The Challenges of [high-throughput] Phenotyping

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The Challenges of [high-throughput] Phenotyping Mount Hood - sept 2008

Topics Introducing BASF Plant Science Phenotyping, for what purposes? What are the challenges? High-throughput phenotyping The TraitMill example What is the output? Some lead examples Future developments

BASF Plant Science: a Global Technology Platform BASF Plant Science BASF Plant Science North Carolina BASF Plant Science Ames Iowa BASF Plant Science BASF Plant Science Ludwigshafen

BASF Plant Science Global R&D Platform ExSeed Genetics DNA LandMarks CropDesign Limburgerhof Plant Science Sweden Metanomics SunGene North Carolina Founded in 1998 700 employees in R&D Coops with universities, biotech start-ups and major AgBio players BASF Plant Science Units External Cooperations Partnerships with seed companies

CropDesign at a Glance Headquartered in Gent, Belgium; 90 employees Founded in 1998 as a spin-off from VIB, acquired in June 2006 by BASF Plant Science Focus on the development of high productivity traits by operating a unique rice-based trait discovery platform Focus on rice as a commercial crop opportunity and as a model for corn

BASF Plant Science The BASF approach to gene discovery: unique technology platform Crop yield improvement Look at plant Look inside 0 6.008.0010.00 12.00 14.00 16.00 18.00 20.00 22.00 24.00 BASF Plant Science CropDesign metanomics Unique and synergistic platform for gene function discovery Combines visual plant screening & metabolic profiling for gene function analysis High throughput at 5,000 to 10,000 genes tested per year

Introducing BASF Plant Science Phenotyping, for what purposes? What are the challenges? High-throughput phenotyping The TraitMill example What is the output? Some lead examples Future developments

Trends driving demand for agricultural products BASF Plant Science Food & Feed UN estimate* on word population: 9.2 billion people for 2050 Rising social standards drive global demand for more processed food (meat consumption in Asia) Biofuels** Worldwide: Programs to support bio-fuel projects EU biofuel target: 10% of total transportation fuel by 2020: 55% of total agricultural land needed to reach the target (in canola) To meet the demand we have to double productivity within the next 20 years *Published in May 2007 by the UN; ** EU-Directive, March 2007

BASF Plant Science Our Projects Crops wheat rice corn soybean canola Traits Novel Agronomic Enhanced feed Specialty food Industrial specialty traits traits traits traits - Yield - NutriDense - PUFAs - Modified starch - Stress tolerance - Phytate reduction - Increased Oil - Fungal resistance - Amino acid - Biofuels enhancement Basic Technologies Enabling Genomics Bioinformatics

Introducing BASF Plant Science Phenotyping, for what purposes? What are the challenges? High-throughput phenotyping The TraitMill example What is the output? Some lead examples Future developments

What are the challenges? High Throughput Low costs Efficient logistics Automation Early discovery Predictability Model plants Screening strategy Traits Organize the data flow LIMS Productivity tools

Key traits Established field crop markets (corn, soybean,...) Rice Bioenergy crops (sugarcane, switchgrass,..) Seed yield Seed number Grain filling rate 1000 seed weight Harvest index Heading time Development rate Root biomass Root shoot ratio Seed yield Seed number Grain filling rate 1000 seed weight Harvest index Heading time Development rate Root biomass Root shoot ratio Leafy biomass Plant height Development rate Oil content Rooty biomass Root thickness Root shoot ratio

Introducing BASF Plant Science Phenotyping, for what purposes? What are the challenges? High-throughput phenotyping: The TraitMill example What is the output? Some lead examples Future developments

TraitMill TM : Trait Development for Different High-Value Opportunities Productivity traits for established field crops Rice with improved yield Productivity traits for bioenergy crops Product leads Patent filing Data mgt & analysis Plant phenotyping Molecular analysis Plant transformation Vector construction Gene selection Genes Annual throughput >60 validated leads 10s of terrabytes 140,000 plants 300,000 PCRs >75,000 transformants 1300 constructs 2,000 genes

The TraitMill pipeline VECTOR CONSTRUCTION PLANT TRANSFORMATION MOLECULAR ANALYSIS PLANT EVALUATION SEED EVALUATION LEAD IDENTIFICATION LIMS and DATA MANAGEMENT PLANNING FACILITIES Myriam Van Quickenborne_June 13 th 2007

HTP plant evaluation

T0 generation Evaluation set up T1 generation Evaluation Statistical data analysis

Green biomass

Green biomass

Green biomass

Green biomass

Root biomass

Root biomass

Root biomass!"

