Australia’s Agri-food Innovation
Ecosystem
Brian Keating
Canberra Workshop
14th December 2016
Aims
 Introduce (very briefly) visitors to Australian
agriculture
 Propose some strengths and weaknesses of
our agri-food innovation system – as a
discussion starter only.
 Not speaking on CSIRO’s behalf …
 Reflections from 40 years in Australian
agricultural R&D
The opportunity
We live in interesting times ....
Over 2 billion emerging
middle class to our north
Australia’s Agri-food Innovation Ecosystem
Cause for concern
Productivity growth in Australian
agriculture slowing ?
“Productivity isn’t everything, but in the long run it is almost everything”
- Paul Krugman, Nobel Prize winning economist
0
50
100
150
200
250
1970 1980 1990 2000 2010
index,1977-78=100
Agricultural productivity
Broadacre
Cropping
Mixed cropping-livestock
Beef
Sheep
Dairy
Australia’s agri-food exports flat,
imports rising ...
Exports
Net Exports
Imports
Brazil’s explosive growth as a food
exporter
x 3
Technological drivers of
Australian agriculture
Looking back – a century of wheat
yield progress
?
Current technological opportunities
Better adoption of existing technology
IWM
Soil & yield
mapping
DSS risk
mgt
Soil nutrient
testing
VRT
fertiliser
Break
crops
Timely
sow
Soil amel
precision
guidance
Monitor
Soil water
Clean
fallow
SCF
auto-
steer
No-till
Control
traffic
Stubble
retention
VRT other
0
20
40
60
80
100
120
0 20 40 60 80 100
Futurepotialscaleofadoption
Current scale of adoption
Size of bubble = gains in grains productivity In Australia due to
technologies or practices.
1980 1990 2000 2010 2020 2030 2040 2050 2060
Year
Identify and clone
major genes
QTL pyramiding/Genomic
selection
GM – resGene cassettes,
herbicide, nutrient-use
efficiencies, apomictic hybrids
GM - C4 photosynthesis,
frost tolerance
First linked
markers
Expected deployment of biotechnology
in crop breeding
A
Soil information from the new National Soil
Grid (A) can be combined with locally (B)
and remotely sensed (C) soil nutrient and
moisture data to give farmers the
information they need to analyse cropping
options.
Farmers can combine this information with
climate data (D) and their own knowledge
(E) to run model scenarios in the Cloud (F).
This interactive system provides easy to
understand farming options analysis (G).
B
C D
F
G
Options
Analysis
Cropping
Inputs
Wheat Variety Scout
Total Nitrogen
Clay Content
Water Holding Capacity
Nhill – Harold’s Paddock (182.2 Ha)
E
D
Wheat Yield (T/Ha)
Australia– not the food bowl but
maybe the delicatessen of Asia?
Australia’s agri-food innovation
imperative
Our economy-wide innovation track
record is not good ....
10, 81 13, 66 11, 12
Global Rank : Innovation Inputs, Innovation Output Efficiency
Australia NetherlandsNew Zealand
100 years of evolution of a national
agri-food innovation system
Advisory Council of Science and Industry, 16 Nov 1917
The traditional view of Australia’s
agri-food innovation system
An abbreviated history …
Pre
1916
•State Departments of Agriculture
•Some Uni Agriculture Professors
1916 -
1949
•CSIR (and predecessors) coordinate national system
•States and “Sandstone” Uni’s active
1949 –
1985
•Rapid growth in CSIRO and State agencies
•Industry funds directed to R&D institutions (at programmatic level)
1990’s
•RDCs emerge (now 15), CRC’s emerge, More Uni’s engage in Ag R&D
•States exit agricultural extension and squeeze R&D
•Private sector advisory services emerge (in most industries)
1992
-2016
• RDC’s grow from project funding at margin to funding at core
• CSIRO funding plateaux/decline but external funds “hold the line”
• ACIAR commences
• Various attempts to coordinate national ag research agenda (PISC/AGSOC)
• Federal Departments set up a range of custom-built R&D Programs
• CRC’s start to run out of momentum in agriculture, funding severely
constrained, high transaction costs
• Some highlights of public-private partnerships delivering sustained economic
and environmental performance (eg Cotton)
Some strengths of the Australian agri-
