Concept of a Modular Wide-Area Predictive Irrigation System

The article presents a method for determining the irrigation requirements of crops based on soil moisture. The proposed approach enables scheduling irrigation at the most appropriate time of day by combining current soil moisture measurements with forecasts of moisture levels for the following day. A narrow Artificial Intelligence (AI) model is developed and applied to the task of 24 h-ahead soil moisture forecasting. Water loss due to excessive irrigation is minimized through precise soil moisture monitoring, postponement or reduction of irrigation in response to measured precipitation, temperature, and wind speed, as well as meteorological forecasts of future rainfall. The proposed irrigation system is suitable for both drip irrigation and central pivot systems. It is built using cost-effective components and incorporates LoRa connectivity, which facilitates integration in remote areas without the need for internet access. Furthermore, the addition of new irrigation zones does not require physical modifications to the central server. Experimental tests demonstrated that the system effectively controls irrigation timing and achieves the desired soil moisture levels with high accuracy, while accounting for additional external factors that influence soil moisture.

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Publication Details

Journal
AgriEngineering
Published
2025-12-12
DOI
https://doi.org/10.3390/agriengineering7120430
Primary Topic
Smart Agriculture and AI
Type
article
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article

Concept of a Modular Wide-Area Predictive Irrigation System

Kristiyan Dimitrov, Stefan Chivarov, Nayden Chivarov
AgriEngineering
Smart Agriculture and AI
article

Concept of a Modular Wide-Area Predictive Irrigation System

Kristiyan Dimitrov, Stefan Chivarov, Nayden Chivarov
article en

Abstract

The article presents a method for determining the irrigation requirements of crops based on soil moisture. The proposed approach enables scheduling irrigation at the most appropriate time of day by combining current soil moisture measurements with forecasts of moisture levels for the following day. A narrow Artificial Intelligence (AI) model is developed and applied to the task of 24 h-ahead soil moisture forecasting. Water loss due to excessive irrigation is minimized through precise soil moisture monitoring, postponement or reduction of irrigation in response to measured precipitation, temperature, and wind speed, as well as meteorological forecasts of future rainfall. The proposed irrigation system is suitable for both drip irrigation and central pivot systems. It is built using cost-effective components and incorporates LoRa connectivity, which facilitates integration in remote areas without the need for internet access. Furthermore, the addition of new irrigation zones does not require physical modifications to the central server. Experimental tests demonstrated that the system effectively controls irrigation timing and achieves the desired soil moisture levels with high accuracy, while accounting for additional external factors that influence soil moisture.

AgriEngineeringVol. 7(12)
Bulgarian Academy of Sciences (BG), Institute of Information and Communication Technologies (BG)
Openalex Percentile: Top 71%
Smart Agriculture and AI
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Concept of a Modular Wide-Area Predictive Irrigation System — Kristiyan Dimitrov, Stefan Chivarov, et al. · AgriEngineering (2025) | TGRS Research Map | TGRS