Agriculture depends on reliable access to water, yet irrigation decisions are often affected by changing weather, soil variability, cropgrowth stages, and limited monitoring. This paper proposes a Machine Learning-Based Intelligent Water Management System forAgriculture that combines soil-moisture observations, weather information, crop and soil profiles, and irrigation history to supporttimely water-management decisions. The proposed design uses a sensor and controller layer to collect and validate data, amachine-learning module to estimate short-term water need, and a safety layer to determine whether irrigation should berecommended or activated. The system includes rainfall checks, sensor-fault handling, maximum pump-runtime limits, manualoverride, and post-irrigation feedback. A rule-based threshold controller is retained as a transparent baseline and fallback whenmodel confidence is low or connectivity is unavailable. The paper outlines system architecture, a conceptual algorithm, candidatehardware and software, evaluation metrics, limitations, and future development. This is a design-oriented paper; it does not claimmeasured water savings, yield improvement, or field-test results. Such benefits must be established through controlled anddocumented field evaluation.
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Roshni Memane (2026) studied this question.
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