View clinical trials related to Necrotizing Enterocolitis.
Filter by:This study was to see the effectiveness of azithromycin in preventing the incidence of bronchopulmonary dysphasia in extremely preterm and very premature infants. Inclusion criteria were infants with a gestational age of 25-31 weeks 6 days who experienced respiratory distress and their families had agreed to participate in the study, then randomized. The intervention was in the form of giving azithromycin in the intervention group and no intervention was carried out in the control group and then followed up to 36 weeks PMA
Prematurity is still one of the primary causes of death in children under 5. 1-2. According to the WHO, 60% of all preterm births occur in Asia, with the Philippines accounting for around 348,900 every year. 3. Necrotizing enterocolitis is one of the fatal complications (NEC) 3, 4. Preterm newborns weighing 1500 grams or less are considered high risk. 5-6. Melatonin is one chemical that may help prevent NEC. Melatonin is an endogenous indolamine derived from serotonin. It is a ubiquitous molecule that is crucial to the body's physiologic function. Melatonin, also known as N-acetyl-5-methoxytryptamine, is an immunomodulator, antioxidant, anti-inflammatory, and free radical scavenger7-10. It is a naturally occurring chemical that is simply replenished. With this in mind, the researcher wants to see if providing high dose melatonin to premature babies can prevent NEC.
Necrotizing enterocolitis (NEC) is a gastrointestinal system disease characterized by inflammatory necrosis of the intestine mainly seen in premature infants, and continues to be an important cause of mortality and morbidity in neonatal intensive care units all over the world. Although it is more common in premature infants, it is also seen in term babies when the intestine is ischemic. Although the major problem in premature babies is the immaturity of the intestine, many factors contributing to immaturity play a role in the pathogenesis of NEC.
Assesses the efficacy of melatonin in treatment of feeding intolerance in preterm infants, the time needed to reach full enteral intake, the incidence of necrotizing enterocolitis and measures the level of tumor necrosis factor-alpha as a marker of oxidative stress.
BACKGROUND Treatment of neonatal respiratory distress syndrome with exogenous surfactant and mechanical ventilation made millions of preterm infants survived in neonatal intensive care unit (NICU). Endotracheal intubation surfactant administration is related to invasive intubation and short periods of positive pressure ventilation and implies the risk of lung injury. Continuous positive airway pressure (CPAP) or NIPPV (Non-invasive positive pressure ventilation) with surfactant but without intubation may work synergistically. This randomized trial investigated a minimal invasive surfactant administration (MISA). To test the hypothesis that MISA increases survival without bronchopulmonary dysplasia (BPD) at 36 weeks' gestational age in very low birth weight infants. DESIGN, SETTING, AND PARTICIPANTS The Minimal Invasive Surfactant Administration (MISA) was a multicenter, randomized, clinical, parallel-group study conducted between July 1st, 2017, and November 30, 2018, in 8 level III neonatal intensive care units in Beijing, Tianjin, and Hebei province, China. The final follow-up date was March 30, 2019. Participants enrolled spontaneously breathing preterm infants born between 26.1 and 31.9 weeks' gestational age with signs of respiratory distress syndrome. In an intention-to-treat design, infants were randomly assigned to receive surfactant (Calf pulmonary surfactant, Double-Crane Pharmaceutical Co., China) either via a 5Fr nasogastric tube during CPAP/NIPPV-assisted spontaneous breathing (minimal invasive surfactant administration group, MISA group) or after conventional endotracheal intubation during mechanical ventilation (endotracheal intubation surfactant administration group, EISA group). INTERVENTION MISA via a 5Fr nasogastric tube with an ophthalmic surgery straight forceps.
Background: Intestinal resections are commonly performed in the pediatric population. Perfusion of the bowel is one of the most important factors determining the viability of an intestinal anastomosis. Up to date, no ideal method to assess intestinal perfusion has proven its superiority. Objectives: Primary: The aim of this study is to establish the feasibility and impact of the use of indocyanine green technology on intestinal resection margins during elective and emergency pediatric surgeries. Secondary: The secondary outcomes of interest include collection of adverse events and difficulties encountered with the use of the indocyanine green (ICG) technology. Postoperative surgical complications will also be recorded. Study Design: An open observational clinical study will be performed by using a clinical drug (indocyanine green) and medical device (SPY Fluorescence Imaging) to assess intraoperatively intestinal perfusion in a specific pediatric population.
Necrotizing enterocolitis (NEC) is a devastating disease affecting the intestines of premature infants. It involves intestine swelling, tissue destruction, infection, and even death. Improved outcome is highly dependent on early recognition and treatment, however the signs and symptoms of NEC in early stages are not obvious making it difficult to diagnose. Abdominal x-rays and ultrasound can be non-specific and may not show signs of the disease until late in its course. Infrared imaging is a non-invasive, non-radiation method that can measure the heat given off of the surface of the body and create heat maps. It is being used clinically in other situations but is still under investigation for use in preterm infants with suspected NEC. Computer analysis of the measured heat maps can be used to detect changes in the intestine such as the swelling or tissue destruction involved in NEC. Our group has previously performed a pilot study that showed that infrared imaging on babies in the NICU can be used to create heat maps that are different between normal babies and those with NEC when analyzed using specialized computer programs. In this study the investigators will improve the imaging process by using special vision sensors to automate the imaging process and make it easier for bedside staff to use this technology. Special programs will be developed to automatically select areas of interest over which temperature maps will be analyzed. The investigators will use this new imaging technique to study a population of newborns diagnosed with definitive NEC and a healthy population of newborns without NEC, and compare the heat maps obtained from each group. From the analysis of the images obtained from these two populations, the investigators will determine the suitability and necessary fine-tuning of this new imaging technique with the hopes that this technology can someday aid in the early diagnosis of NEC.