food innovation system
 Continuing strengths in metrics of scientific publication.
 Rural Research & Development Corporations (RDCs) [and
historically rural industry CRCs]
 Private sector advisory services (often growing out State
based extension services)
 CSIRO [ca 30% agri-food or closely related] – globally
significant in scale and structure
 A suite of strong Universities in the agri-food domain
 ACIAR – linking Australian agricultural R&D to the
developing world
Some possible weaknesses of the
Australian agri-food innovation system
 Limited data and understanding on how the “system” is
structured and functions.
 Locked into historical structures and approaches and limited
openness to explore improved functionality. Most incentives
drive “local optimisation”.
 Commodity RDC structures works against cross-cutting
opportunities and value chain approaches.
 Social forces in RDC model can work against high-impact
“tailored” solutions and novel public-private partnerships.
 Over-emphasis with “on-farm productivity” rather than
whole of value chain profitability and marketability.
 Second wave of post State-based extension needs to be
invented.
Some possible weaknesses of the
Australian agri-food innovation system
con’t.
 University sector has grown in significance but incentives
remain largely around scientific publication.
 Political drivers promote sub-scale and fragmented
initiatives that add to transaction costs.
 “Leverage game” taken to extremes that destroy overall
system functionality.
 Long-term plateau/decline in public investment in science.
 Small domestic market and “branch office” status restricts
private sector investment.
 Clear leadership often lacking at the government level
(Commonwealth and State) and industry level (regions,
States, National, industry components, on-farm/off-farm).
Some reflection on how we got to
where we are …
 A commodity exporting ag economy (rather that a value add processing
economy) [Note: Domestic market growing and subject to open
competition]
 A “science centric” innovation system based on a tradition of public
science investment (in the national interest). Well funded from 50’s to
80’s but declining support since then.
 An “on-farm” focus on adapting crops/livestock/technologies and
practices to Australian conditions, with some unique features (poor soils,
climate variability).
 Since the early 1990’s, introduction of the RDCs to aid coordination and
focus R&D on industry needs. Initially a funder at the margin but never
designed to be a central funder that leverages the bulk of the system.
 CSIRO has returned to its foundations to focus on national priorities
requiring an “at scale/multi-disciplinary” response – “Innovation
Catalyst” aspiration.
 In 21st Century we find a different world
 Australian agri-food businesses have never had an opportunity of the same
significance as the current developments in Asia.
 Markets, knowledge, agri-business are more global in nature and we face
global scale challenges
“Innovation happens when the ideas and
resources of different organisations connect
effectively. Systems are defined by their
connections, and innovation systems link
businesses with one another and with research
organisations and government.
Australia's innovation system is disconnected.”
Mark Dodgson , Professor of Innovation Studies, University of
Queensland Business School https://vimeo.com/44224654
One view - Innovation Ecosystem
“Innovation Ecosystem” view
Adapted from A. Hall (2012) Partnerships in agricultural innovation - Who puts them together and are they
enough? In OECD Conference on Improving Agricultural Knowledge and Innovation systems
Technology
triggers
Market triggers
Social triggers
Environmental
triggers
Research
Organisations
Farm
Enterprises
Agri value
chain actors
Markets and
Consumers
“Go-between”
Organisations
Protocols
Enabling Govt. Policy
Environment
Innovations of
economic,
environmental
or social
significance
New capacity to
innovate
Thankyou
Brian Keating
Brian.Keating@csiro.au

