Design of Remote Environmental Monitoring Network Based on Intelligent Sensor Network Address Allocation and Addressing

• Published in: Journal of sensors Vol. 2021; no. 1
• Main Author: Liu, Jinyong
• Format: Journal Article
• Language: English
• Published: New York Hindawi 24.12.2021; John Wiley & Sons, Inc
• Subjects: Access control; Backplanes; Cell phones; Circuit design; Cost analysis; Crystal oscillators; Data collection; Design; Embedded systems; Environmental monitoring; Hazardous materials; Intelligent networks; Internet; Mobile computing; Monitoring systems; Nodes; Power consumption; Remote monitoring; Remote sensors; Sensors; Software; Wireless communications; Wireless networks; Wireless sensor networks
• DOI: 10.1155/2021/5618538
• ISSN: 1687-725X

Based on the wireless sensor network, this paper combines node monitoring data with intelligent network address management. Users can view real-time environmental data through a computer or mobile phone and can manually remotely manage the environmental adjustment equipment of the network address through the mobile phone. This article first discusses the research background of the subject, introduces the current domestic and foreign research status of WSN in environmental detection, and analyzes the reasons for choosing ZigBee network as the wireless transmission environment of the intelligent monitoring system. Secondly, the structure, layered model, and key technologies of wireless sensor networks are introduced, and it is pointed out that ZigBee technology, which has the characteristics of low power consumption, reliable communication, self-organization of the network, strong self-healing ability, and low cost, is very suitable for application in the environment. Then, it analyzes TI’s protocol stack Z-Stack based on the ZigBee2006 standard and analyzes the network address assignment and addressing in Z-Stack, the process and steps of node binding, the routing mechanism and routing maintenance, and channel configuration. The realization of other functions was discussed in depth. During the simulation experiment, in the hardware design of the intelligent monitoring system, the network node was divided into two parts: the core board and the backplane. The crystal oscillator, power supply, antenna, and I/O port circuits of the core board were designed, and the data acquisition, relay, and power supply of the backplane were designed. Finally, this paper studies the data security issues in the environmental monitoring network and proposes two solutions to control network access and data encryption. Experimental results show that in terms of low-power design, the energy of the entire system is calculated to determine the factors that affect the power consumption of the system and methods such as increasing the node sleep time to ensure that the system can work for a long time.