The global demand for sustainable and efficient food production is escalating due to population growth, climate volatility, and diminishing arable land. This drives significant investment in smart agriculture and AgTech solutions. Regulatory pressures for reduced chemical use and increased resource efficiency further compel the adoption of precision farming. This technology offers a critical tool for enterprises seeking to meet these challenges, optimize operations, and gain a competitive edge in a rapidly evolving market focused on data-driven decision-making and environmental responsibility.
Significantly Enhances Cultivation Precision: Estimates photosynthesis and growth with high accuracy based on solar radiation, temperature, iLAI values from canopy images, and detailed data from flower cluster images. Enables precise, data-driven cultivation management independent of grower experience.
Contributes to Profitability Maximization: Provides objective understanding of plant physiological status at each growth stage by comparing photosynthesis and growth estimates. Supports optimal cultivation strategy development, maximizing yields and improving quality.
Robust IP Protection: This patent was granted after comparison with 7 prior art documents, confirming its stability and enforceability. Licensees can confidently develop their business with an exclusive period until 2041, establishing market leadership.
This patent protects the core technical features of estimating photosynthesis and growth, and their comparative display, for fruit and vegetable cultivation. Its validity has been rigorously confirmed through multiple examination processes, including overcoming two office actions and a final rejection, demonstrating a robust and stable exclusive right against seven identified prior art documents.
This patent primarily covers the estimation and display of plant physiological data. Licensees could develop additional IP in automated actuation systems (e.g., smart irrigation or fertilization based on these estimations) or integrate with robotics for tasks like automated harvesting, without direct conflict.
For a farm with ~$3.5M (AI est.) in annual sales, a 15% yield increase could generate an additional ~$0.5M (AI est.) in revenue. Optimizing material input could reduce costs by 10%, saving ~$30K (AI est.) annually. Total economic impact is estimated at ~$0.5M/year (AI est.).
X: Cost Efficiency
Y: Cultivation Precision and Productivity