Title :
Window-based energy-aware model for real-time detection and reporting of progressive development of cardiac atrial fibrillation in wearable computing
Author :
Bouhenguel, Redjem ; Mahgoub, Imad ; Ilyas, Mohammad
Author_Institution :
Dept. of Comput., Electr. Eng. & Comput. Sci., Florida Atlantic Univ., Boca Raton, FL, USA
Abstract :
Current portable healthcare monitoring systems are small, battery-operated electrocardiograph devices that are used to record the heart´s rhythm and activity. However they are not energy-aware and fall short on delivering real-time early detection and reporting of progressive development of cardiac atrial fibrillation (A-Fib). Previous work by the same authors proposes adopting an incidence-based energy-aware model that incorporates a real-time detection algorithm for the onset of A-Fib using an A-Fib incidence rate in a wearable computing device during a 24 hour period. The results of the adopted incidence-based energy-aware model show an improvement of 38.2% when compared to the energy consumed by current telemetry energy model. This paper extends the previous design to the paroxysmal phase of A-Fib within a personalized A-Fib prevalence window lasting up to 7 days in order to monitor and detect the progressive development of A-Fib in wearable computing devices. The results from the new window-based energy-aware model show that the proposed energy model may potentially consume 89.7% less energy than the telemetry energy model. The design shows promising results in further meeting the energy needs for real-time detection and reporting of progressive development of cardiac A-Fib in wearable computing devices.
Keywords :
biomedical telemetry; electrocardiography; health care; real-time systems; wearable computers; A-Fib incidence rate; A-Fib prevalence window; battery-operated electrocardiograph devices; cardiac atrial fibrillation; current telemetry energy; heart activity; heart rhythm; paroxysmal phase; portable healthcare monitoring; real-time early detection; wearable computing; window-based energy-aware model; Biomedical monitoring; Fires; GSM; Image edge detection; Monitoring; Rhythm; Wireless sensor networks; Energy-aware; detection of cardiac atrial fibrillation; real-time monitoring; sensing; wearable computing;
Conference_Titel :
High Capacity Optical Networks and Enabling Technologies (HONET), 2011
Conference_Location :
Riyadh
Print_ISBN :
978-1-4577-1170-1
DOI :
10.1109/HONET.2011.6149794