Self-organising Sensors for Wide Area Surveillance Using the Max-sum Algorithm
Self-organising Sensors for Wide Area Surveillance Using the Max-sum Algorithm
In this paper, we consider the self-organisation of sensors within a network deployed for wide area surveillance. We present a decentralised coordination algorithm based upon the max-sum algorithm and demonstrate how self-organisation can be achieved within a setting where sensors are deployed with no a priori information regarding their local environment. These energy-constrained sensors first learn how their actions interact with those of neighbouring sensors, and then use the max-sum algorithm to coordinate their sense/sleep schedules in order to maximise the effectiveness of the sensor network as a whole. In a simulation we show that this approach yields a 30% reduction in the number of vehicles that the sensor network fails to detect (compared to an uncoordinated network), and this performance is close to that achieved by a benchmark centralised optimisation algorithm (simulated annealing).
84-100
Rogers, Alex
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Farinelli, Alessandro
d2f26070-f403-4cae-b712-7097cb2e3fc6
Jennings, Nick
ab3d94cc-247c-4545-9d1e-65873d6cdb30
2010
Rogers, Alex
f9130bc6-da32-474e-9fab-6c6cb8077fdc
Farinelli, Alessandro
d2f26070-f403-4cae-b712-7097cb2e3fc6
Jennings, Nick
ab3d94cc-247c-4545-9d1e-65873d6cdb30
Rogers, Alex, Farinelli, Alessandro and Jennings, Nick
(2010)
Self-organising Sensors for Wide Area Surveillance Using the Max-sum Algorithm.
In,
Weyns, Danny, Malek, Sam and de Lemos, Rogério
(eds.)
LNCS 6090 Lecture Notes in Computer Science. Self-Organizing Architectures.
Springer, .
Record type:
Book Section
Abstract
In this paper, we consider the self-organisation of sensors within a network deployed for wide area surveillance. We present a decentralised coordination algorithm based upon the max-sum algorithm and demonstrate how self-organisation can be achieved within a setting where sensors are deployed with no a priori information regarding their local environment. These energy-constrained sensors first learn how their actions interact with those of neighbouring sensors, and then use the max-sum algorithm to coordinate their sense/sleep schedules in order to maximise the effectiveness of the sensor network as a whole. In a simulation we show that this approach yields a 30% reduction in the number of vehicles that the sensor network fails to detect (compared to an uncoordinated network), and this performance is close to that achieved by a benchmark centralised optimisation algorithm (simulated annealing).
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Published date: 2010
Organisations:
Agents, Interactions & Complexity
Identifiers
Local EPrints ID: 271579
URI: http://eprints.soton.ac.uk/id/eprint/271579
PURE UUID: c76f0229-9081-4ac6-8c75-8fabbf0b4406
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Date deposited: 22 Sep 2010 12:19
Last modified: 14 Mar 2024 09:34
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Contributors
Author:
Alex Rogers
Author:
Alessandro Farinelli
Author:
Nick Jennings
Editor:
Danny Weyns
Editor:
Sam Malek
Editor:
Rogério de Lemos
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