Very preterm infants (<32 weeks gestation) show the immaturity of organs and have high nutrient requirements for growth and development. In the first weeks, they have difficulties tolerating enteral nutrition (EN) and are often given supplemental parenteral nutrition (PN). A fast transition to full EN is important to improve gut maturation and reduce the high risk of late-onset sepsis (LOS), related to their immature immunity in gut and blood. Conversely, too fast increase of EN predisposes to feeding intolerance and necrotizing enterocolitis (NEC). Further, human milk feeding is not sufficient to support nutrient requirements for growth of very preterm infants. Thus, it remains a difficult task to optimize EN transition, achieve adequate nutrient intake and growth, and minimize NEC and LOS in the postnatal period of very preterm infants. Mother´s own milk (MM) is considered the best source of EN for very preterm infants and pasteurized human donor milk (DM) is the second choice if MM is absent or not sufficient. The recommended protein intake is 4-4.5 g/kg/d for very low birth infants when the target is a postnatal growth similar to intrauterine growth rates. This amount of protein cannot be met by feeding only MM or DM. Thus, it is common practice to enrich human milk with human milk fortifiers (HMFs, based on ingredients used in infant formulas) to increase growth, bone mineralization and neurodevelopment, starting from 7-14 d after birth and 80-160 ml/kg feeding volume per day. Bovine colostrum (BC) is the first milk from cows after parturition and is rich in protein (80-150 g/L) and bioactive components. These components may improve gut maturation, NEC protection, and nutrient assimilation, even across species. Studies in preterm pigs show that feeding BC alone, or DM fortified with BC, improves growth, gut maturation, and NEC resistance during the first 1-2 weeks, relative to DM, or DM fortified with conventional HMFs. On this background, the investigators hypothesize that BC, used as a fortifier for MM or DM, can reduce feeding intolerance than conventional fortifiers.
Since 1987, red blood cell (RBC) transfusions have been proposed as a potential risk factor for necrotizing enterocolitis (NEC), which is one of the most severe gastrointestinal complications of prematurity. Evidence from Doppler studies have shown a post-transfusion impairment of mesenteric blood flow in response to feeds, whereas NIRS studies have reported transient changes of splanchnic oxygenation after RBC transfusion; a possible role for these findings in increasing the risk for TANEC development has been hypothesized. The aim of this study is to evaluate SrSO2 patterns in response to enteral feeding before and after transfusion.
Patent ductus arteriosus (PDA) is a common problem in the neonatal intensive care unit and can be secondary to prematurity or congenital heart disease (CHD). PDA is the most common cardiovascular abnormality in preterm infants, and is seen in 55% of infants born at 28 weeks, and 1000 grams or less. In addition to producing heart failure and prolonged respiratory distress or ventilator dependence, PDA has been implicated in development of broncho-pulmonary dysplasia, interventricular hemorrhage, cerebral ischemia, and necrotizing enterocolitis (NEC). In an Israeli population study 5.6% of all very low birth weight infants (VLBW) were diagnosed with NEC, and 9.4% of VLBW infants with PDA were found to have NEC. In a retrospective analysis of neonates with CHD exposed to Prostaglandin E found that the odds of developing NEC increased in infants with single ventricle physiology, especially hypoplastic left heart syndrome. The proposed pathophysiological explanation of NEC and PDA is a result of "diastolic steal" where blood flows in reverse from the mesenteric arteries back into the aorta leading to compromised diastolic blood flow and intestinal hypo-perfusion. Prior studies have demonstrated that infants with a hemodynamically significant PDA have decreased diastolic flow velocity of the mesenteric and renal arteries when measured by Doppler ultrasound, and an attenuated intestinal blood flow response to feedings in the post prandial period compared to infants without PDA. Near Infrared Spectroscopy (NIRS) has also been used to assess regional oxygen saturations (rSO2) in tissues such as the brain, kidney and mesentery in premature infants with PDA. These studies demonstrated lower baseline oxygenation of these tissues in infants with hemodynamically significant PDA. These prior NIRS studies evaluated babies with a median gestational age at the time of study of 10 days or less. It is unknown if this alteration in saturations will persist in extubated neonates with PDA at 12 or more days of life on full enteral feedings. In the present study the investigators hypothesize that infants with a PDA, whether secondary to prematurity or ductal dependent CHD, will have decreased splanchnic and renal perfusion and rSO2 renal/splanchnic measurements will be decreased during times of increased metabolic demand such as enteral gavage feeding. To test this hypothesis the investigators have designed a prospective observational study utilizing NIRS to record regional saturations at baseline, during feedings, and after feedings for 48 hours.