Performing Department
(N/A)
Non Technical Summary
This project aims to acquirie a shared cyber airborne hyperspectral imaging system (AHSIS) to enhance collaborative research capacity in artificial intelligence (AI)-enabled agriculture at 11 collaborative institutions in the region. The AHSIS will support 21 researchers in multiple disciplines to acquire, process, and analyze high-volume, high-resolution and full-spectrum (400 - 2,500 nm) hyperspectral imagery data of crops. The integrated advanced hyperspectral imager and high-performance computing (HPC) system will provide a shared testbed to identify crop secrets and discover the insights of interactions between crop genotype, environment, and management (G×E×M). The project aims to enable and enhance the fundamental and applied research and extension activities in AI-enabled agriculture. The AHSIS will initially support six multidisciplinary research and extension projects in crop breeding and genetics, soil health and crop management (including forage), and AI innovation. The airborne full-spectral imaging system is expected to greatly enhance the capacity to identify novel crop traits for accurately selecting superior crop genotypes (varieties) and distinguishing crop response to different stresses. We will also utilize the AHSIS and the collaborating network to develop a shared spectral database for different crops under different environments. The large-volume hyperspectral imagery data, crop genomic data and associated crop data will provide an ideal dataset for developing use-inspired AI innovations. The AHSIS will be accessed by 200+ postdocs, graduate and undergraduate students through research, teaching and training activities. The project aligns with the EGP goal of increasing access to shared special purpose equipment for scientific research in the food and agricultural sciences programs.
Animal Health Component
60%
Research Effort Categories
Basic
30%
Applied
60%
Developmental
10%
Goals / Objectives
The overall goal of this project is to enable and enhance fundamental and applied research on the theme of AI-enabled agriculture at the MU and collaborating institutions. The project will fulfill the following objectives: (1) Provide a shared cyber instrument to acquire, process and analyze advanced hyperspectral imagery data of crops and soil for conducting collaborative research and extension activities in AI-enabled agriculture, (2) enhance foundational and applied research in AI-enabled agriculture through deep collaborations among interdisciplinary studies, (3) conduct broader research and extension projects for science and technology dissemination, and for training the next-generation workforce in food and agriculture.The requested instrument will support the research and extension activities of nine PI/Co-PIs/SP and 11 collaborators (major users) to collaboratively work on six planned research areas (projects) and extension activities. The project will generate a regional impact on MU and 10 external institutions. We expect the project will enhance the application of emerging sensing technologies and AI to improve climate-smart and sustainable agriculture. The project is expected to benefit over 200 postdoctoral, graduate and undergraduate students in research projects, education programs, and hands-on course work, as well as farmers, industry, stakeholders and policymakers.
Project Methods
The instrument system will be integrated with ongoing and new research projects that are currently or previously supported by USDA-NIFA, NSF and commodity groups (see Current and Pending Support). The project will enable six planned research projects through collaboration in precision agriculture, high-throughput crop phenotyping and environmental science, as well as innovations in AI algorithms and cyber-physical systems.A Steering Committee consisting of the project's PIs and selected collectors will be established to ensure the instrument use and priorities remain flexible and malleable.The scheduling request form and updated schedule will be posted online - visible to the public through the project website.The shared instrument will be accessed by 80+ postdoctoral, graduate and undergraduate students in research projects (approx. four students per research group) who will get trained on advanced sensing and data analytic technologies. The instrument will be integrated into 5+ undergraduate and graduate courses in MU in different degree programs, including Ag Systems Technology, Plant Science and Computer Science reaching 200+ students each year