Greenhouse Environment Monitoring System Based on Wireless Sensor Network
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Keywords

ZigBee
CC2530
Greenhouse
Wireless sensor networks
Environmental monitoring

DOI

10.26689/ssr.v7i2.9707

Submitted : 2025-02-15
Accepted : 2025-03-02
Published : 2025-03-17

Abstract

This paper aims to solve the defects of the existing greenhouse environmental monitoring system, and proposes a monitoring scheme relying on the ZigBee wireless sensor network, which realizes the real-time tracking of greenhouse environmental data with the help of hardware and software cooperation. At the hardware level, the ZigBee wireless sensor network architecture is built with a CC2530 chip as the center, covering the sensor node and the sink node. The software level involves the data collection and transmission of the sensor node, the data receiving and forwarding of the sink node, and the monitoring and management of the host computer. After testing and verification, the system is stable and reliable, the overall structure is simple, the layout is flexible, and can effectively achieve the goal of wireless monitoring of greenhouse environmental data.

References

Kinney P, 2003, ZigBee Technology: Wireless Control that Simply Works. White Paper.

Fritz M, 2005, Interfacing an Electronic Balance Through the RS232 Serial Port Using the “C” Programming Language. 35 Years of Education in Measurement Science: 1997 Measurement Science Conference (MSC’97).

Ingole M, Rane SS, 2022, WIFI Module Based Smart Waste Management System. International Journal of Innovations in Engineering and Science, 7(5): 39–48. https://doi.org/10.46335/ijies.2022.7.5.8

Cena G, Durante L, Valenzano AA, 2001, New CAN-like Field Network Based on a Star Topology. Computer Standards & Interfaces, 23(3): 209–222. https://doi.org/10.1016/S0920-5489(01)00069-1

Zhang WC, Yu XW, Li ZC, 2011, Wireless Network Sensor Node Design Based on CC2530 and ZigBee Protocol Stack. Computer Systems & Applications, 20(7): 120–184.

Claussen M, 2023, Sensor 101: The DS18B20 Temperature Sensor: Connection to the 1-Wire Bus. Elektor, 2023(Jul./Aug.): 48–53.

Thomas H, 2013, The DHT22 Humidity/Temperature Sensor Demystified. Nuts & Volts, 34(3): 50–53.

Chen SG, 2006, The Design of I2C-Bus Interface Based on FPGA. Shanxi Electronic, 2006(6): 20 + 38.

Chen SC, Yang ZY, Ke W, 2014, Carbon Dioxide Capture System Based on MG811 Probe. Microcontrollers & Embedded Systems, 2014(1): 47–50.

Tang P, 2025, Non-dispersive Infrared (NDIR) Gas Sensor: US201113039187, patent, US8471208B1.

Lima RDCR, Edmundo RE, 2014, Development of a Capacitive Sensor to Measure the Soil Moisture Content. Conference: 22nd University of Sao Paulo International Symposium of Undergraduate Research.

Yuksel E, Nielson HR, Nielson F, 2011, A Secure Key Establishment Protocol for ZigBee Wireless Sensor Networks. Computer Journal, 54(4): 589–601.

Liu W, Matthews C, Parziale L, et al., 2002, TCP/IP Tutorial and Technical Overview. Upper Saddle River, New Jersey.

Dwyer G, 2016, Flask by Example. Packt Publishing Ltd, Birmingham.

Sun E, Chen Z, Li S, et al., 2020, Real-time Data Visualization of Intelligent Networked Vehicles. Proceedings of the 2020 International Conference on Computing, 180–184.