The global agricultural landscape is undergoing a significant transformation driven by climate change, population growth, and labor scarcity. This has fueled demand for smart farming solutions, precision agriculture, and accelerated crop breeding. Technologies that enhance efficiency, reduce manual labor, and improve the accuracy of plant selection are critical for developing high-yield, disease-resistant, and climate-adaptive varieties, making this AI-driven approach highly relevant for global adoption.
Achieves High-Precision Automated Selection: Objectively selects plants with specific traits using image analysis, eliminating reliance on skilled human observation and significantly improving breeding process accuracy.
Significantly Accelerates Breeding Cycles: Substantially reduces manual and time-consuming selection tasks, accelerating the breeding cycle for new varieties and shortening time-to-market.
Substantially Improves Cost Efficiency: Dramatically cuts large-scale manual selection costs and re-work expenses due to misidentification in fields, potentially reducing annual operational costs by over 65%.
This patent protects an information processing apparatus for automated plant selection using image analysis, specifically by identifying plant area and its minimum circumscribing circle ratio. The clear recognition of inventiveness against a single prior art reference indicates a strong, unique, and difficult-to-circumvent claim scope, providing robust protection for licensee's business strategies.
While strong in image processing for plant selection, the patent's white space includes hardware innovations for advanced image acquisition (e.g., novel drone platforms), integration with genomic sequencing data for deeper trait correlation, or post-harvest quality assessment systems.
Assuming this technology can reduce skilled worker selection tasks by 80% (previously 2,000 hours/year). With a skilled worker's hourly wage at $20 (3,000 JPY / 150), annual labor cost is $40,000 (2,000 hours × $20). An 80% reduction saves $32,000. Considering additional factors like reduced re-selection costs from misidentification and increased harvest yields due to improved selection efficiency, an estimated annual cost reduction of ~$200,000 is projected.
X: Breeding Efficiency Improvement
Y: Selection Accuracy & Objectivity