Abstract

Wireless sensor and robot networks (WSRNs) often work in complex and dangerous environments that are subject to many constraints. For obtaining a better monitoring performance, it is necessary to deploy different types of sensors for various complex environments and constraints. The traditional event-driven deployment algorithm is only applicable to a single type of monitoring scenario, so cannot effectively adapt to different types of monitoring scenarios at the same time. In this paper, a multi-constrained event-driven deployment model is proposed based on the maximum entropy function, which transforms the complex event-driven deployment problem into two continuously differentiable single-objective sub-problems. Then, a collaborative neural network (CONN) event-driven deployment algorithm is proposed based on neural network methods. The CONN event-driven deployment algorithm effectively solves the problem that it is difficult to obtain a large amount of sensor data and environmental information in a complex and dangerous monitoring environment. Unlike traditional deployment methods, the CONN algorithm can adaptively provide an optimal deployment solution for a variety of complex monitoring environments. This greatly reduces the time and cost involved in adapting to different monitoring environments. Finally, a large number of experiments verify the performance of the CONN algorithm, which can be adapted to a variety of complex application scenarios.

Highlights

  • Event-driven deployment is a new research area in wireless sensor and robot networks (WSRNs) [1,2,3,4]

  • By using collaborative neural networks, the event-driven deployment algorithm can be adapted to different application scenarios to meet a variety of monitoring requirements; For the first time, a multi-constrained event-driven deployment model based on the maximum entropy function is proposed

  • The rest of this paper is arranged as follows: related works are described in Section 2; the compound event-driven deployment model is proposed in Section 3; the compound event-driven deployment algorithm based on the collaborative neural network strategy is proposed in Section 4 and evaluated in Section 5; and Section 6 concludes this paper

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Summary

Introduction

Event-driven deployment is a new research area in wireless sensor and robot networks (WSRNs) [1,2,3,4]. By using collaborative neural networks, the event-driven deployment algorithm can be adapted to different application scenarios to meet a variety of monitoring requirements; For the first time, a multi-constrained event-driven deployment model based on the maximum entropy function is proposed. This model transforms the complex event-driven deployment problem into two single-objective sub-problems. Both of the sub-problems are continuously differentiable This model overcomes the limitation that the objective function of the traditional min–max method is non-differential; It is the first time that the difficulty of obtaining a large amount of sensor data and environmental information in a complex and dangerous monitoring environment is effectively overcome. The rest of this paper is arranged as follows: related works are described in Section 2; the compound event-driven deployment model is proposed in Section 3; the compound event-driven deployment algorithm based on the collaborative neural network strategy is proposed in Section 4 and evaluated in Section 5; and Section 6 concludes this paper

Related Works
Main Idea
Problem Formulation
The Neural Network Strategy for a Sub-Problem
1: Initialization
The Complexity and Convergence Analysis of the Algorithm
Performance Evaluation
Environment Settings
Experimental Evaluation
Comparison with the ASMP Algorithm in Terms of the Deployment Intensity
Findings
Conclusions and Future Work
Full Text
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