Active clinical trials for "Premature Birth"

Very low birth weight infants are at increased risk of requiring prolonged duration of mechanical ventilation and multiple intubations, both of which are risk factors for ventilator-induced lung injury and BPD. Thus, it is important to investigate respiratory support methods that are able to effectively oxygenate and ventilate these high risk preterm infants while reducing their risk of lung injury. Nasal high-frequency ventilation is one potential intervention that may decrease the risk of respiratory failure in very low birth weight infants. Small studies have shown effective respiratory support over short time periods in infants, however these studies use nasal high-frequency oscillatory ventilation. To the investigators' knowledge there is no published studies looking at the use of nasal high-frequency jet ventilation in this high risk population. Use of non-invasive high frequency ventilation (HFV) has been described as a rescue method following failure of other non-invasive ventilator modes or as a means to increase the success post-extubation. When used as invasive high frequency ventilation, high frequency oscillatory ventilation (HFOV) or high frequency jet ventilation (HFJV) utilize supraphysiologic respiratory rates and small tidal volumes which has been shown to inflict less lung injury than conventional modes of ventilation. Using a mechanical newborn lung model, nasal HFV has improved CO2 removal when compared to conventional NIPPV. Animal studies in the lab of Kurt Albertine have shown improved ventilation and oxygenation in the high frequency nasal ventilation group versus the mechanical ventilation group in a preterm lamb model leading towards better alveolar formation noted histologically. The investigators hypothesize that extubation of very preterm infants to nHFJV will significantly decrease the rates of reintubation compared to those infants extubated to NIPPV.

Infants born very preterm (≤28 weeks of gestation) are at high risk of having developmental disabilities including cerebral palsy, coordination impairments, attention deficit and learning disabilities. Impairment including reduced postural control, movement variability, visual motor skills, and motor learning are common during the first months of life and are associated with later developmental disabilities. However, infant born very preterm rarely receive evidence based therapeutic intervention in the first months of life when basic science and animal intervention studies suggest the greatest efficacy. Barriers to enrollment in services delay the onset of services and delivery models rarely support targeted preventative intervention or enhanced parent engagement during in the transition from the neonatal intensive care unit (NICU) to home. Targeted intervention supporting postural control and motor learning in the NICU have resulted in short term motor gains. Interventions that enhance parent's ability to read their infant's cues and provide engagement opportunities improve maternal mental health and infant social and cognitive outcomes in the short-term. The purpose of this randomized clinical trial is to evaluate the efficacy of an intervention that combines evidence based motor intervention and parent engagement to enhance the parent's ability to provide daily motor and cognitive opportunities resulting in improved motor and cognitive outcomes. Supporting Play Exploration and Development Intervention (SPEEDI) uses guided participation to empower parents in reading infant's behavioral cues, identifying ideal times for interaction, and enriching the environment and learning opportunities. Parents participate in 5 session in 3 weeks while learning principles of engagement, readiness for interaction, and to provide early motor and cognitive learning opportunities. Parents provide 20 minutes of motor and cognitive play based enrichment daily for 12 weeks with bi-weekly physical therapist support. The parent is empowered to determine the infant's current abilities and advance the activities to the "Just Right Challenge" throughout the 12 weeks, likely continuing after the intervention. The efficacy of SPEEDI will be assessed during delivery at 2 time point; the transition from the NICU to home (around the infant's due date) and at 3-4 months of adjusted age (after the infants due date). Ninety infants will be randomly assigned to a Usual Care group, SPEEDI_Early, or SPEEDI_Later group. Group differences will be assessed in developmental outcomes on the motor and cognitive scales of the Bayley Scales for Infant and Toddler Development as well as the Early Problem Solving Indicator and Gross Motor Function Measure at the end of each intervention period, 12 and 24 months of age.

Preterms are early exposed to a stressful environment (i.e. excessive sensory stimulation and paucity of parental contact) with subsequent detrimental effects on brain maturation and neurodevelopmental outcomes. In contrast, early interventions seem to reduce stress exposure and promote neurodevelopment. The brain functional plasticity in response to environmental experiences can be partly attributed to changes in DNA methylation. In this context, LINE-1 (L1) promoter (18% of human genome) methylation/demethylation has been associated with L1 somatic mobilization in the brain genomes, contributing to experience-driven brain plasticity; this mechanism being deregulated in important neurological disease. This study aims at identifying and characterizing the role of L1 DNA repeats as a novel biomarker to predict long-term neurodevelopmental outcome in preterm infants. In addition, the study's secondary goal will be to define a preventive approach, based on early intervention strategies, for improving long-term neurodevelopmental outcomes.

Open pilot of a brief online parenting-skills intervention for young children ages 3-8 who were born very preterm (< 32 weeks gestational age). Parent-child interactions, child behavior, parent functioning, and child white matter connectivity will be assessed pre- and post-intervention 10 weeks later.

