University of Wisconsin, Madison

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Presentation transcript:

University of Wisconsin, Madison G2F Mission and Outlook Natalia de Leon University of Wisconsin, Madison Tucson, AZ February 6th, 2019

Plant Improvement Has Been a Successful Endeavor Wisconsin corn grain yield and rate of gain yield increase for three periods. Data derived from USDA – Statistics Services (1866-2005) http://corn.agronomy.wisc.edu/WCM/W177.aspx

NCGA National Corn Yield Contest: http://www. ncga 2017 (USDA) average corn yield nationally: 176.6 bushels/acre NGCA Corn Contest had 5 entries above 400 bushels/acre in 2017 (1 in 2018) 2017 no till/strip till, irrigated winner harvest 542 bushels/acre in 2017 (Charles City, VA) Recommendations: “Be best friend with your crop”, “walk your field”, ”farmers are great observers” plant when conditions are appropriate and use appropriate seed spacing plants need to germinate between 4 to 12 hours from its neighbor plant constant plant and soil sampling to monitor status winner corn was harvested at 19% moisture with ear leaf still green What resources, tools, processes can help increase efficiency of breeding outcome for specific conditions/situations?

Increasing Granularity and/or Efficiency in the System: P = G + E + G x E E.g.: Yield Cultivar A Virus susceptible, rust resistant X X X Phenotype Cultivar B WEATHER + SOIL MANAGEMENT MICROBES, ETC Rust susceptible, virus resistant DNA RNA PROTEIN Environment archive.is/lg8Ce Wyffels.com

Aspirational Objectives: Leverage the National Plant Genome Initiative investment in genome data with new phenotyping tools to deliver new products to farmers Desired Outcomes: Identify phenes and genes that control variation for plant performance in diverse environments (“GxE” Project) Develop and identify new sources of genetic variation Improve our ability to predict plant performance to enhance agronomic production, accelerate plant breeding, and support business and policy interests Enhance and organize the broader research community Integrated and annotated public data sets Development of data management resources Facilitate synergies and interactions within the community

Genetic Modelling and Allele Characterization (NA Context): Core Inbred pool ex-PVP and public breeding inbreds New Allele Sources GEM selects Particular lines from cooperators (yield component traits) Donations from industry screening Other sources Stiff Stalk ex-PVP Public Non-Stiff Stalk ex-PVP Public Iodent ex-PVP Public Model per se allelic effects Prediction of breeding crosses Prediction of “ideal” inbreds Hybrid Prediction Traits of focus GxE Integrating phenotyping, etc. Determine how to characterize alleles in the context of Core Inbred Pool Genetic context Recombination/resolution Managed biotic and abiotic stress targets

Germplasm Resources: Molecular information allows us to determine what is different but not necessarily what is useful Can we characterize available alleles well enough to determine the value of exotic alleles or specific allelic combinations for productivity? Longer term: Develop a germplasm generation infrastructure that provides useful resources to the community over time

Evaluation Across Environments: Yield (as example of a complex trait) is improved in relation to a target population of environments (TPE) or set of conditions for which cultivars are selected for Multi-environment trials (MET) provide relevant information for identifying and estimating GXE patterns and mechanisms to manage it Managed environments can help isolate and identify the effect of specific stresses High Intensity Phenotyping Sites (HIPS): sites where specific tools, conditions or processes are used on a smaller (common set of materials) to assess utility Small grains, soybeans, in the US, Australia and Europe

G2F G X E Project 2014 2016 2015 2017

Predicting Genotypes vs Predicting Environments: Known Genotypes in Unknown Environments Unknown Genotypes in Known Environments CV0

Dissection of Environments: Important features: water, light, temperature and nutrients TerraSentia Schnable, Tang, ISU Spalding, U Wisc Controlled environments

Final Remarks: Public sector is benefiting from infrastructures such G2F that allow the development, deployment and testing of new technologies that enhance genetic evaluation Advances in technologies allow increased level of granularity that further our understanding of context and interactions Big challenge is to appropriately evaluate their utility for genetic dissection and incorporation into genotype to phenotype models – data vs information Standards become important and resources for data management are developing Development of appropriate computing infrastructure is key Unique mission of public sector is the training of future plant scientist in a relevant context