Monitoring

This study aims to develop a millimeter wave radar technology-based patient monitoring system that allows for the monitoring of physiological and movement-based data in healthcare settings without requiring physical contact with individuals. The study will involve the creation of hardware and software components for processing, analyzing, and converting signals obtained through radar sensors into clinically meaningful data.

The purpose of this study is to collect and assess feedback from the users regarding the functionality and performance of the Portrait Mobile Monitoring Solution V2.0. In addition, this study aims to collect raw parameter data from the investigational devices for use in current and future Portrait Mobile development, including engineering purposes as deemed appropriate by the Sponsor.

This prospective observational study aims to identify simple external anatomical landmarks that allow reliable prediction of correct esophageal probe insertion depth. Accurate placement in the lower third of the esophagus is essential for reliable core temperature monitoring. Transesophageal echocardiography (TEE) will be used as the reference standard to confirm correct probe position. The study will evaluate the agreement between landmark-based insertion depth and TEE-confirmed placement in adult ICU patients undergoing clinically indicated TEE.

Assessment of capillary refill time (CRT) is a cornerstone of tissue perfusion monitoring in critically ill patients. CRT measurement is performed by applying brief and gentle pressure (for a few seconds) to a small area of skin until blanching occurs. CRT is defined as the time, in seconds, required for the skin surface to return to its initial color after release of pressure. Although CRT is a monitoring tool used on a daily basis in emergency departments and critical care units, its practical measurement modalities remain poorly standardized and time-consuming. Consequently, there is no consensus regarding the most reproducible bedside method for CRT assessment. Moreover, repeated CRT measurements during patient management are resource-intensive in terms of medical time and may raise issues related to healthcare staff availability. The perfusion index (PI) is a marker of tissue perfusion derived from a pulse oximetry sensor. This monitoring device is routinely used in all critically ill patients. It is placed on the finger and worn continuously, including during patient transport. Because PI measurement is automatic and continuous, establishing its correlation with CRT could allow for more precise tissue perfusion monitoring while reducing the time burden associated with bedside assessments in critically ill patients.

This observational, non-interventional cohort study evaluates the clinical use of the Bambi Belt-a CE-certified, wireless device for non-invasive heart rate and respiration monitoring-in extremely preterm infants (\<26 weeks gestation). 15 infants with intact skin and age \<24 hours will be monitored using the Bambi Belt during the first ten days of life. Primary outcomes include ease of use (application, signal stability), skin tolerance, and user experience (nurses and parents). Standard care remains unchanged. Data will be collected via clinical records and evaluation forms.

Arterial pressure is obtained from invasive arterial monitoring and noninvasive arterial monitoring using piezoelectric sensor and compared.

This feasibility study will be the first study to assess the feasibility of continuous electrophysiological monitoring during maternal exercise in women with an uncomplicated pregnancy. This may help to better understand fetal condition during exercise and offer personalised exercise recommendations in the future. In future, validating the feasibility and safety of exercise could promote greater exercise engagement among pregnant women and increase fetal wellbeiing.

The purpose of this clinical research project is to employ Mespere LifeSciences NeurOs Cerebral Oximetry system, equipped with noninvasive sensors approved by the FDA, to monitor and investigate the correlation within a cohort of patients suffering from traumatic brain injury (TBI), stroke, brain tumor, and brain bleeding. This study aims to investigate and establish the correlation between blood vessel functionality parameters-specifically, Vasodilation/Constriction Index (VDC), Vascular Resistance Index (VR), and Volume Reactivity Index (VRx)-with the crucial physiological indicators, Intracranial Pressure (ICP) and Mean Arterial Pressure (MAP). By doing so, the investigators seek to address fundamental questions surrounding cerebral hemodynamics and autoregulation in various neurological conditions.

This study evaluates the correlation between sedation depth monitoring obtained by NeuroSENSE ® NS 701 Monitor and reflexes during intravenous anesthesia in children undergoing direct laryngoscopy for surgical procedures.