The ground-based phenometrics group at the U of S uses a multiplatform approach (PAMM, miniPAMM, sprayer mounted, handcarts, etc.) with standardized, platform agnostic, instrument payloads. These payloads typically carry high resolution colour (RGB) and near-infrared (NIR) cameras, a LIDAR scanner (Light Detection and Ranging), an ultrasound sensor, and spectrometers (for quantifying the light environment). Other specialized instruments can include hyperspectral, ultraviolet, and polarization cameras. Additionally a low cost, open source RTK GPS system with dual GPS receivers enables high positional accuracy with heading and directional information.

These ground-based systems complement the U of S aerial phenotyping group by adding specialized and high resolution instruments, can operate in a wider range of weather than drones, don’t require flight approval, and have much higher payload capacity (both size, weight, and available power). The ground based platforms and instrument payloads will be in use and on display during the field demo (weather permitting). For more information and contacts please visit the USask Plant Phenotyping and Imaging Research Centre

Bringing the power of synchrotron-based techniques to plant science and research

The Canadian Light Source synchrotron is a national research facility located on the campus of the University of Saskatchewan that offers innovative and unique-in-Canada infrastructure and support for research. Synchrotron-based techniques help scientists probe the nature and structure of molecules and materials, making the CLS a valuable tool for both academic and commercial clients.

Crop Development: Synchrotron-based techniques provide unique ways to assess plant chemo-phenotypes and support modern crop development. Imaging technologies and tools allow for detailed analysis of physical tissue structures as well as localization of macro and micro nutrients to relate to the performance of new crop varieties and support plant phenotyping.

Agri-Biproduct Characterization: Synchrotron-based microstructure analysis and chemical imaging provide unique insights into a variety of agri-biproducts, everything from commercial food products to plant-based fibres to animal feeds and biofuels.

Crop Disease: Highly sensitive synchrotron imaging allows for the quantification and analysis of infected plant tissues before they are externally visible. The CLS also provides novel ways to assess the performance of new disease treatments and tolerance mechanisms of infection-resistant genotypes, saving significant time and effort in the development process.

Soils and Soil-Root Interaction: A variety of synchrotron-based techniques allow detailed soil composition and mineralogy analysis for both agriculture and land use management.