4.6 Article

Low-Cost Wireless Sensing System for Precision Agriculture Applications in Orchards

Journal

APPLIED SCIENCES-BASEL
Volume 11, Issue 13, Pages -

Publisher

MDPI
DOI: 10.3390/app11135858

Keywords

wireless networks; precision agriculture; IoT; agricultural sensors

Funding

  1. European Union
  2. Greek national funds through the Operational Programme Competitiveness, Entrepreneurship and Innovation, under the call RESEARCH-CREATE-INNOVATE BioCircular: Bioproduction System for Circular Precision Farming [T1EDK-03987]

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This study presents a low-cost, low-power wireless sensor network system designed for agricultural environments, featuring a star topology, solar energy harvesting panels, and a virtual coordinator device. The system demonstrated satisfactory operation in laboratory and real field environments, showing potential as a viable option for monitoring environmental, soil, and crop parameters.
Wireless sensor networks (WSNs) can be reliable tools in agricultural management. In this work, a low cost, low power consumption, and simple wireless sensing system dedicated for agricultural environments is presented. The system is applicable to small to medium sized fields, located anywhere with cellular network coverage, even in isolated rural areas. The novelty of the developed system lies in the fact that it uses a dummy device as Coordinator which through simple but advanced programming can receive, process, and send data packets from all End-nodes to the cloud via a 4G cellular network. Furthermore, it is energy independent, using solar energy harvesting panels, making it feasible to operate in remote, isolated fields. A star topology was followed for the sake of simplification, low energy demands and increased network reliability. The developed system was tested and evaluated in laboratory and real field environment with satisfactory operation in terms of independence, and operational reliability concerning packet losses, communication range (>250 m covering fields up to 36 ha), energy autonomy, and uninterrupted operation. The network can support up to seven nodes in a 30 min data acquisition cycle. These results confirmed the potential of this system to serve as a viable option for monitoring environmental, soil, and crop parameters.

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