Body Temperature

Moni-Patch Temperature Monitoring Patch System, a non-invasive, continuous temperature monitoring device designed to estimate core body temperature by applying a Sensor to the neck. This clinical accuracy validation study aims to verify the accuracy and repeatability of the Moni-Patch compared with an FDA-cleared continuous tympanic temperature monitoring device used as the clinical reference. Main objectives of this study are; To verify that the Moni-Patch and the reference device(tympanic) demonstrate acceptable agreement, as defined by Bland-Altman Analyses (bias within ±0.4°C and limits of agreement between -1.0°C and 1.0°C). To verify the consistency and repeatability of temperature measurements obtained from the Moni-Patch during continuous monitoring.

This study will compare different combinations of fertility signs (cervical mucus (CM), luteinizing hormone \[LH\], pregnanediol glucuronide \[PDG\], and basal body temperature \[BBT\]) to determine which are most reliable for identifying ovulation and luteal phase length. Thirty existing Premom App users will track daily observations for three menstrual cycles. Participants will record mucus, perform urine tests, upload test strip photos to the Premom App, and measure BBT. Both participant readings and AI-assisted app readings will be analyzed. The main goal is to find which marker pairings give the most accurate picture of ovulation timing and luteal phase length. Secondary goals include understanding ease of use, the number of tests required, and whether the app improves accuracy.

The vital signs (pulse, systolic and diastolic blood pressure, respiratory rate, oxygen saturation and body temperature) are critical in assessing the severity and prognosis of infections. The devices used today for measuring the vital signs have to be in physical contact with the patients. There is an apparent risk of transferring infections from one patient to the next (or to healthcare professionals). Accurately obtaining vital signs is also important when managing other categories of patients where it may be relevant to obtain some of the vital signs such as pulse and blood pressure. This project aims to evaluate a new camera-based system for contactless measurement of vital signs.

Previous studies have shown that mortality and morbidity in preterm neonates are correlated with the fall in body temperature on admission. Hypothermia can be decreased by reducing body heat losses to the environment. The investigator research hypothesis is that a new calculation of the air temperature in the incubator would promote the newborn infant weight growth from the period between birth and day 10 of life compared to cutaneous mode. The secondary hypotheses assumes a decrease in the side effects usually observed in both morbidity and mortality. A software is used to calculate the body heat loss (BHL) of each individual preterm infant, and to propose a specific air temperature setting inside the incubator to reduce BHL to zero. This software has been validated in a previous pilot study (Degorre et al. 2015). This study aims to compare the energy costs of providing incubated preterm infants born between 25 and 32 weeks of gestation with homeothermia using either specific individualized air temperature control (ATC) or skin servocontrol (SSC).