Thats a unique idea.You should consider the following idea to enhance your idea so that it would impact uniquely: Dense, unmanaged IEEE 802.11 deployments tempt saboteurs into launching jamming attacks by injecting malicious interference. Nowadays, jammers can be portable devices that transmit intermittently at low por in order to conserve energy. ,  first conduct extensive experiments on an indoor 802.11 network to assess the ability of two physical-layer functions, rate adaptation and por control, in mitigating jamming. In the presence of a jammer,  find that: 1) the use of popular rate adaptation algorithms can significantly degrade network performance; and 2) appropriate tuning of the carrier sensing threshold allows a transmitter to send packets even when being jammed and enables a receiver to capture the desired signal. Based on our findings,  build ARES, an Anti-jamming REinforcement System, which tunes the parameters of rate adaptation and por control to improve the performance in the presence of jammers. ARES ensures that operations under benign conditions are unaffected. To demonstrate the effectiveness and generality of ARES,  evaluate it in three wireless test-beds: 1) an 802.11n WLAN with MIMO nodes; 2) an 802.11a/g mesh network with mobile jammers; and 3) an 802.11a WLAN with TCP traffic.  observe that ARES improves the network throughput across all test-beds by up to 150%.
['Konstantinos Pelechrinis', 'Ioannis Broustis', 'Srikanth V. Krishnamurthy', 'Christos Gkantsidis']
I am writing a research paper on a idea A measurement-driven anti-jamming system for 802.11 networks
[{"from": "human", "value": "I am writing a research paper on a idea A measurement-driven anti-jamming system for 802.11 networks"}, {"from": "gpt", "value": "Thats a unique idea.You should consider the following idea to enhance your idea so that it would impact uniquely: Dense, unmanaged IEEE 802.11 deployments tempt saboteurs into launching jamming attacks by injecting malicious interference. Nowadays, jammers can be portable devices that transmit intermittently at low por in order to conserve energy. ,  first conduct extensive experiments on an indoor 802.11 network to assess the ability of two physical-layer functions, rate adaptation and por control, in mitigating jamming. In the presence of a jammer,  find that: 1) the use of popular rate adaptation algorithms can significantly degrade network performance; and 2) appropriate tuning of the carrier sensing threshold allows a transmitter to send packets even when being jammed and enables a receiver to capture the desired signal. Based on our findings,  build ARES, an Anti-jamming REinforcement System, which tunes the parameters of rate adaptation and por control to improve the performance in the presence of jammers. ARES ensures that operations under benign conditions are unaffected. To demonstrate the effectiveness and generality of ARES,  evaluate it in three wireless test-beds: 1) an 802.11n WLAN with MIMO nodes; 2) an 802.11a/g mesh network with mobile jammers; and 3) an 802.11a WLAN with TCP traffic.  observe that ARES improves the network throughput across all test-beds by up to 150%."}]