More Related Content

PDF
Agri-food innovation: Pathways to Impact
PDF
The Food Systems Innovation initiative (FSI) by Dr A.Hall
PDF
Agri-Tech Global Expert Mission in Australia
 
PDF
1.3 food systems innovation presentation v2
PDF
Global Expert Mission "Agri-Tech Innovation in New Zealand 2019"
 
PPTX
Challenges for EU Agri-Food and implications for research
PDF
Andy hall framework partnership and innovation@apaari
PDF
Food Agility Prospectus March11 2016
Agri-food innovation: Pathways to Impact
The Food Systems Innovation initiative (FSI) by Dr A.Hall
Agri-Tech Global Expert Mission in Australia
 
1.3 food systems innovation presentation v2
Global Expert Mission "Agri-Tech Innovation in New Zealand 2019"
 
Challenges for EU Agri-Food and implications for research
Andy hall framework partnership and innovation@apaari
Food Agility Prospectus March11 2016

Similar to Australia’s Agri-food Innovation Ecosystem (20)

PPTX
Global Food Sustainability - Australia and the Road Ahead
PDF
1 Shire of Murray - Innovation Clustering.pdf
PDF
Andrew Campbell IFMA Launceston_2019
PDF
Science-policy dialogue: helping agriculture adapt to a changing climate
PPTX
Food systems innovation: the real food crisis?
PPTX
AKIS, food systems, innovation
PPTX
Farewell address krijn j poppe
PPT
Kjp on akis for ifoam bari
PPTX
Th5_Innovation systems: Making science work for farmers… and beyond
PPTX
KJ Poppe Valerie Final symposium 2017
PPTX
Local foodforglobalfuturebrussels6okt2015
PDF
Innovation In Agrifood Systems Rev And Exp Ed W M F Jongen M T G Meulenberg
PDF
Final break out group speakers
PDF
Presentation Agri-food systems innovation: Reframing the conversation
PDF
KJ POPPE an intro on Dutch agro for foreign delegations
PPT
Introduction: Developing a Strategic Framework for Innovation Platforms in Dr...
PPTX
KJP EAAE seminar Kiev 2016
PPTX
TOPIC 2 FOOD SYSTEMS Natural Resources and Environmental Impacts2023.pptx
PPTX
Trends for future farming
PPTX
Challenges and Opportunities in Agriculture and NRM
Global Food Sustainability - Australia and the Road Ahead
1 Shire of Murray - Innovation Clustering.pdf
Andrew Campbell IFMA Launceston_2019
Science-policy dialogue: helping agriculture adapt to a changing climate
Food systems innovation: the real food crisis?
AKIS, food systems, innovation
Farewell address krijn j poppe
Kjp on akis for ifoam bari
Th5_Innovation systems: Making science work for farmers… and beyond
KJ Poppe Valerie Final symposium 2017
Local foodforglobalfuturebrussels6okt2015
Innovation In Agrifood Systems Rev And Exp Ed W M F Jongen M T G Meulenberg
Final break out group speakers
Presentation Agri-food systems innovation: Reframing the conversation
KJ POPPE an intro on Dutch agro for foreign delegations
Introduction: Developing a Strategic Framework for Innovation Platforms in Dr...
KJP EAAE seminar Kiev 2016
TOPIC 2 FOOD SYSTEMS Natural Resources and Environmental Impacts2023.pptx
Trends for future farming
Challenges and Opportunities in Agriculture and NRM
Ad

More from Independent Science and Partnership Council of the CGIAR (20)

