Simulation of synchronized animal calling with a distributed sensor network
Simulation of synchronized animal calling with a distributed sensor network
A distributed sensor network has been programmed to simulate synchronized calling exhibited by many species of frogs and insects. The distributed sensor network consists of numerous sensor nodes consisting of a microprocessor, wireless communications and a sensor board containing a buzzer and microphone. The goal was to program the sensor array to mimic the synchronized calling behavior (inspired in no small part by the recent appearance of cicada brood X). To this end, a single leader node was programmed to begin calling (i.e., buzzing). The remainder of the node array was programmed with an algorithm which allows them to detect other buzzing nodes and to synchronize their own buzz to that of the group. After start-up transients, the entire array calls in synchrony. Of particular interest is the system's transient behavior system when perturbed or when a second leader node begins calling out of synch with the array. The hardware and software algorithms will be described. Furthermore, numerous nodes will be distributed throughout the audience and a demonstration of system behavior will be provided. While this is a rather whimsical application of distributed array processing, it does demonstrate the unique system behaviors that can arise in truly distributed processing.
Acoustical Society of America
Ojomo, E.
7cfa1d3e-f013-4984-becc-7839375637e7
Burundee, P.
14b3bf69-bd1d-4406-b9ad-c5405b32ea4a
Amundson, I.
4a5147a0-04b1-4678-8c0e-ba879f103e0f
Frampton, K.D.
dac17a56-41de-4b0e-b55d-1c5828e780d1
2004
Ojomo, E.
7cfa1d3e-f013-4984-becc-7839375637e7
Burundee, P.
14b3bf69-bd1d-4406-b9ad-c5405b32ea4a
Amundson, I.
4a5147a0-04b1-4678-8c0e-ba879f103e0f
Frampton, K.D.
dac17a56-41de-4b0e-b55d-1c5828e780d1
Ojomo, E., Burundee, P., Amundson, I. and Frampton, K.D.
(2004)
Simulation of synchronized animal calling with a distributed sensor network.
In Proceedings of 146th Meeting of the Acoustical Society of America.
Acoustical Society of America..
Record type:
Conference or Workshop Item
(Paper)
Abstract
A distributed sensor network has been programmed to simulate synchronized calling exhibited by many species of frogs and insects. The distributed sensor network consists of numerous sensor nodes consisting of a microprocessor, wireless communications and a sensor board containing a buzzer and microphone. The goal was to program the sensor array to mimic the synchronized calling behavior (inspired in no small part by the recent appearance of cicada brood X). To this end, a single leader node was programmed to begin calling (i.e., buzzing). The remainder of the node array was programmed with an algorithm which allows them to detect other buzzing nodes and to synchronize their own buzz to that of the group. After start-up transients, the entire array calls in synchrony. Of particular interest is the system's transient behavior system when perturbed or when a second leader node begins calling out of synch with the array. The hardware and software algorithms will be described. Furthermore, numerous nodes will be distributed throughout the audience and a demonstration of system behavior will be provided. While this is a rather whimsical application of distributed array processing, it does demonstrate the unique system behaviors that can arise in truly distributed processing.
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More information
Published date: 2004
Venue - Dates:
146th Meeting of the Acoustical Society of America, Austin, USA, 2003-11-10 - 2003-11-14
Identifiers
Local EPrints ID: 42261
URI: http://eprints.soton.ac.uk/id/eprint/42261
PURE UUID: 8298c379-d90b-4148-a466-38161fa284ef
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Date deposited: 29 Nov 2006
Last modified: 11 Dec 2021 16:08
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Contributors
Author:
E. Ojomo
Author:
P. Burundee
Author:
I. Amundson
Author:
K.D. Frampton
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