Active clinical trials for "Infant, Newborn, Diseases"

The introduction of exogenous surfactant therapy has significantly improved the mortality in preterm infants born between 23- and 28-weeks of gestation. However, the therapy has not affected the prevalence of sequelae such as bronchopulmonary dysplasia [BPD] and it may be argued that it has actually increased. BPD is a lung condition that affects up to 40% of premature babies born between 23 and 28 weeks gestational age. The prevalence of BPD decreases with increasing gestational age but can affect infants born at term who have required mechanical ventilation. It is most commonly defined based on the need for oxygen past 36 weeks post-menstrual age [PMA]. The pathogenesis of BPD is multifactorial and involves a complex balance between the underdeveloped lungs, infection, inflammation, oxygen toxicity and ventilator induced injury. In this study the investigators aim to develop a greater understanding of the interactions between the inflammatory markers present in endotracheal aspirates [ETA] and serum of preterm infants and surfactant components (including surfactant protein D-SP-D levels) in the lungs and in the serum of preterm ventilated infants. The investigators aim to recruit infants born between 23+0 and 29+6 weeks of gestation at University College London Hospital admitted to the neonatal unit, who are at risk of developing respiratory distress syndrome [RDS] and progression to BPD. The investigators plan to study the correlation between the concentrations of surfactant components (in particular SP-D) and inflammatory markers in infants across the range of gestations specified. In order to do this, the investigators will obtain gastric aspirates, endotracheal aspirates [ETA] and blood samples at birth, 24hrs and days 2 through to day 7 from participants. ETA will only be obtained if the infants are intubated and ventilated, collected by a standard technique routinely used in nursing care of ventilated babies using 1-2mls of saline.ETA and blood samples will then be analysed for levels of surfactant proteins in particular SP-D and inflammatory and immunological markers [cell counts of neutrophils, macrophages, MMPs, neutrophil elastase, IL-8, IL-6, IL 11 and IL-1]. This will allow us to map the influence of SP-D on pro and anti-inflammatory markers that have a role in the inflammatory component of BPD in these infants. Clinical data will also be collected at specified time points correlating with the plasma, gastric aspirates and endotracheal aspirates. The investigators aim to correlate clinical ventilatory parameters, infection factors and maternal factors with the inflammatory and surfactant protein profiles. In addition, the investigators will apply the international neonatal consortium Neonatal Adverse severity scores to gain a better understanding of the baseline incidence of adverse events in premature infants that are admitted to a neonatal unit.

The aim of this study is to evaluate the impact of virtual family-centered rounds in the neonatal intensive care unit on parental and neonatal outcomes.

The goal of this observational study is to collect data to develop a complete package (hardware, user interface software and algorithms) that can monitor sleep-wake stages in neonates. Real-time EEG data will be used to develop and refine the prototype monitor's ability to provide direct real-time information about sleep-wake state. The study design includes multiple iterative training/testing stages to refine the prototype. The study is divided into multiple sub-aims conducted in parallel: data acquisition, algorithm development (including comparison between gold-standard polysomnogram vs. novel algorithm markings of sleep-stages), and graphical user interface software development. The data acquisition and algorithm development are iterative and linked, such that the prototype algorithm from one iteration will be deployed real-time during the next iteration of data acquisition. This allows verification that the algorithm can perform real-time and provides prospective testing data, which is later folded into the training data for the next iteration, for verification and validation of the system.

The objective of the SafeBoosC-IIIv trial is to evaluate cerebral oximetry added to usual care versus usual care in mechanically ventilated newborns. The hypothesis is that the intervention will decrease a composite outcome of death or moderate to severe neurodevelopmental disability and/or increase the mean PARCA-R non-verbal cognitive score at two years of corrected age.

Objective: To investigate the effect of FCR as part of the FICare principles during hospital stay, on parental stress at discharge in parents of preterm or ill infants admitted to the neonatal ward for >7 days as compared to standard medical rounds (SMR) without parents as part of standard neonatal care (SNC).

About 10 per cent of all new born babies in Sweden have infant colic. This may affect the the whole family and the early connection between the baby and the parents. Although, there are no effective and safe treatment. Acupuncture is an environmental friendly method that affects pain, anxiety, sleep and the function of gastrointestinal system. Several studies have shown various results, and there are a need for high-qualitative randomised controlled trials to investigate the proposed effect further. 128 children will be randomised into two groups; acupuncture at LI4 or no acupuncture, parents will be blinded. Statistical calculations will be performed on the content of the diaries (bowel movement frequency, crying time, feeding). Registration of crying/crying in connection with acupuncture treatment, i.e. when the needle touches the skin or later until the needle is removed and 30 seconds after.