PDF
Annual reporting for phase II Peter Gardiner
PDF
FAO's Vision on AD4D partnership Ren Wang
PDF
GIZ/BEAF Partnership for Impact Holger Kirscht
PDF
Intro item 6. Enhancing the interface between research and development partne...
PDF
IEA Update for ISPC 15th Meeting Rachel Sauvinet-Bedouin
PDF
Item 3. Planning for Science Forum 18 Leslie Lipper
PDF
Scientific Equipment Policy Change through Facilitated Advocacy Nighisty Ghezae
PDF
Assessing the land resource-food price nexus of the Sustainable Development G...
PDF
Harnessing Investments and Transforming Bean Value Chains for Better Incomes ...
PDF
System Office Business Plan Elwyn Graigner-Jones
PDF
Standing Panel on Impact Assessment Doug Gollin
PDF
Agricultural Biodiversity Nourishes People and Sustains the Planet Ann Tutwiler
PDF
PDF
Identifying linkages between the Genebank Platform and ISPC SPIA Isabel López...
PDF
Item 10. Identifying linkages between the Genebank Platform and ISPC SPIA
PDF
DNA fingerprinting of plant material from farmers fields:What have we learned...
PDF
Quality of Science (QoS) concept note
PDF
Prioritization process for the CGIAR
Annual reporting for phase II Peter Gardiner
FAO's Vision on AD4D partnership Ren Wang
GIZ/BEAF Partnership for Impact Holger Kirscht
Intro item 6. Enhancing the interface between research and development partne...
IEA Update for ISPC 15th Meeting Rachel Sauvinet-Bedouin
Item 3. Planning for Science Forum 18 Leslie Lipper
Scientific Equipment Policy Change through Facilitated Advocacy Nighisty Ghezae
Assessing the land resource-food price nexus of the Sustainable Development G...
Harnessing Investments and Transforming Bean Value Chains for Better Incomes ...
System Office Business Plan Elwyn Graigner-Jones
Standing Panel on Impact Assessment Doug Gollin
Agricultural Biodiversity Nourishes People and Sustains the Planet Ann Tutwiler
Identifying linkages between the Genebank Platform and ISPC SPIA Isabel López...
Item 10. Identifying linkages between the Genebank Platform and ISPC SPIA
DNA fingerprinting of plant material from farmers fields:What have we learned...
Quality of Science (QoS) concept note
Prioritization process for the CGIAR
Ad

Recently uploaded (20)

PPT
dcs-computertraningbasics-170826004702.ppt
PPT
Chapter 6 Introductory course Biology Camp
PPTX
Chapter 1 Introductory course Biology Camp
PDF
Microplastics: Environmental Impact and Remediation Strategies
PDF
Traditional Healing Practices: A Model for Integrative Care in Diabetes Mana...
PDF
Unit Four Lesson in Carbohydrates chemistry
PPTX
The Electromagnetism Wave Spectrum. pptx
PPTX
Antihypertensive Medicinal Chemistry Unit II BP501T.pptx
PPTX
Cutaneous tuberculosis Dermatology
PPTX
1. (Teknik) Atoms, Molecules, and Ions.pptx
PDF
Physics of Bitcoin #30 Perrenod Santostasi.pdf
PPTX
Contact Lens Dr Hari.pptx presentation powerpoint
PDF
Pentose Phosphate Pathway by Rishikanta Usham, Dhanamanjuri University
PDF
software engineering for computer science
PPTX
Bacterial and protozoal infections in pregnancy.pptx
PDF
SOCIAL PSYCHOLOGY chapter 1-what is social psychology and its definition
PPTX
23ME402 Materials and Metallurgy- PPT.pptx
PDF
No dilute core produced in simulations of giant impacts on to Jupiter
PDF
final prehhhejjehehhehehehebesentation.pdf
PPT
Chapter 52 introductory biology course Camp
dcs-computertraningbasics-170826004702.ppt
Chapter 6 Introductory course Biology Camp
Chapter 1 Introductory course Biology Camp
Microplastics: Environmental Impact and Remediation Strategies
Traditional Healing Practices: A Model for Integrative Care in Diabetes Mana...
Unit Four Lesson in Carbohydrates chemistry
The Electromagnetism Wave Spectrum. pptx
Antihypertensive Medicinal Chemistry Unit II BP501T.pptx
Cutaneous tuberculosis Dermatology
1. (Teknik) Atoms, Molecules, and Ions.pptx
Physics of Bitcoin #30 Perrenod Santostasi.pdf
Contact Lens Dr Hari.pptx presentation powerpoint
Pentose Phosphate Pathway by Rishikanta Usham, Dhanamanjuri University
software engineering for computer science
Bacterial and protozoal infections in pregnancy.pptx
SOCIAL PSYCHOLOGY chapter 1-what is social psychology and its definition
23ME402 Materials and Metallurgy- PPT.pptx
No dilute core produced in simulations of giant impacts on to Jupiter
final prehhhejjehehhehehehebesentation.pdf
Chapter 52 introductory biology course Camp

