The global agricultural sector is undergoing a profound digital transformation, driven by demands for sustainable practices, increased efficiency, and higher yields amidst climate change and resource scarcity. Regulatory pressures for reduced pesticide use and consumer demand for traceable, high-quality produce further accelerate the adoption of precision farming technologies. This patent offers a critical tool for agribusinesses to meet these challenges, gain a competitive edge, and secure future food supply chains through advanced data analytics.
Generates orthomosaic images by segmenting and combining drone aerial photos based on crop lodging, enabling early detection of hidden pests, diseases, and growth irregularities beneath the canopy for precise intervention.
Dramatically reduces operational time compared to manual visual inspection of vast fields using drones and AI. This could reduce labor and fuel costs, leading to an estimated ~30% reduction in annual operating expenses.
Integrates and analyzes real-time growth data and pest damage estimates. This supports scientific decision-making over traditional experience, contributing to maximized yields and optimized use of pesticides and fertilizers.
This patent protects a broad scope across information processing apparatuses, methods, and programs, covering a unique algorithm for generating orthomosaic images by segmenting and combining drone images based on crop lodging, and subsequently estimating damage. This robust protection, validated through rigorous examination against prior art, minimizes invalidation risks and offers a stable foundation for licensees.
This patent focuses on image processing and analysis. White space exists in integrating this data with autonomous farming machinery for automated intervention, or combining it with advanced soil and weather data for more comprehensive predictive models.
For large-scale agricultural corporations managing an average of 50 hectares, traditional manual crop and pest monitoring incurs annual labor costs of ~$50K (AI est.) (2 workers x ~$25K/year/worker) and improper pesticide application costs of ~$50K (AI est.). Implementing this technology could reduce monitoring labor costs by 80% (~$50K reduction, AI est.) and pesticide costs by 50% (~$50K reduction, AI est.) through precise damage estimation. Additionally, increased yields could generate an estimated ~$100K (AI est.) in annual revenue. The total expected economic impact is ~$150K/year (AI est.).
X: Analysis Accuracy and Immediacy
Y: Cost-Effectiveness and Versatility