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Digital Technologies to Modernize
Effective and Efficient use of Plant
Genetic Resources
Eric Huttner and Miriam McCormack
Australian Centre for International
Agricultural Research (ACIAR)
IAC 2016, New Delhi, India
ACIAR
• Agricultural
Research arm of the Australian Aid program.
• Broker
partnerships between Australian (or International
Centres) and Developing Countries Scientists to undertake
research for development.
• 12
Research Programs to target specific areas of agricultural
production. About 100 M AUD annual budget.
• Head
office in Canberra, Australia with Country Offices
located in Partner Countries and regions.
• Aligned
with partner country priorities and Australian
government priorities
ACIAR Priorities
• Projects
are commissioned based on country priorities
• Australian
Aid program priorities:
• Economic
• Focus
growth, trade, productivity as a way out of poverty
on the Asia-Pacific region
• Empowering
women and girls - target of 80% across project
portfolio
©EHuttner201
3
• Engage
and promote private sector
• Nutrition
• Address
climate change and its consequences
Crop Improvement and Management
Food security through increased productivity
• Agronomic practices can be improved
but they are constrained:
• Land, Labour, Water, Inputs
• Sustainability
• Post-harvest opportunities: markets, products storage
• Farming systems: Using more productive crops
• Diversification: crops, varieties
Increased productivity through the seeds
• Better varieties may:
• give higher yield
• resist disease and pests, minimise losses
• have better quality, higher protein, vitamins, cooking
• Improvement is delivered through seeds
• easy to adopt
• limited change required
• need to produce and distribute the seeds
• But other improvements contribute too!
• Improved varieties need genetic resources and
exchange
Modernising plant breeding in the 21st century
• DNA
• Phenotypic
data
• Information
Technologies
• Modelling
• New
Genetic x Environment x Management
breeding approaches
• Challenges
• Breeding
India 17th Century, National Gallery of Australia
for developing countries
is not enough
Phenotype to Genotype
• The
age of DNA
• Low-cost,
• Genome
• Whole
extensive genetic information
sequence as the ultimate indexer for data
genome genotyping for breeding
• Microarrays
• Sequence
• Low
based
density typing
• High
• Low
throughput
cost per sample
• Outsourcing
©Nick Loman
• Expand
data production
genetic diversity
Better phenotyping
• Breeding
effectiveness and efficiency relies on data
• Electronic
• Reduce
data capture
errors (barcodes, sample tracking)
• Increase
throughput
• New
type of data: drones, multispectral images,
Near Infra Red analysis, …
• Digital
systems to manage experiments
• Back
• The
Sorghum Breeding program
Ethiopian Institute of Agricultural Research
up, cloud storage, disaster recovery
end of field books? Not sure!
IT for effective data management
• Breeding
• Need
information management system
to manage
• Lines,
• Field
seeds, pedigrees
experiments
• Phenotypic
• Genotypic
Examples (not an exhaustive list!)
• IBP: www.integratedbreeding.net/
• Agrobase: www.agronomix.com
• KDDArT: www.kddart.org
• Dedicated systems from CIMMYT and IRRI
• Links
data
data (link with suitable database)
with Gene Banks
• Interface
• Multiple
with data analysis tools
options: public and private
Modelling and Simulation
• Integrating
soil, climate, variety traits and crop
management
• Inform
breeding strategies: decide which traits for
which context
• Evaluate
• Inform
• Work
climate risks
farmers: better decision making at planting time
in progress! Used by modern plant breeders.
• Practical
application to farm level will require
innovation in agriculture extension
New breeding approaches
• Large
amount of reliable data captured and stored
electronically
• Machine
learning opportunities (like in other fields of science)
• Genomic
Selection:
• Build
a genotype to phenotype model from a training set
• Predict
the breeding value from high density genotypic
profiles in breeding populations
• Applicable
to developing countries, when program are
modernized.
• Using
• Also
broader genetic diversity
non crop genomes: symbiont, rhizosphere
International Mung bean
Improvement Network (IMIN)
• Mung
bean: an important traditional crop in South Asia
• Opportunities:
short duration crop, high value grain
• Mini-Core
Collection (MCC) from World Vegetable
Centre phenotyped by 4 partners: India, Myanmar,
Bangladesh and Australia
• MCC
genotyped at high density
• Partners
will adopt a common data management
system, electronic data capture.
• Open
network
Sorghum Improvement in Ethiopia
• Water
limitation causes significant crop losses and food
insecurity in major dry-land sorghum growing regions
•
Project co-funded by Bill & Melinda Gates Foundation and
ACIAR
• Enhance
effectiveness and capacity of the national sorghum
breeding program
•
New breeding design, larger experiments, digital data capture,
phenotyping for grain quality using NIR.
• Improve
productivity of sorghum in the target rainfall zones of
Ethiopia via breeding and agronomic research
•
•
APSIM to guide breeding and simulate alternative management
options
Key drought adaptation mechanisms in sorghum
Molecular markers for wheat breeding in India
• Combined
skills of Indian and Australian wheat
breeders and researchers
• Improved
wheat varieties for both countries using
molecular technologies
• Germplasm
exchange: future varieties will contain
traits from both countries
• Testing
Genomic Selection for yield
• Traits:
water use efficiency through deep roots, rust
disease resistance, soil toxicity and waterlogging, grain
quality
•
Deployment of the Integrated Breeding Platform as a
data management system
Challenges to modernizing breeding programs
• Skills,
training
• Institutional
change: rewarding plant breeders for team work,
genetic gain, not just for released varieties
• Access
to goods and services, modest amount of foreign currency
may be needed
• Access
to expanded genetic diversity
Breeding impact
• Impact
• Seed
• BUT
of improved varieties is clear
is an effective intervention
breeding needs:
• Responding
• Seed
systems
• Extension
© Seeds of Life
Timor Leste 2004: Sweet potato trials
to demand
and dissemination
• Participation
of the private sector
The power of international science cooperation
©ESA
Comet Churyumov-Gerasimenko, 6th of August 2014
©EH(KhulnaBGD02/2013)