Australia’s Agri-food Innovation Ecosystem

  • 1. Australia’s Agri-food Innovation Ecosystem Brian Keating Canberra Workshop 14th December 2016
  • 2. Aims  Introduce (very briefly) visitors to Australian agriculture  Propose some strengths and weaknesses of our agri-food innovation system – as a discussion starter only.  Not speaking on CSIRO’s behalf …  Reflections from 40 years in Australian agricultural R&D
  • 4. We live in interesting times ....
  • 5. Over 2 billion emerging middle class to our north
  • 8. Productivity growth in Australian agriculture slowing ? “Productivity isn’t everything, but in the long run it is almost everything” - Paul Krugman, Nobel Prize winning economist 0 50 100 150 200 250 1970 1980 1990 2000 2010 index,1977-78=100 Agricultural productivity Broadacre Cropping Mixed cropping-livestock Beef Sheep Dairy
  • 9. Australia’s agri-food exports flat, imports rising ... Exports Net Exports Imports
  • 10. Brazil’s explosive growth as a food exporter x 3
  • 12. Looking back – a century of wheat yield progress ?
  • 14. Better adoption of existing technology IWM Soil & yield mapping DSS risk mgt Soil nutrient testing VRT fertiliser Break crops Timely sow Soil amel precision guidance Monitor Soil water Clean fallow SCF auto- steer No-till Control traffic Stubble retention VRT other 0 20 40 60 80 100 120 0 20 40 60 80 100 Futurepotialscaleofadoption Current scale of adoption Size of bubble = gains in grains productivity In Australia due to technologies or practices.
  • 15. 1980 1990 2000 2010 2020 2030 2040 2050 2060 Year Identify and clone major genes QTL pyramiding/Genomic selection GM – resGene cassettes, herbicide, nutrient-use efficiencies, apomictic hybrids GM - C4 photosynthesis, frost tolerance First linked markers Expected deployment of biotechnology in crop breeding
  • 16. A Soil information from the new National Soil Grid (A) can be combined with locally (B) and remotely sensed (C) soil nutrient and moisture data to give farmers the information they need to analyse cropping options. Farmers can combine this information with climate data (D) and their own knowledge (E) to run model scenarios in the Cloud (F). This interactive system provides easy to understand farming options analysis (G). B C D F G Options Analysis Cropping Inputs Wheat Variety Scout Total Nitrogen Clay Content Water Holding Capacity Nhill – Harold’s Paddock (182.2 Ha) E D Wheat Yield (T/Ha)
  • 17. Australia– not the food bowl but maybe the delicatessen of Asia?
  • 19. Our economy-wide innovation track record is not good .... 10, 81 13, 66 11, 12 Global Rank : Innovation Inputs, Innovation Output Efficiency Australia NetherlandsNew Zealand
  • 20. 100 years of evolution of a national agri-food innovation system Advisory Council of Science and Industry, 16 Nov 1917
  • 21. The traditional view of Australia’s agri-food innovation system
  • 22. An abbreviated history … Pre 1916 •State Departments of Agriculture •Some Uni Agriculture Professors 1916 - 1949 •CSIR (and predecessors) coordinate national system •States and “Sandstone” Uni’s active 1949 – 1985 •Rapid growth in CSIRO and State agencies •Industry funds directed to R&D institutions (at programmatic level) 1990’s •RDCs emerge (now 15), CRC’s emerge, More Uni’s engage in Ag R&D •States exit agricultural extension and squeeze R&D •Private sector advisory services emerge (in most industries) 1992 -2016 • RDC’s grow from project funding at margin to funding at core • CSIRO funding plateaux/decline but external funds “hold the line” • ACIAR commences • Various attempts to coordinate national ag research agenda (PISC/AGSOC) • Federal Departments set up a range of custom-built R&D Programs • CRC’s start to run out of momentum in agriculture, funding severely constrained, high transaction costs • Some highlights of public-private partnerships delivering sustained economic and environmental performance (eg Cotton)
