Inspiring wireless sensor network from brain connectome

Wireless Sensor Networks (WSN) are usually large - scale self - organized networks that can dynamically change with no pre - established infrastructure or a topology. In order to inference information from it, data collected by different sensors should be aggreg ated, known as Dat...

Full description

Bibliographic Details
Main Authors: Ngatman, Mohd. Farhan, Abdul Hanan, Sakinah, Mohd. Zamry, Nurfazrina, Kamaruzaman, Anis Farhan, Chizari, Hassan
Format: Article
Published: IARTC 2016
Subjects:
_version_ 1796861596142665728
author Ngatman, Mohd. Farhan
Abdul Hanan, Sakinah
Mohd. Zamry, Nurfazrina
Kamaruzaman, Anis Farhan
Chizari, Hassan
author_facet Ngatman, Mohd. Farhan
Abdul Hanan, Sakinah
Mohd. Zamry, Nurfazrina
Kamaruzaman, Anis Farhan
Chizari, Hassan
author_sort Ngatman, Mohd. Farhan
collection ePrints
description Wireless Sensor Networks (WSN) are usually large - scale self - organized networks that can dynamically change with no pre - established infrastructure or a topology. In order to inference information from it, data collected by different sensors should be aggreg ated, known as Data Fusion (FC). This can happen in a centralized mode by broadcasting all data to a FC or in a distributed way. The centralized approach needs high communication bandwidth and transmission power, which is usually lacking due to limited cap abilities of sensor nodes. In distributed processing, instead of transmitting all the data to a FC in order to accomplish the final goal of the network, each sensor should rely only on local information received by itself and the sen sors in its vicinity. O n the other hand, relying only on the information received by a single sensor (or a small group of them) might not necessarily lead to the overall precision required by the network. Thus, appropriate information sharing and collaborative processing algorit hms should also be put in place to make sure of reliable inferencing. Distributed processing makes large - scale sensor networking possible by striking a proper trade - off between performance and resource utilization. The proposed methodology in this research is to use the idea of sparse structures which the best example of it, is human brain network of neurons known as connectome. Many studies demonstrate inferencing reliability (performance) and energy efficiency (resource utilization) of connectome. In this research a review of the possibility of using brain connectome in wireless sensor network design has been presented .
first_indexed 2024-03-05T19:58:48Z
format Article
id utm.eprints-68230
institution Universiti Teknologi Malaysia - ePrints
last_indexed 2024-03-05T19:58:48Z
publishDate 2016
publisher IARTC
record_format dspace
spelling utm.eprints-682302017-11-20T08:52:05Z http://eprints.utm.my/68230/ Inspiring wireless sensor network from brain connectome Ngatman, Mohd. Farhan Abdul Hanan, Sakinah Mohd. Zamry, Nurfazrina Kamaruzaman, Anis Farhan Chizari, Hassan QA75 Electronic computers. Computer science Q Science Wireless Sensor Networks (WSN) are usually large - scale self - organized networks that can dynamically change with no pre - established infrastructure or a topology. In order to inference information from it, data collected by different sensors should be aggreg ated, known as Data Fusion (FC). This can happen in a centralized mode by broadcasting all data to a FC or in a distributed way. The centralized approach needs high communication bandwidth and transmission power, which is usually lacking due to limited cap abilities of sensor nodes. In distributed processing, instead of transmitting all the data to a FC in order to accomplish the final goal of the network, each sensor should rely only on local information received by itself and the sen sors in its vicinity. O n the other hand, relying only on the information received by a single sensor (or a small group of them) might not necessarily lead to the overall precision required by the network. Thus, appropriate information sharing and collaborative processing algorit hms should also be put in place to make sure of reliable inferencing. Distributed processing makes large - scale sensor networking possible by striking a proper trade - off between performance and resource utilization. The proposed methodology in this research is to use the idea of sparse structures which the best example of it, is human brain network of neurons known as connectome. Many studies demonstrate inferencing reliability (performance) and energy efficiency (resource utilization) of connectome. In this research a review of the possibility of using brain connectome in wireless sensor network design has been presented . IARTC 2016-01-12 Article PeerReviewed Ngatman, Mohd. Farhan and Abdul Hanan, Sakinah and Mohd. Zamry, Nurfazrina and Kamaruzaman, Anis Farhan and Chizari, Hassan (2016) Inspiring wireless sensor network from brain connectome. International Journal Of Computer Communications And Networks (IJCCN), 5 (1). pp. 1-5. ISSN 22893369 http://www.iartc.net/
spellingShingle QA75 Electronic computers. Computer science
Q Science
Ngatman, Mohd. Farhan
Abdul Hanan, Sakinah
Mohd. Zamry, Nurfazrina
Kamaruzaman, Anis Farhan
Chizari, Hassan
Inspiring wireless sensor network from brain connectome
title Inspiring wireless sensor network from brain connectome
title_full Inspiring wireless sensor network from brain connectome
title_fullStr Inspiring wireless sensor network from brain connectome
title_full_unstemmed Inspiring wireless sensor network from brain connectome
title_short Inspiring wireless sensor network from brain connectome
title_sort inspiring wireless sensor network from brain connectome
topic QA75 Electronic computers. Computer science
Q Science
work_keys_str_mv AT ngatmanmohdfarhan inspiringwirelesssensornetworkfrombrainconnectome
AT abdulhanansakinah inspiringwirelesssensornetworkfrombrainconnectome
AT mohdzamrynurfazrina inspiringwirelesssensornetworkfrombrainconnectome
AT kamaruzamananisfarhan inspiringwirelesssensornetworkfrombrainconnectome
AT chizarihassan inspiringwirelesssensornetworkfrombrainconnectome