Neonatal Encephalopathy

The main purpose of this study is to determine the maximum safe tolerated dose of LEV in the treatment of neonatal seizures. Our hypothesis is that optimal dosing of Levetiracetam (LEV) to treat neonatal seizures is significantly greater than 60mg/kg. This study will be an open label dose-escalation, preliminary safety and efficacy study. There will be a randomized control treatment component. Infants recognized as having neonatal seizures or as being at risk of developing seizures will be recruited and started on continuous video EEG monitoring (CEEG). Eligibility will be confirmed and consent will be obtained. In the first 2 phases of the study, neurologists will identify neonates with mild-moderate seizure burden (less than 8 minutes cumulative seizure activity per hour), appropriate for study with LEV, and exclude patients with higher seizure burden where treatment with PHB is more appropriate. Phase 3 of the dose escalation will only proceed if additional efficacy of LEV has been demonstrated in phases 1 and 2. In Phase 3 we will recruit neonates with seizures of greater severity up to 20 minute seizure burden/hour. This will make the final results of study more generalizable. If seizures are confirmed, enrolled subjects will receive 60mg/kg of LEV. Subjects whose seizures persist or recur 15 minutes after the first infusion is complete, subjects will then be randomized in the dose escalation study. Patients in the dose escalation study will be randomly assigned to receive either higher dose LEV or treatment with the control drug PHB in a 3:1 allocation ratio, stratified by site. Funding Source- FDA OOPD

NeoNOVA is a multi-site, prospective, single-arm, silent observational study to determine: among (Population) infants admitted to newborn services during their inpatient hospital stay, whether (Intervention) continuous bedside non-contact high definition video running real-time AI analysis of anatomic landmarks and movement, (Comparison) compared against human-labeled video frames and standardized clinical exams, will (Outcome) accurately localize infant anatomic landmarks (primary objective; outcome median position error in pixels) and demonstrate a statistically significant association between a video-derived movement index and clinical measures of patient neurological exams (secondary objective; outcomes N-PASS and modified Sarnat exams).

The purpose of this research study is to gather more information on how eye injury is related to a baby's future development and see if eye function and brain test results can be used, along with current measures, to better diagnose and treat babies with hypoxic-ischemic encephalopathy (HIE). Participants will undergo up to two eye exam sessions, involving both Visual Evoked Potential (VEP) and Electroretinogram (ERG) exams.

Neonatal anoxia-ischemia causes significant neurodevelopmental disorders. In this study the investigators want to better understand the interactions between the nervous and the hemodynamic cerebral systems during the adaptation of the neonate to ectopic life just after birth. Birth is an at risk situation of neonatal anoxic ischemia and the lack of objective criteria for cerebral tissue oxygenation has consequences on neuronal activity. Ph cord analysis is inadequate and only indirectly reflects the state of cerebral oxygenation. Both neuronal and vascular systems are part of the same functional entity and the analysis of their interactions is likely to reveal some early malfunctions of these networks. In this study, the investigators want to develop a multi-scale, multimodal approach that allows simultaneous interrogation of both neuronal and vascular compartments during the 15 minutes after delivery. The investigators will record, with the aid of a single sensor placed on the scalp of the child, the electroencephalogram and the cerebral tissue oxygenation. The investigators will measure interactions by means of correlation analysis between both signals.

Investigators at Boston Children's Hospital are conducting research in order to better understand the genetic factors which may contribute to neonatal encephalopathy (NE) and related disorders. These findings may help explain the broad spectrum of clinical features and outcomes seen in individuals with a history of NE.

The goal of this randomised control trial is to establish the safety and efficacy of whole-body hypothermia for babies with mild hypoxic ischaemic encephalopathy, inform national and international guidelines, and establish uniform practice across the NHS. The main questions it aims to answer are: 1. Does whole-body cooling (33.5±0.5°C) initiated within six hours of birth and continued for 72 hours, improve cognitive development at 24 (±2) months of age after mild neonatal encephalopathy compared with normothermia (37±0.5°C)? 2. Does a prospective trial-based economic evaluation support the provision of cooling therapy for mild encephalopathy in the NHS on cost-effectiveness grounds? Participants will have the following interventions: * Randomisation into one of the following groups * Whole body hypothermia group * Targeted normothermia group * Bayley Scales of Infant and Toddler Development 4th Edition (Bayley-IV) examination at 24 (±2) months of age. Researchers will compare the mean Cognitive Composite Scale score from the Bayley IV examination between the two groups.

Sovateltide (PMZ-1620; IRL-1620) is targeted to be used as a "Treatment for hypoxic-ischemic encephalopathy in neonates," which is a life-threatening condition. Sovateltide augments neuronal progenitor cell differentiation and better mitochondrial morphology and biogenesis to activate a regenerative response in the central nervous system. The only treatment for HIE is therapeutic hypothermia with limited success, and studies indicate that sovateltide may be beneficial in these patients.