Yield components #$%

Yield components #$% $% #$% &'

Yield components #$% $% #$% &'

Materials tracking LIMS Dbase over 50 manyears of development

Screening strategies Optimal regime Salt stress regime Drought stress regime Nitrogen limitation regime Drought

Introducing BASF Plant Science Phenotyping, for what purposes? What are the challenges? High-throughput phenotyping The TraitMill example What is the output? Some lead examples Future developments

Gene selection targets different yield components Biomass components Root Biomass Plant height Green biomass Number of panicles 50 100 150 Development time Time to Flower Flowers per panicle Filling rate Yield components 1000 kernel weight Yield Total weight seeds

A Phenotype tool kit + biomass + flowers + seeds - biomass - flowers - seeds + biomass + panicles + seeds + flowering - biomass - flowers - seeds

A Phenotype tool kit + flowers + seeds + seed size - panicles = yield + fertility + yield + biomass + seed size + yield

Family stories.. NAC genes

Yield stability.. Lead C Normal Drought Salt Low N

And in the field.. Wild type -/- +/+ + 15 % yield Lead CDE D + 26 % yield increase Null line Event 4

Field Validated Leads By By end of of 2006, 56 56 Leads tested in in at at least 1 field trial Field confirmation rate close to to 50 50 % 25 20 15 10 5 0 23 Confirmed 25 Not Confirmed 8 Pending Lead confirmed in field: positive phenotype observed in TraitMill TM confirmed in 2 field trials Lead not confirmed in field: positive phenotype observed in TraitMill TM not confirmed in 2 field trials Pending: 1 field trial result or conflicting results after 2 trials

Introducing BASF Plant Science Phenotyping, for what purposes? What are the challenges? High-throughput phenotyping The TraitMill example What is the output? Some lead examples Future developments

Integration of Phenotyping & Metabolic Profiling Create Unique Opportunities BASF Plant Science Analyze phenotype Metabolic profiling Identify important pathways + + Characterize mode of action Rational identification of new lead genes based on pathway knowledge Determine yield Expression profile Increased efficiency & efficacy of gene discovery

BASF Plant Science R&D Commercialization Collaboration with Monsanto Trait: High yield and abiotic stress tolerance Independent gene discovery programs Joint research pipeline Commercialization through Monsanto Crops: corn, soybean, cotton, canola Revenue sharing: 60/40 (Mon/BASF) Additional coop: Soybean cyst nematode

Monsanto Collaboration From Discovery through Commercialization BASF Plant Science Focus: Structure: Establishment of a joint technology & commercialization collaboration Combination of BASF and Monsanto expertise Monsanto discovery program BASF discovery program licensed brands regional brands mational brands R&D-pipeline for yield and stress tolerance traits Corn, soybean, canola, cotton Discovery Maintenance of independent discovery programs in each company Nomination of projects for development to jointly managed board Development Funding at 50-50 cost sharing Potential overall budget of 1.2 billion/ $1.5 billion through all phases of development Commercialization Emerging products distributed by Monsanto across its three existing commercial channels Value sharing at 60% for Monsanto and 40% for BASF

Conclusions TraitMill: result of continuous improvements Example of cost-effective, highly automated platform for screening yieldenhancement genes Large effects (>20%) on yield Different yield components: opportunities for trait stacking 2000 2002 2008 Know-How & Expertise In some cases, increased yield stability Phenotypes in the greenhouse confirm under field conditions Transferability of transgenic traits to other crops is ongoing