The global agricultural sector is undergoing a digital transformation, driven by the imperative to enhance food security, mitigate climate change impacts, and optimize resource utilization. Rising labor costs and a shrinking agricultural workforce necessitate automation and precision farming solutions. This technology aligns perfectly with these trends, offering a scalable, data-driven approach to pest management that can significantly improve operational efficiency and environmental sustainability across major rice-producing regions worldwide.
Estimates pest damage over 20% earlier and more accurately by integrating aerial imagery, weather, water depth, and temperature data.
Reduces manual patrol labor by 80% through centralized monitoring of vast rice paddies using drone imagery and AI analysis.
Minimizes yield loss by up to 30% by enabling timely pest control measures through early risk detection.
This patent protects a system for estimating pest damage by integrating aerial imagery, weather data, and water depth/temperature information. It covers multiple technical aspects across 9 claims, demonstrating strong patentability and a robust scope of rights, having successfully navigated a rigorous examination process with minimal prior art.
This patent primarily focuses on pest damage estimation in rice paddies. White space exists in developing predictive models for other crop diseases or nutrient deficiencies, or integrating advanced robotic intervention systems for automated, localized pest control beyond mere detection.
Assuming an annual loss of ~$650/hectare (AI est.) from shellfish pest damage in rice cultivation, deploying this technology across 100 hectares could reduce yield loss by 25%. This translates to a ~$15K/year (AI est.) loss reduction. Combined with an estimated ~$150K/year (AI est.) in labor cost savings from optimized control operations, the total economic impact could reach ~$165K/year (AI est.) per 100 hectares.
X: Pest Damage Detection Accuracy
Y: Operational Cost Efficiency