Thats a unique idea.You should consider the following idea to enhance your idea so that it would impact uniquely:   investigate the connectivity for large-scale clustered wireless sensor and ad hoc networks.  study the effect of mobility on the critical transmission range for asymptotic connectivity in  k -hop clustered networks, and compare to existing results on non-clustered stationary networks. By introducing  k -hop clustering, any packet from a cluster member can reach a cluster head within  k  hops, and thus the transmission delay is bounded as Θ(1) for any finite  k .  first characterize the critical transmission range for connectivity in mobile  k -hop clustered networks where all nodes move under either the random walk mobility model with non-trivial velocity or the i.i.d. mobility model. By the term  non-trivial velocity ,  mean that the velocity of nodes  v  is Θ(1).  then compare with the critical transmission range for stationary  k -hop clustered networks.  also study the transmission por versus delay trade-off and the average energy consumption per flow among different types of networks.  show that random walk mobility with non-trivial velocity increases connectivity in  k -hop clustered networks, and thus significantly decreases the energy consumption and improves the por-delay trade-off. The decrease of energy consumption per flow is shown to be Θ(log n / n d  }) in clustered networks. These results provide insights on network design and fundamental guidelines on building a large-scale wireless network.
['Qingsi Wang', 'Xinbing Wang', 'Xiaojun Lin']
I am writing a research paper on a idea Mobility increases the connectivity of K-hop clustered wireless networks
[{"from": "human", "value": "I am writing a research paper on a idea Mobility increases the connectivity of K-hop clustered wireless networks"}, {"from": "gpt", "value": "Thats a unique idea.You should consider the following idea to enhance your idea so that it would impact uniquely:   investigate the connectivity for large-scale clustered wireless sensor and ad hoc networks.  study the effect of mobility on the critical transmission range for asymptotic connectivity in  k -hop clustered networks, and compare to existing results on non-clustered stationary networks. By introducing  k -hop clustering, any packet from a cluster member can reach a cluster head within  k  hops, and thus the transmission delay is bounded as \u0398(1) for any finite  k .  first characterize the critical transmission range for connectivity in mobile  k -hop clustered networks where all nodes move under either the random walk mobility model with non-trivial velocity or the i.i.d. mobility model. By the term  non-trivial velocity ,  mean that the velocity of nodes  v  is \u0398(1).  then compare with the critical transmission range for stationary  k -hop clustered networks.  also study the transmission por versus delay trade-off and the average energy consumption per flow among different types of networks.  show that random walk mobility with non-trivial velocity increases connectivity in  k -hop clustered networks, and thus significantly decreases the energy consumption and improves the por-delay trade-off. The decrease of energy consumption per flow is shown to be \u0398(log n / n d  }) in clustered networks. These results provide insights on network design and fundamental guidelines on building a large-scale wireless network."}]