A novel system integrating RGB-D imaging and deep learning for real-time, low-cost greenhouse monitoring, enabling data-driven precision crop management. It captures 3D spatial and spectral information for plant stress detection and space occupancy calculations, with real-time processing via edge computing.
This innovative solution utilizes RGB-D imaging combined with advanced deep learning techniques to offer a low-cost, real-time monitoring system for precision greenhouse crop management. By capturing both the visible spectrum and 3D spatial information, the system provides comprehensive insights into plant stress, morphology, and space occupancy. The integration of edge computing ensures real-time data processing and timely anomaly alerts, supporting effective crop management and decision-making.
Core Components:
The system is designed to detect abiotic stresses, such as interrupted irrigation or nutrient deficiencies, and calculate space occupancy efficiently.
Currently at Technology Readiness Level 5, the system has undergone initial integration and validation in controlled environments. Further validation is planned at Bayer facilities to assess commercial viability and scalability.
The University of Delaware is a comprehensive public research university and the state’s flagship, recognized for cross-disciplinary collaboration with industry. A research and technology park adjacent to campus co-locates corporate R&D with university labs and startups, with shared facilities and pilot-scale capabilities; integration with a regional health system enables clinical translation. Its Mid-Atlantic location offers quick access to talent, transportation, and nearby industrial clusters, while a statewide extension network supports testing and adoption. Research is supported by competitive federal funding from agencies such as NSF, NIH, DOE, USDA, and NASA. A dedicated technology transfer office streamlines IP, licensing, and startup formation, and corporate engagement provides a single point of entry.