TY - GEN
T1 - Malicious node detection for the future network security from epistemic uncertainties
AU - Huang, Xu
AU - Ahmed, Muhammed
AU - Cui, Hongyan
AU - Li, Shutao
PY - 2013
Y1 - 2013
N2 - The next generation of WSN will benefit when sensor data is added to blogs, virtual communities, and social network applications. Wireless sensor networks (WSNs) are popular now as distributed networks exposed to an open environment, collecting of self-organized nodes with limited computation and communication capabilities and energy covering deployed areas that interested by the controllers. WSNs have been as aware of environmental technologies such as sound, water contamination, temperature, pressure, motion and other pollutants. However, as wireless communication becomes all sectors of daily life, the security threats to WSNs become increasingly diversified, prevention based due to the open nature of the wireless medium. The node in a WSN is called compromised becomes another major problem of WSN security because it allows an adversary to enter inside the security perimeter of the network and launch attacks, which has raised a serious challenge for WSNs. This paper is focusing on investigating integrating wireless sensor networks with cloud computing with the case that internal attacks of WSNs with multi-hop and single sinker for the future network, such as compromised nodes in a deployed WSN, where we first present our novel protecting algorithm to WSN to protect it with the evidences that our novel algorithm works efficiently and effectively. Our new algorithm takes advantages from uncertain decisions, which means there is no need to know the structure before we check the network. It is involved in the posteriori probability of binary events represented by the beta family of density functions and Dempester Shafer theory (DST). AS it has no need to have any knowledge about the structure of the network, it will be flexible to use in real life
AB - The next generation of WSN will benefit when sensor data is added to blogs, virtual communities, and social network applications. Wireless sensor networks (WSNs) are popular now as distributed networks exposed to an open environment, collecting of self-organized nodes with limited computation and communication capabilities and energy covering deployed areas that interested by the controllers. WSNs have been as aware of environmental technologies such as sound, water contamination, temperature, pressure, motion and other pollutants. However, as wireless communication becomes all sectors of daily life, the security threats to WSNs become increasingly diversified, prevention based due to the open nature of the wireless medium. The node in a WSN is called compromised becomes another major problem of WSN security because it allows an adversary to enter inside the security perimeter of the network and launch attacks, which has raised a serious challenge for WSNs. This paper is focusing on investigating integrating wireless sensor networks with cloud computing with the case that internal attacks of WSNs with multi-hop and single sinker for the future network, such as compromised nodes in a deployed WSN, where we first present our novel protecting algorithm to WSN to protect it with the evidences that our novel algorithm works efficiently and effectively. Our new algorithm takes advantages from uncertain decisions, which means there is no need to know the structure before we check the network. It is involved in the posteriori probability of binary events represented by the beta family of density functions and Dempester Shafer theory (DST). AS it has no need to have any knowledge about the structure of the network, it will be flexible to use in real life
KW - Node detection
KW - Future network
KW - Epistemic
M3 - Conference contribution
VL - 1
T3 - WPMC 2013
SP - 1
EP - 6
BT - International Symposium on Wireless Personal Multimedia Communications, WPMC
PB - IEEE, Institute of Electrical and Electronics Engineers
CY - USA
T2 - 16th International Symposium on Wireless Personal Multimedia Communications, 2013
Y2 - 24 June 2013 through 27 June 2013
ER -