Optimization Strategy of IoT Sensor Configuration Based on Genetic Algorithm-Neural Network

• Published in: Journal of sensors Vol. 2021; no. 1
• Main Author: Yang, Yuanyuan
• Format: Journal Article
• Language: English
• Published: New York Hindawi 2021; John Wiley & Sons, Inc
• Subjects: Communications equipment; Communications systems; Computer simulation; Configurations; Damage detection; Data analysis; Data collection; Data communication; Data processing; Finite element method; Genetic algorithms; Information management; Internet of Things; Management services; Mutation; Neural networks; Optimization; Piezoelectricity; Sensors; Wireless networks
• ISSN: 1687-725X; 1687-7268; 1687-7268
• DOI: 10.1155/2021/5098013

This article carries out the overall design framework of the IoT sensor data processing platform and analyzes the advantages of using the integrated construction platform. The platform is divided into two parts, a web management platform and a data communication system, and interacts with the database by integrating the business layers of the two into one. The web management platform provides configurable communication protocol customization services, equipment information, personal information, announcement information management services, and data collection information monitoring and analysis services. The collected data is analyzed by the sensor data communication service system and then provided to the web management platform for query and call. This paper discusses the theoretical basis of the combination of genetic algorithm and neural network and proposes the necessity of improving genetic algorithm. The improved level involves chromosome coding methods, fitness function selection, and genetic manipulation. We propose an improved genetic algorithm and use an improved genetic algorithm (IGA) to optimize the neural network structure. The finite element method is adopted, the finite element model is established, and the shock piezoelectric response is numerically simulated. The genetic neural network method is used to simulate the collision damage location detection problem. The piezoelectric sensor is optimized, and the optimal sensor configuration corresponding to its initial layout is obtained, which provides guidance for the optimal configuration of the actual piezoelectric sensor.