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NCT07453264
Maintaining the infant's body temperature (thermoregulation), particularly in the first hour after birth, is critical for the newborn's survival and adaptation to the environment. It is hypothesized that the implementation of a thermoregulation bundle will lead to a faster stabilization of physiological parameters and will positively influence the initiation and overall success of breastfeeding. To this end, this study will examine the effects of a thermoregulation bundle applied at birth on the physiological parameters of newborns (vital signs such as body temperature, respiratory rate, heart rate, and oxygen saturation) and its impact on breastfeeding.
NCT06803069
Newborns have thermoregulatory mechanisms that differ from those of adults. Instead of producing heat through shivering, newborns primarily rely on non-shivering thermogenesis by the brown adipose tissue. The development of this thermogenic tissue starts around the 26th gestational week and continues until shortly before birth, after which no further growth occurs. As a result, premature infants, who have less developed brown fat, are more prone to reduced heat production and are at higher risk for hypothermia. There are few human studies examining the thermoregulatory differences and mechanisms between full-term and premature neonates, and the findings remain inconclusive. In this study, the investigators aim to conduct a prospective, observational research. Researchers will compare body temperature, brown adipose tissue activity, and specific plasma markers between full-term and premature neonates in insensive care units and during elective surgeries.
NCT03965312
A team of researchers at Rice University and Queen Elizabeth Central Hospital (QECH) are working to develop a low-cost infant incubator called "IncuBaby" that consists of two components: a temperature sensor that can continuously monitor an infant's temperature, and a heated, enclosed area that can adjust internal temperature based on the feedback from the temperature sensor. This robust, low-cost device will allow for the individualized treatment of hypothermia with minimal intervention from the clinical staff. In this study, researchers intend to evaluate the efficacy of this incubator at QECH by comparing infants' temperatures before and after treatment, and calculating the proportion of time that the infants remain in a normothermic range after rewarming. During phase I of this study, the infants will be continuously monitored using the IncuBaby temperature sensor and a gold standard temperature monitor for up to 3 days. The accuracy of the IncuBaby temperature sensor will be determined by calculating the difference between the temperatures recorded by the temperature sensor and the commercial patient monitor at each point in time. During phase II of the study, infants in need of thermal care with an incubator will be treated with an IncuBaby device and their temperatures will be continuously monitored by both the temperature sensor of the IncuBaby device and a commercially available patient monitor. Care will continue at the clinician's discretion until the infant can be weaned from the incubator or until patients are withdrawn from the study and placed on the standard of care. To determine the effectiveness of the IncuBaby device at warming infants, the temperatures of the infants will be compared before and after treatment for each subject. The proportion of time the device maintains the subject's temperature in a normal range will also be calculated.