NeoTapi
Development of a non-invasive and contactless method for measuring physiological parameters for the detection and classification of apnea of prematurity and neonatal sepsis
Contactless measurement of respiration, heart rate and body temperature for detecting apnea of prematurity and neonatal sepsis.
The aim of the NeoTapi project is to develop a method for detecting preterm infant apnea and neonatal sepsis for use in neonatal intensive care units. Using time-of-flight measurements of electromagnetic waves, thoracic micromovements in neonates are to be recorded and used to extract heart rate and respiratory movements. In parallel, contactless measurement of skin surface temperature will be performed to enable early detection of incipient sepsis.
This methodology allows the acquisition of essential physiological parameters such as respiratory rate, heart rate, thoracic movements, and central and peripheral body temperatures. Minimizing the number of required contact electrodes reduces the burden on neonates and the risk of skin injuries. At the same time, hygiene is improved and the nursing workload is reduced.
More projects of the team
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CortexMap Development of a novel navigated transcranial magnetic stimulation system for efficient planning and evaluation of neurosurgical procedures, as well as optimal integration into the surgical workflow
Navigated transcranial magnetic stimulation system for non-invasive mapping of the motor cortex in patients with brain tumors – with multi-channel EMG, automatic adjustment of stimulation intensity and analysis for surgical planning.
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EyeHearU Multimodal acquisition, simulation and audiovisual enhancement for the individual training of basic functional laparoscopic skills
Training assistance system that records multimodal data from laparoscopic exercises and predicts training progress; two studies with students have been evaluated.
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FaszioTrain Development of a sensor-based medical training model for fasciotomies
Sensor-based training model for fasciotomies of the lower leg that realistically reproduces swelling and pressure on the nerve pathways.
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ReaFBS Feedback system for reducing brain damage during cardiopulmonary resuscitation
Feedback system that measures arterial blood flow during resuscitation using Doppler ultrasound – usable by laypersons without additional training; a mobile device with automated vessel location is in development.