TY - GEN
T1 - Portable embedded medical box implementation for health monitoring applications in avionic environments
AU - Anastasopoulos, Konstantinos
AU - Kouros, Pavlos
AU - Marinos, Dimitrios
AU - Aidinis, Konstantinos
AU - Schmitt, Nikolaus
AU - Klaue, Jirka
AU - Pistner, Thomas
PY - 2009
Y1 - 2009
N2 - In the work described in this article, several types of health monitoring sensor modules have been integrated in a compact portable enclosure - such as Electrocardiogram, pulse rate, blood pressure, oximetry, temperature. In addition, a control board was designed and implemented with the purpose of interfacing and processing the data arriving from the sensor modules, and their transfer to a standard RS232 interface. The board was designed for low power operation at the minimum output data rate. To this end, maximum measurement time and also low sampling rate regarding the continuous health monitoring measurements (ECG, Oximetry) were considered. A two layered (Master-Slave) microcontroller architecture was configured to process the sensor output frame and embed relevant information, such as seat number, in order to make storage and data retrieval possible over a large network. A graphic display was also integrated with the aim of projecting passenger health state and triggering alarms when necessary. The medical box is connected to a wireless optical data network inside the aircraft cabin providing maximum flexibility. Although the primary purpose of the system realized was the alerting of trained onboard staff about a broad spectrum of possible health failures, remote health monitoring at ground presents itself as a possibility under the network infrastructure already in place.
AB - In the work described in this article, several types of health monitoring sensor modules have been integrated in a compact portable enclosure - such as Electrocardiogram, pulse rate, blood pressure, oximetry, temperature. In addition, a control board was designed and implemented with the purpose of interfacing and processing the data arriving from the sensor modules, and their transfer to a standard RS232 interface. The board was designed for low power operation at the minimum output data rate. To this end, maximum measurement time and also low sampling rate regarding the continuous health monitoring measurements (ECG, Oximetry) were considered. A two layered (Master-Slave) microcontroller architecture was configured to process the sensor output frame and embed relevant information, such as seat number, in order to make storage and data retrieval possible over a large network. A graphic display was also integrated with the aim of projecting passenger health state and triggering alarms when necessary. The medical box is connected to a wireless optical data network inside the aircraft cabin providing maximum flexibility. Although the primary purpose of the system realized was the alerting of trained onboard staff about a broad spectrum of possible health failures, remote health monitoring at ground presents itself as a possibility under the network infrastructure already in place.
KW - Biomedical monitoring
KW - Component
KW - ECG
KW - Medical diagnosis
KW - Medical information systems
UR - https://www.scopus.com/pages/publications/70449640757
U2 - 10.1109/MEMEA.2009.5167946
DO - 10.1109/MEMEA.2009.5167946
M3 - Conference contribution
AN - SCOPUS:70449640757
SN - 9781424435999
T3 - 2009 IEEE International Workshop on Medical Measurements and Applications, MeMeA 2009
SP - 17
EP - 21
BT - 2009 IEEE International Workshop on Medical Measurements and Applications, MeMeA 2009
T2 - 2009 IEEE International Workshop on Medical Measurements and Applications, MeMeA 2009
Y2 - 29 May 2009 through 30 May 2009
ER -