Cluster based Malicious Node Detection in Wireless Multimedia Sensor Networks
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Abstract
Wireless Sensor Networks (WSN) consist of a group of small,
newlinelow-power sensors that can be deployed over vast areas for various
newlineapplications. With the inclusion of CMOS cameras and microphones, the
newlinesensors have advanced to form Wireless Multimedia Sensor Networks
newline(WMSN). This technology allows for the collection and wireless
newlinetransmission of multimedia data, such as audio, images, and videos, to a
newlinebase station for analysis and processing. The introduction of WMSN has
newlinerevolutionized the conventional WSN, making it more versatile for
newlineapplications in environmental monitoring, healthcare, and surveillance
newlinesystems. Despite its advantages, transmitting significant amounts of
newlinemultimedia data in real-time over a low-speed wireless connection poses
newlineseveral challenges, including the risk of malicious nodes in the sensor
newlinenetwork.
newlineTo safeguard the privacy and reliability of wireless network
newlinetransmissions, it is paramount to proactively prevent malicious nodes
newlinefrom causing interference. These nodes, susceptible to cyber-attacks or
newlinephysical tampering, can compromise data confidentiality and network
newlineperformance. Hence, implementing strong security measures to detect and
newlineneutralize such nodes is critical. Doing so ensures the network s
newlinetrustworthiness and security, shielding against any potential privacy
newlinebreaches or unauthorized access to sensitive information.
newlineThe objective of this research is to detect malicious nodes that
newlinecould affect the network performance and to propose three methods that
newlinecan enhance network efficiency and conserve energy. The first approach
newlinevi
newlineentails utilizing a genetically optimized feature index to identify and
newlineneutralize malicious nodes. Next, the feature set is classified using an
newlineadvanced LeNET deep learning approach. However, since this can be
newlinetime-consuming, the suggested technique replaces the dense layers of
newlineLeNET architecture with the fuzzy C-means (FCM) algorithm while
newlineadjusting the inner layers.