Jamming Attack Detection using Key Exchange in Wireless Network

Author(s):  
S.Rajes wari ◽  
◽  
R.Mahes wari
2015 ◽  
Vol 77 (22) ◽  
Author(s):  
Nur Cahyono Kushardianto ◽  
Yudhi Kusnanto ◽  
Elvian Syafrurizal ◽  
Ahmad Hamim Tohari

Quality of Service for data traffic is an important facet of a network, which in the case of a wireless network can easily be disrupted by applying a device to broadcast signals.  The authors believe that the increased of the energy consumption, when a jamming attack occurs, can be used as a guiding indicator in order to mitigate the attack. The authors show that when a reactive jamming attack occurs on a wireless network unmitigated, it can easily block the entire data traffic to the point there is no data can be delivered. The authors also show that, using NS3 simulation, in an event where a reactive jamming attack to the network happened, the source of the attack can be identified through the increased of energy consumption , and successfully mitigated by avoiding sending data traffic through the same channel used by the attacker, by executing channel hopping.  


2021 ◽  
pp. 100464
Author(s):  
Jagdeep Singh ◽  
Isaac Woungang ◽  
Sanjay Kumar Dhurandher ◽  
Khuram Khalid

2021 ◽  
Vol 11 (1) ◽  
Author(s):  
Yupeng Gong ◽  
Adrian Wonfor ◽  
Jeffrey H. Hunt ◽  
Ian H. White ◽  
Richard V. Penty

AbstractSecurity issues and attack management of optical communication have come increasingly important. Quantum techniques are explored to secure or protect classical communication. In this paper, we present a method for in-service optical physical layer security monitoring that has vacuum-noise level sensitivity without classical security loopholes. This quantum-based method of eavesdropping detection, similar to that used in conventional pilot tone systems, is achieved by sending quantum signals, here comprised of continuous variable quantum states, i.e. weak coherent states modulated at the quantum level. An experimental demonstration of attack detection using the technique was presented for an ideal fibre tapping attack that taps 1% of the ongoing light in a 10 dB channel, and also an ideal correlated jamming attack in the same channel that maintains the light power with excess noise increased by 0.5 shot noise unit. The quantum monitoring system monitors suspicious changes in the quantum signal with the help of advanced data processing algorithms. In addition, unlike the CV-QKD system which is very sensitive to channel excess noise and receiver system noise, the quantum monitoring is potentially more compatible with current optical infrastructure, as it lowers the system requirements and potentially allows much higher classical data rate communication with links length up to 100 s km.


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