無線地震儀傳感網(wǎng)組網(wǎng)協(xié)議優(yōu)化研究
[Abstract]:The untwisting of the cable-free self-storage seismograph is one of the important goals in the field construction. But at the same time, the state information and exploration data can not be recovered in real time as a serious bottleneck affecting its application. The wireless seismograph sensing network is a wireless network composed of a large number of cable-less seismograph nodes, and has wide application prospect in the field of geological exploration. the prior wireless sensor network networking protocol can not be directly applied to the seismograph sensing network, the field low-power consumption requires the communication capability of the seismograph node and the energy consumption of the networking protocol to be small, the number of seismograph nodes required in the one-time exploration process is large, the data volume on the node is large, In order to recover the state information and data of the seismograph node in real time, it is necessary to study the effective self-networking protocol to realize the key problem of the sensor network of the wireless seismograph according to the characteristics of the seismic exploration. In this paper, the research on the optimization of the self-networking protocol is carried out in connection with the actual demand of the non-cable self-positioning seismic exploration system. According to the actual work demand of the seismic exploration, the network protocol optimization algorithm under the strip-like topology and the matrix-like physical topology in the seismic sensing network is respectively studied, and the main work is as follows: lower:1) address assignment algorithm In this paper, the distributed address assignment algorithm in Cluster-Tree is analyzed, because it can't meet the requirement of more than 100 hops in the sensor network of the wireless seismograph, a finite depth tree address assignment algorithm with limited degree is proposed, which is based on the band-shaped physical topology According to the method, the novel tree structure is designed by limiting the number of the routing nodes in each layer in the logic tree, the wasted reserved address number is reduced, the maximum depth of the network which can be supported by the route is expanded, and the algorithm is simulated true analysis.2) Network-based routing based on ribbon topology Improvement and implementation. Based on the improved address assignment algorithm, the paper designs and implements the band-shaped physical topology for the characteristics of the band-shaped physical topology in the sensor network of the wireless seismograph. In this paper, a new routing maintenance mechanism is proposed, and a new route maintenance mechanism is proposed, which mainly solves the problem that the main line node has large area network once it is disconnected to solve the problem of failure.3) In view of the characteristics of the matrix-like physical topology in the three-dimensional seismic exploration, the matrix topology of the seismograph is divided into a plurality of strip-shaped topologies in combination with a wireless positioning algorithm, In this paper, a weighted centroid localization algorithm based on the improvement of RSSI is studied, and the dynamic acquisition path is used. the matrix-like topology is divided into a band-like topology by an improved positioning algorithm, and each sub-topology is respectively connected with each sub-topology, and the network is designed mechanism and maintenance mechanism.4) Group-like topology and matrix-like topology under the OPMNET ++ platform The network protocols are simulated respectively. The effects of the length of the strip-like topology and the density of the network node on the band-like network and the topology cutting and the topology scale of the network are studied. In the end, the band-form networking is realized in the embedded platform
【學(xué)位授予單位】:北京郵電大學(xué)
【學(xué)位級別】:碩士
【學(xué)位授予年份】:2015
【分類號】:P631.43;TN929.5;TP212.9
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