The global agricultural sector is under immense pressure to enhance food security and operational resilience amidst climate change and geopolitical instability. Precision agriculture and automation are critical for optimizing resource use and mitigating labor scarcity. This technology aligns perfectly with these trends, offering a scalable solution to improve efficiency in diverse farming environments, thereby contributing to more sustainable and profitable food production worldwide.
Optimizes planning for complex, fragmented fields by integrating travel, in-field work, and material resupply within daily operational limits.
Maximizes operational efficiency by integrating and calculating total time for travel, in-field tasks, out-of-field logistics, and return routes, reducing waste.
Provides a sustainable solution to agricultural labor shortages by de-skilling planning, enabling efficient operations for less experienced workers.
This patent protects the essential technical features across 11 claims, covering the integrated calculation of work plans for complex, fragmented fields. The robust claims successfully navigated rigorous examination, indicating strong validity and providing a stable foundation for business development.
This patent primarily covers planning algorithms. Licensees could build additional IP in real-time autonomous vehicle control, sensor integration for dynamic field adjustments, or specialized hardware for data collection and execution.
By reducing farm work planning time by ~30% and eliminating waste in travel and material resupply, this technology could improve operational efficiency by approximately 100 hours/person annually. For a farm with 5 average workers, assuming an annual personnel cost of $200K (AI est.), a 10% efficiency-driven labor cost reduction could yield $20K (AI est.) in direct savings. Additionally, optimizing material and fuel costs is estimated to save $11.5M (AI est.) annually, totaling an estimated $13.5M (AI est.) in annual cost reductions.
X: Operational Efficiency Maximization
Y: Versatility for Diverse Fields