Title
An Energy-Efficient Computational Model for Uncertainty Management in Dynamically Changing Networked Wearables.
Abstract
The utility of wearables is currently limited to lab experiments and controlled environments mainly because computational algorithms embedded in wearables fail to produce accurate measurements in uncontrolled, dynamically changing, and potentially harsh environments. With the exponentially growing adoption of these systems in human-centered Internet-of-Things (IoT) applications, development of resource-efficient solutions to enhance the accuracy of this systems remains a considerable research challenge. In this paper, we introduce an energy-efficient framework for uncertainty management of networked wearables. The core components of our framework are anomaly screening units for detecting anomalies that require handling, thus resulting in one order of magnitude less energy consumption compared to the conventional frameworks. Furthermore, our screening approach achieves 98.3% accuracy in detecting anomalies based on real data collected with wearable motion sensors.
Year
DOI
Venue
2016
10.1145/2934583.2934617
ISLPED
Keywords
Field
DocType
Networked wearables, accelerometer, activity monitoring, power optimization, reliability, uncertainty management, feature selection
Power optimization,Feature selection,Accelerometer,Efficient energy use,Wearable computer,Computer science,Internet of Things,Real-time computing,Motion sensors,Energy consumption
Conference
Citations 
PageRank 
References 
7
0.52
9
Authors
4
Name
Order
Citations
PageRank
Ramyar Saeedi1818.00
Ramin Fallahzadeh2406.63
Parastoo Alinia31395.49
Hassan Ghasemzadeh4454.66