of hyperekplexia: exaggerated startle response, muscle hypertonia in response to unexpected tactile and/or auditory stimuli, hyperexcitability, and sudden falls.