The purpose of this study is to improve the ability of the investigators to monitor brain health in newborn babies at risk of brain injuries. The researchers will be using an investigational system of devices to non-invasively (that, is, without penetrating the skin), measure the amount of oxygen going to and being used by the brain. They will be taking some bedside research measurements during the babies' stay at the hospital. With these measurements, the intention is to study the role of oxygen in brain injury and test the efficacy of the research device and its potential as a permanent bedside diagnostic device.

The purpose of this study is to create a neonatal neurologic biological big data center named Neonatal Neurologic Intensive Care Network in China with neonatal systematic information, biological samples and genomics \& genetic data on neonates born with neonatal severe encephalopathy. It also can predict brain injury as cerebral function monitoring through big data and recommend appropriate treatment. In addition, the following samples will be collected in a bio-bank in for future studies: blood, urine, and cerebrospinal fluid (CSF) samples.

The aim of this study is to determine the value of Pentoxifylline for nephroprotection in these neonates with perinatal asphyxia, using cystatin C, regional oxygenation measured near infrared spectroscopy and renal Doppler sonography.

This is a prospective intervention single center study to evaluate the feasibility and safety of intranasal breast milk in hypoxic-ischaemic encephalopathic neonates receiving therapeutic hypothermia.

About \~3/ 1000 live-born newborns may suffer from brain injury due to a transient drop in oxygen supply to the brain during the birth process. The degree of brain injury that ensues in the first 72 hours after the injury is directly proportional to the severity of long-term childhood disabilities (e.g., cerebral palsy and developmental delays). Whole-body cooling during the first 3 days of life is proven effective in reducing the severity of brain injury. However, cooling therapy leads to pain, shivering, stress, and discomfort. The best way to alleviate the pain and agitation of cooled newborns is unknown. Standard practice is to provide morphine infusion to reduce pain. Recently, a new drug called "dexmedetomidine" has been tested in small studies and has been found to be safe during cooling in newborns. Dexmedetomidine has added beneficial effects such as anti-inflammation, faster recovery, and shorter hospital stays. This study is going to test the feasibility of conducting a future clinical trial to compare the effects of using Dexmedetomidine versus morphine in the management of cooling-related pain/agitation on the severity of brain injury in the first week of life. The study will also examine the effect of dexmedetomidine compared to morphine on short-term clinical outcomes, parental experiences and developmental outcomes at 1 year.

This study uses medical records that allow retrospective data extraction of clinical manifestation to assess the natural history of HPDL mutations

Around the time of birth, some babies experience a condition called asphyxia, which means that their brain and other organs do not receive enough blood and/or oxygen to work properly. This life-threatening condition accounts for nearly 1 out of 4 deaths of all babies around the world, and often leads to severe brain damage, cerebral palsy, epilepsy, and trouble with learning and functioning in everyday life. At this time, no treatment is available to repair the brain damage caused by asphyxia. Excitingly, a drug called sildenafil (Viagra®) is already given safely to babies who suffer from increased blood pressure in their lungs' vessels. Recent studies using a laboratory model of asphyxia at birth suggest that sildenafil may also repair the brain damage caused by asphyxia. Similarly, recent small studies have shown that it is both feasible and safe to give sildenafil to human babies, who suffered from asphyxia at birth. These studies also highlight the first promising signs that sildenafil may improve how the brains of these babies work, which is consistent with the abovementioned laboratory studies. On the basis of these previous researches, the investigators predict that sildenafil can repair the damage to a baby's brain. The investigators will test whether sildenafil can be safely given to a large group of human babies who suffer from asphyxia at birth, and will confirm whether sildenafil improves or not how their brains and hearts/lungs work. This project will enable to determine whether sildenafil is a promising treatment for repairing brain damage in babies who suffer from asphyxia at birth. This project may also provide new solutions for these babies to improve their future life.

This is an open-label prospective single-center randomized controlled trial to evaluate the effect of intranasal breast milk in hypoxic-ischemic encephalopathic neonates receiving therapeutic hypothermia on long term neurodevelopmental outcome compared to standard care.

The goal of this study is to characterize the ability and related brain profiles of children with Neonatal encephalopathy (NE) - Therapeutic hypothermia (TH) at 9 years old. The main questions it aims to answer are: 1. Compare executive function, attention, social cognition, behaviour, anxiety, self-esteem, and peer problems between children with NE-TH and matched peers without NE. 2. Compare brain volumes, cortical and subcortical morphology, white matter microstructure, and myelination between children with NE-TH and matched peers without NE. 3. Evaluate the associations of perinatal risk factors and structural brain integrity with neuropsychological deficits to inform about the potential aggravating and protective factors for neuropsychological functioning. Participants will complete one study visit to perform standardized evaluations and a brain MRI. Parents of participants will be invited to complete a series of questionnaires during this study visit or at a moment of their choice virtually.