Dataset and code reveal effective forecasting methods for soil moisture in agricultural fields, supporting irrigation optimization.
This repository contains the data and code associated with the study on forecasting soil water content for precision irrigation purposes. The work is based on high-frequency monitoring data collected at an experimental agricultural field located in Gallipoli, southern Italy. The dataset includes: Soil water content measurements every 15 minutes from six sensor ports, with odd-numbered ports installed at 30 cm depth and even-numbered ports at 60 cm depth. Rainfall Irrigation events with varying temporal resolution. The code implements and compares several forecasting approaches: A traditional statistical model: Holt-Winters (in R), Machine learning regressors: Random Forest, Gradient Boosting (in Python), A deep learning model for time series prediction: Chronos (in Python). External variables such as rainfall and irrigation are integrated to improve model performance, with a comparison between univariate and multivariate strategies. The forecasts were evaluated over prediction horizons ranging from 48 hours to 5 days, including intermediate 2-day forecasts, under conditions characterized by high temporal variability in soil moisture dynamics. The goal is to support short-term forecasting of soil water content in real-world agricultural settings, contributing to optimized irrigation and sustainable water resource management.
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Bruni et al. (2026) studied this question.
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