A Decentralized Approach for Nonlinear Prediction of Time Series Data in Sensor Networks

<p/> <p>Wireless sensor networks rely on sensor devices deployed in an environment to support sensing and monitoring, including temperature, humidity, motion, and acoustic. Here, we propose a new approach to model physical phenomena and track their evolution by taking advantage of the re...

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Main Authors: Richard C&#233;dric, Chen Jie, Bermudez Jos&#233;CarlosM, Honeine Paul, Snoussi Hichem
Format: Article
Language:English
Published: SpringerOpen 2010-01-01
Series:EURASIP Journal on Wireless Communications and Networking
Online Access:http://jwcn.eurasipjournals.com/content/2010/627372
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spelling doaj-04aa489254654615b1c4a7015ed5753a2020-11-25T01:03:36ZengSpringerOpenEURASIP Journal on Wireless Communications and Networking1687-14721687-14992010-01-0120101627372A Decentralized Approach for Nonlinear Prediction of Time Series Data in Sensor NetworksRichard C&#233;dricChen JieBermudez Jos&#233;CarlosMHoneine PaulSnoussi Hichem<p/> <p>Wireless sensor networks rely on sensor devices deployed in an environment to support sensing and monitoring, including temperature, humidity, motion, and acoustic. Here, we propose a new approach to model physical phenomena and track their evolution by taking advantage of the recent developments of pattern recognition for nonlinear functional learning. These methods are, however, not suitable for distributed learning in sensor networks as the order of models scales linearly with the number of deployed sensors and measurements. In order to circumvent this drawback, we propose to design reduced order models by using an easy to compute sparsification criterion. We also propose a kernel-based least-mean-square algorithm for updating the model parameters using data collected by each sensor. The relevance of our approach is illustrated by two applications that consist of estimating a temperature distribution and tracking its evolution over time.</p>http://jwcn.eurasipjournals.com/content/2010/627372
collection DOAJ
language English
format Article
sources DOAJ
author Richard C&#233;dric
Chen Jie
Bermudez Jos&#233;CarlosM
Honeine Paul
Snoussi Hichem
spellingShingle Richard C&#233;dric
Chen Jie
Bermudez Jos&#233;CarlosM
Honeine Paul
Snoussi Hichem
A Decentralized Approach for Nonlinear Prediction of Time Series Data in Sensor Networks
EURASIP Journal on Wireless Communications and Networking
author_facet Richard C&#233;dric
Chen Jie
Bermudez Jos&#233;CarlosM
Honeine Paul
Snoussi Hichem
author_sort Richard C&#233;dric
title A Decentralized Approach for Nonlinear Prediction of Time Series Data in Sensor Networks
title_short A Decentralized Approach for Nonlinear Prediction of Time Series Data in Sensor Networks
title_full A Decentralized Approach for Nonlinear Prediction of Time Series Data in Sensor Networks
title_fullStr A Decentralized Approach for Nonlinear Prediction of Time Series Data in Sensor Networks
title_full_unstemmed A Decentralized Approach for Nonlinear Prediction of Time Series Data in Sensor Networks
title_sort decentralized approach for nonlinear prediction of time series data in sensor networks
publisher SpringerOpen
series EURASIP Journal on Wireless Communications and Networking
issn 1687-1472
1687-1499
publishDate 2010-01-01
description <p/> <p>Wireless sensor networks rely on sensor devices deployed in an environment to support sensing and monitoring, including temperature, humidity, motion, and acoustic. Here, we propose a new approach to model physical phenomena and track their evolution by taking advantage of the recent developments of pattern recognition for nonlinear functional learning. These methods are, however, not suitable for distributed learning in sensor networks as the order of models scales linearly with the number of deployed sensors and measurements. In order to circumvent this drawback, we propose to design reduced order models by using an easy to compute sparsification criterion. We also propose a kernel-based least-mean-square algorithm for updating the model parameters using data collected by each sensor. The relevance of our approach is illustrated by two applications that consist of estimating a temperature distribution and tracking its evolution over time.</p>
url http://jwcn.eurasipjournals.com/content/2010/627372
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