TY - GEN
T1 - Unobtrusive In-Car Vital Signs Monitoring
AU - Radomski, Adrian
PY - 2024/12/20
Y1 - 2024/12/20
N2 - The advent of unobtrusive vital signs monitoring presents a promising
avenue for enhancing automotive safety and healthcare. This thesis
explores the development and integration of sensors for real-time monitoring of vital signs within the automotive environment. The purpose
of this research is to investigate the feasibility, accuracy and robustness
of unobtrusive sensing techniques for capturing physiological data,
focusing on breathing rate, reflective photoplethysmography (PPG),
and capacitive electrocardiography (cECG) systems.
The research methodology involves the design, implementation, and
validation of sensors capable of measuring vital signs through clothing,
thereby minimizing driver discomfort and distraction. Through the
development of novel sensor systems, this thesis addresses critical
gaps in the field of in-car vital signs monitoring.
Key findings of the research include the successful implementation of unobtrusive sensors for capturing breathing rate, PPG signals,
and ECG signals within the automotive environment. Performance
evaluation demonstrates the reliability and accuracy of these sensors,
paving the way for their integration into automotive safety systems.
The significance of unobtrusive vital signs monitoring in automotive safety and healthcare is underscored by its potential to provide
real-time insights into driver health and well-being. By enabling continuous monitoring without driver intervention, these systems have
the capacity to detect early signs of fatigue, stress, or medical emergencies, thereby enhancing driver safety and reducing the risk of
accidents.
AB - The advent of unobtrusive vital signs monitoring presents a promising
avenue for enhancing automotive safety and healthcare. This thesis
explores the development and integration of sensors for real-time monitoring of vital signs within the automotive environment. The purpose
of this research is to investigate the feasibility, accuracy and robustness
of unobtrusive sensing techniques for capturing physiological data,
focusing on breathing rate, reflective photoplethysmography (PPG),
and capacitive electrocardiography (cECG) systems.
The research methodology involves the design, implementation, and
validation of sensors capable of measuring vital signs through clothing,
thereby minimizing driver discomfort and distraction. Through the
development of novel sensor systems, this thesis addresses critical
gaps in the field of in-car vital signs monitoring.
Key findings of the research include the successful implementation of unobtrusive sensors for capturing breathing rate, PPG signals,
and ECG signals within the automotive environment. Performance
evaluation demonstrates the reliability and accuracy of these sensors,
paving the way for their integration into automotive safety systems.
The significance of unobtrusive vital signs monitoring in automotive safety and healthcare is underscored by its potential to provide
real-time insights into driver health and well-being. By enabling continuous monitoring without driver intervention, these systems have
the capacity to detect early signs of fatigue, stress, or medical emergencies, thereby enhancing driver safety and reducing the risk of
accidents.
U2 - 10.21996/zff8-bv40
DO - 10.21996/zff8-bv40
M3 - Ph.D. thesis
PB - Syddansk Universitet. Det Tekniske Fakultet
ER -