Preterm births are defined as delivery prior to 37 weeks gestation and account for 35% of infant deaths in the first year of life. Early preterm birth are deliveries prior to 32 weeks gestation and account for more than 70% of neonatal deaths and 36.1% of overall infant mortality. Women who have delivered a preterm infant and who have a short pregnancy interval (time between giving birth and subsequent conception) have an increased risk of preterm birth in subsequent pregnancies. The investigators hope to understand if a mobile health strategy can be used to reduce spontaneous preterm births via improved patient engagement, care coordination, and adherence to recommended care vs a traditional paper-based health strategy.

Every year, almost all of ½ million infants born prematurely in the US and 15 million worldwide suffer from abnormal brain maturation resulting from interactions between immaturity and atypical sensory experiences after birth. The current proposal uses rigorous scientific methods to measure the effects and determine the mechanisms of action of a parent-supported multisensory neurorehabilitative intervention for preterm infants, adaptable to a wide variety of neonatal environments, even when parents cannot be at their child's bedside. The intervention aims to improve brain multisensory processing, reactions to sensory stimulation in the home and long term language and motor development.

Premature birth (PTB, birth before 37 weeks of pregnancy) is a global, yet unsolved, problem. With a global amount of approximately 15 M babies born prematurely, PTB is the leading cause of perinatal morbidity and mortality in many countries. Furthermore, premature babies often have complicated medical problems, especially those born very early. Some women spontaneously deliver prematurely without any symptom or sign of the imminent labor, whereas others present with symptoms of preterm labor (PTL). In the latter case, clinicians can intervene and treat the woman with tocolytics and antenatal corticosteroids in order to accelerate fetal lung maturation and reduce the risk of respiratory distress syndrome. However, one of the major challenges in the management of women presenting with symptoms of PTL is to distinguish between true and false PTL with the existing clinical methods (digital examination or transvaginal cervical length assessment). In fact, over 50% of the women presenting with PTL symptoms do not deliver prematurely and are still unnecessarily hospitalized and treated with corticosteroids as well as tocolytics, and only less than 10% of women give birth within 7 days of presentation. Unnecessary treatments and hospitalizations also result in increased health costs. Thus, there is a need for more accurate methods and tools to evaluate the cervical maturation status as indication of imminent labor in order to avoid unnecessary hospital admissions and therapy. Recently, cervical stiffness has been evaluated as more reliable tool for prediction of spontaneous preterm birth. Cervical stiffness can be evaluated using ultrasound by cervical elastography , but also by an aspiration technique-based method with a novel CE-marked device, the Pregnolia System. Thus, the aims of this study are to evaluate: if the cervical stiffness measured with the Pregnolia System can differentiate between women with true PTL and those with false PTL, if the knowledge of cervical stiffness improves the detection of women at true risk of spontaneous preterm birth in combination or over state of the art (e.g. cervical length on TVUS).

Yearly 15 million babies worldwide are born too soon. 10% of these preterm births occur very early before 32 weeks of gestation and these newborns are at high risk for neurodevelopmental disorders later in life. Neurocognitive disorders now touch 27% of the European population, and 5% or 3.3 million children suffer from social and learning difficulties, including attention-deficit hyperactivity disorders and autism, whose rates are increasing and prematurity contributes to this rise. Cognition, and socio-emotional competence are based on intact brain structure and functions that are formed early in development, both pre- and post-natally, and are heavily influenced by environment. Ramon y Cajal in his studies on the making of the brain clearly stated: "The total arborisation of a neuron represents the graphic history of conflicts suffered during its developmental life". Understanding how environment affects early brain development and defining timing and mode of early interventions to enhance brain development in high risk populations, such as preterm infants, is currently acknowledged as a fundamental endeavor for the scientific community (see guidelines of the National Scientific Council for the Developing Child). Interventions to improve and maintain cognitive and socio-emotional skills are to become an essential tool of medical care for high-risk infants. The goal of this study is to test the impact of a Mindfulness-based intervention - considered to target brain networks previously described as affected by prematurity and improve socio-emotional and executive functions. Mindfulness based intervention (intentional self-regulation of attention) will be performed in 10-13 year old preterm children, both from our prior studied preterm cohorts. Overall, our planned research will fill an important gap in our theoretical understanding of the brain vulnerability linked to prematurity. Even more importantly, the compelling issue of how to build cognitive and emotional resilience in preterm children will be addressed by preventing the onset of difficulties and reducing them with appropriate interventions.

This study continues an adaptation of care coordination to address the needs of women after preterm birth. This is a small single arm open trial designed to test intervention implementation and refine the intervention before ongoing feasibility testing.

Current recommendations for pacemapping are based on expert opinion and animals models. Present study sought to evaluate the influence of different parameters of pacemapping on QRS morphology. Pacemapping is performed with different cycle length (fixed burst vs. coupling interval) and stimulation output (maximum output vs. threshold) and resulting QRS complexes are compared to clinical PVC and the standard of care to determine the optimal parameter setting in pacemapping.