Study outcomes and endpoints: Primary outcome: to assess clinical characteristics of infants with confirmed COVID-19 infection at birth and to evaluate long-term respiratory consequences of neonatal COVID-19 infection. Secondary outcome: to evaluate the prevalence and natural history of lung function impairment among infants with confirmed COVID-19 compared to infants with no history of COVID-19. To this end, infants will undergo pulmonary function testing (PFT) with the Exhalyzer D device (Eco Medics, Switzerland).

This is an observational study to identify genetic risks for neonatal diseases, necrotizing enterocolitis (NEC) using genome-wide association study (GWAS) and enterotype investigation. We hypothesize that specific genetic factors and microbiome could predispose preterm neonates for the development of NEC.

The transition from fetus to newborn is a complex physiological process. Monitoring this process to detect potential disruptions is critical but remains a challenge. Initial evaluation of neonates is usually based on visual inspection, palpation and/or auscultation, and response to stimuli. To objectify the condition of the newborn during this vulnerable transitional period, Virginia Apgar developed a clinical assessment-based scoring system called the Apgar Score, which is widely used around the world. However, there is significant inter-observer and intra-observer variability in clinical assessments using the Apgar score. To objectively assess the condition of the newborn, the latest guidelines for postnatal adaptation and resuscitation recommend the use of electrocardiography (ECG) and pulse oximetry in the delivery room in addition to clinical evaluation. These monitoring methods allow non-invasive continuous monitoring of SpO2 (Oxygen saturation) as well as heart rate (HR), but do not provide information about potentially compromised cardiovascular status, resulting in severely restricted oxygen transport to tissues. Cerebral Oxygenation: The brain is one of the most vulnerable organs to hypoxia during the postnatal adaptation period. The recommended routine monitoring during the neonatal transition is SpO2 and heart rate. Unfortunately, these parameters do not provide any information about cerebral blood flow or oxygen supply or brain activity. About 30% of premature babies develop cerebral hemorrhage in the first 3 days after birth. This can lead to the development of hydrocephalus, poor neurological outcome and even death. For the above reasons, there is increasing interest in additional brain monitoring. Our research group has already shown in various studies that additional cerebral monitoring using near-infrared spectroscopy (NIRS) is possible in newborns immediately after birth and may be beneficial during this vulnerable phase of life. Furthermore, this add-on monitoring could inform interventions to optimize brain oxygenation, potentially affecting survival with improved short- and long-term neurological outcomes. Background: The transition from fetus to newborn is a complex physiological process. Monitoring this process to detect potential disruptions is critical but remains a challenge. Initial evaluation of neonates is usually based on visual inspection, palpation and/or auscultation, and response to stimuli. To objectify the condition of the newborn during this vulnerable transitional period, Virginia Apgar developed a clinical assessment-based scoring system called the Apgar Score, which is widely used around the world. However, there is significant inter-observer and intra-observer variability in clinical assessments using the Apgar score. To objectively assess the condition of the newborn, the latest guidelines for postnatal adaptation and resuscitation recommend the use of electrocardiography (ECG) and pulse oximetry in the delivery room in addition to clinical evaluation. These monitoring methods allow non-invasive continuous monitoring of SpO2 as well as HR, but do not provide information about potentially compromised cardiovascular status, resulting in severely restricted oxygen transport to tissues. Pulsatile mode of NIRS Recently, Hamamatsu developed new software and implemented it as a pulsatile mode in one of their near-infrared spectroscopy (NIRS) instruments, the NIRO 200 NX. In contrast to the conventional NIRS technique, which measures tissue saturation closer to venous oxygen saturation than arterial oxygen saturation, the pulsatile NIRS technique uses a higher measurement rate of 20 Hertz and can therefore measure cerebral pulse rate (cPR) and cerebral arterial oxygen saturation (SnO2) in small vessels. Using the non-invasive pulsatile NIRS technique could be a viable new method to continuously monitor blood flow to the brain during resuscitation. This can be particularly beneficial for critically ill newborns and premature babies. To date, no data have been published in neonates using the pulsatile NIRS technique.

To estimate the prevalence of congenital CMV infection in Vietnamese neonates and relating morbidity within 2-year follow-up. Along with evaluating the predictive value of the presence and the level of CMV replication in the first trimester in a highly seropositive population