  • 23. Some strengths of the Australian agri- food innovation system  Continuing strengths in metrics of scientific publication.  Rural Research & Development Corporations (RDCs) [and historically rural industry CRCs]  Private sector advisory services (often growing out State based extension services)  CSIRO [ca 30% agri-food or closely related] – globally significant in scale and structure  A suite of strong Universities in the agri-food domain  ACIAR – linking Australian agricultural R&D to the developing world
  • 24. Some possible weaknesses of the Australian agri-food innovation system  Limited data and understanding on how the “system” is structured and functions.  Locked into historical structures and approaches and limited openness to explore improved functionality. Most incentives drive “local optimisation”.  Commodity RDC structures works against cross-cutting opportunities and value chain approaches.  Social forces in RDC model can work against high-impact “tailored” solutions and novel public-private partnerships.  Over-emphasis with “on-farm productivity” rather than whole of value chain profitability and marketability.  Second wave of post State-based extension needs to be invented.
  • 25. Some possible weaknesses of the Australian agri-food innovation system con’t.  University sector has grown in significance but incentives remain largely around scientific publication.  Political drivers promote sub-scale and fragmented initiatives that add to transaction costs.  “Leverage game” taken to extremes that destroy overall system functionality.  Long-term plateau/decline in public investment in science.  Small domestic market and “branch office” status restricts private sector investment.  Clear leadership often lacking at the government level (Commonwealth and State) and industry level (regions, States, National, industry components, on-farm/off-farm).
  • 26. Some reflection on how we got to where we are …  A commodity exporting ag economy (rather that a value add processing economy) [Note: Domestic market growing and subject to open competition]  A “science centric” innovation system based on a tradition of public science investment (in the national interest). Well funded from 50’s to 80’s but declining support since then.  An “on-farm” focus on adapting crops/livestock/technologies and practices to Australian conditions, with some unique features (poor soils, climate variability).  Since the early 1990’s, introduction of the RDCs to aid coordination and focus R&D on industry needs. Initially a funder at the margin but never designed to be a central funder that leverages the bulk of the system.  CSIRO has returned to its foundations to focus on national priorities requiring an “at scale/multi-disciplinary” response – “Innovation Catalyst” aspiration.  In 21st Century we find a different world  Australian agri-food businesses have never had an opportunity of the same significance as the current developments in Asia.  Markets, knowledge, agri-business are more global in nature and we face global scale challenges
  • 27. “Innovation happens when the ideas and resources of different organisations connect effectively. Systems are defined by their connections, and innovation systems link businesses with one another and with research organisations and government. Australia's innovation system is disconnected.” Mark Dodgson , Professor of Innovation Studies, University of Queensland Business School https://vimeo.com/44224654 One view - Innovation Ecosystem
  • 28. “Innovation Ecosystem” view Adapted from A. Hall (2012) Partnerships in agricultural innovation - Who puts them together and are they enough? In OECD Conference on Improving Agricultural Knowledge and Innovation systems Technology triggers Market triggers Social triggers Environmental triggers Research Organisations Farm Enterprises Agri value chain actors Markets and Consumers “Go-between” Organisations Protocols Enabling Govt. Policy Environment Innovations of economic, environmental or social significance New capacity to innovate