MUMBAI, India, June 26 -- Intellectual Property India has published a patent application (202641071475 A) filed by Madhankumar C; Mrs. N. Sornamari; Mr. Clement M; Dr S Vinodh; Ms Nandhini. R; Dr. P Sivaprakash; Mr. Karthick; and Mr. K Dillibabu on June 09, 2026, for Adaptive Water Conservation And Controlled Irrigation Management System Using Real-Time Soil Analytics..
Inventors include Mrs. N. Sornamari; Mr. Clement M; Dr S Vinodh; Ms Nandhini. R; Dr. P Sivaprakash; R. Karthick; and Mr. K Dillibabu.
The application for the patent was published on June 19, 2026, under issue no. 25/2026.
Abstract: ABSTRACT Adaptive Water Conservation and Controlled Irrigation Management System Using Real-Time Soil Analytics The present invention discloses an Adaptive Water Conservation and Controlled Irrigation Management System Using Real-Time Soil Analytics, configured to optimize agricultural water utilization through continuous soil monitoring and dynamic irrigation scheduling. The invention addresses the well-recognized inefficiencies of conventional irrigation methods that rely on fixed schedules and manual supervision, which frequently result in excessive water usage, soil degradation, waterlogging, nutrient loss, and unnecessary energy expenditure. The system comprises soil moisture sensing modules, a microcontroller-based irrigation control unit, threshold-based irrigation logic, environmental sensing components, and controlled water distribution mechanisms. Soil moisture sensing probes are strategically positioned within the agricultural field to continuously monitor and quantify soil moisture content variations. The sensing modules generate electrical signals proportional to the detected soil conditions, which are transmitted to the central irrigation control unit for real time analysis. The irrigation control unit evaluates soil moisture data against predefined threshold parameters to determine optimum irrigation requirements. Upon detection of moisture levels falling below the configured threshold, the system autonomously activates irrigation operations. Irrigation duration and frequency are adaptively regulated in proportion to the magnitude of moisture deficiency and prevailing environmental conditions. Upon restoration of suitable soil moisture levels, the irrigation cycle is automatically terminated, thereby preventing over-irrigation and unnecessary water discharge. The adaptive irrigation scheduling architecture ensures efficient water utilization by dynamically adjusting pumping cycles and irrigation intervals in response to continuously changing soil analytics. The system significantly reduces excessive pump activation, thereby minimizing power consumption and operational expenditure. The controlled irrigation distribution mechanism ensures precise water delivery to target zones, further enhancing water conservation efficiency. The invention offers measurable improvements over existing irrigation technologies, including substantial reduction in agricultural water wastage, improved irrigation efficiency, dynamic irrigation control based on real-time soil analytics, reduced manual supervision requirements, improved crop productivity, and enhanced soil health management. The system architecture is scalable and modular, rendering it suitable for deployment across diverse agricultural environments including open-field cultivation, greenhouse farming, precision agriculture installations, horticulture systems, and water scarce cultivation regions. In summary, the present invention represents a significant advancement in intelligent irrigation management, providing an adaptive, responsive, and energy-efficient solution for sustainable agricultural water conservation. The system is particularly applicable in regions experiencing water scarcity, erratic rainfall patterns, and increasing agricultural water demand, thereby contributing to global sustainable farming goals and precision agriculture initiatives.
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