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Steven ShaferAssociate Administrator for National Programs
USDA-ARS
Science for a Growing World
An Update on the
USDA Agricultural Research Servicefor the
National Coalition
for
Food and Agricultural Research
April 7, 2015
Overview of the
Agricultural Research Service
• Agency Leadership
• FY 2016 President’s
Budget
• Two national initiatives
• University partnerships
ARS National ProgramsProgram Planning and Evaluation
• Food Animal
Production
• Animal Health
• Veterinary, Medical,
and Urban
Entomology
• Aquaculture
• Water Availability and
Watershed
Management
• Global Change, Soils,
and Emissions
• Biorefining
• Agricultural and
Industrial Byproducts
• Pasture, Forage and
Rangeland Systems
• Agricultural System
Competitiveness and
Sustainability
Animal Production &
Protection (~15%)
Natural Resources &
Sustain. Agric. Sys. (~20%)
• Plant Genetic
Resources,
Genomics and
Genetic
Improvement
• Plant Biological &
Molecular
Processes
• Plant Diseases
• Crop Protection &
Quarantine
• Crop Production
Crop Production &
Protection (~35%)
• Human Nutrition
• Food Safety
• Quality and
Utilization of
Agricultural
Products
Nutrition, Food Safety
& Quality (~30%)
Associate
Administrator
Steven Shafer
Sally
Schneider
Kay
Simmons
Steven
Kappes
Pamela
Starke-Reed
Fiscal Year 2016 President’s Budget Proposed for ARS – Overall Summary ($000)
FY15 Appropriation 1,132,625
Increases
Pay costs, 1.3% 9,025
Program Increases 97,273
Decreases
Proposed Redirections (25,986)
Proposed Terminations (21,397)
Net FY16 Salaries & Expenses 1,191,540
Buildings & Facilities 205,901
TOTAL BUDGET REQUEST 1,397,441
FY 2016 Proposed Program Increases $97,273,000
Climate Change 11,000
Reduce Vulnerability to Climate Change 8,000
Transformational Genetics 11,100
Apprentice Farmer Program 150
Antimicrobial Resistance 7,000
Combat. Antibiotic Res. Bact. 10,000
Agricultural Sustainability 8,000
Big Data, Earth Sci., Earth Obs. 2,523
Pollinators 7,000
Vertical Farming 5,000
Sustainable Small Farms 7,500
Repair and Maintenance 20,000
Agricultural Research Service
A Frameworkfor Attaining Agricultural Sustainability
The Long-Term Agro-Ecosystem Research(LTAR) Network:
Current Status & Future Trends
Grand Challenges Facing Agriculture in the 21st Century
2000 2050 210019501900
Year
World
Population
World Energy
Consumption
By 2050, agriculture will need to:•Supply enough agricultural products to support a global population of 9.7 billion people;
• Without depleting our natural resources or degrading our environment;
• Against a background of changes in climate that are expected to alter patterns of temperature and precipitation on which the world’s food production systems depend.
•Even in the absence of climate change, this would be a significant challenge.
These challenges threaten our food security & the availability of fresh water for a variety of needs.
Calls for the Creation of a Long-Term Research Network for Agro-ecosystems
(Walbridge & Shafer 2011)(Similar to NSF’s LTER network for Non-Managed Ecosystems)
Infrastructure to:
enable research on agricultural processes from field to landscape scales;
support long-term investigations into key components of the sustainable intensification of agricultural production;
Historical data records would provide a baseline against which to evaluate future changes;
Collect common datasets using shared research protocols over the next 30-50 years—likely representing the most important datasets collected by such a network.
In Feb. 2012, ARS Announced the Organization of 10 Existing Experimental Watersheds, Ranges, &
Research Farms Into an LTAR NetworkBased on 7 Criteria:
1. Productivity – the team’s research track record;
2. Infrastructure Capacity – presence of an instrumented watershed or other long-term research facility large enough to capture landscape-scale processes;
3. Data Richness – the length, breadth, depth, and quality of the existing data record;
4. Data Availability/Accessibility -- organization and accessibility of existing data sets;
5. Geographic Coverage – how potential sites were distributed in terms of major agricultural production regions, watershed basins, and eco-climatic zones;
6. Existing Partnerships – with producers, other stakeholders, universities, etc.;
7. Institutional Commitment – to support continued site operation for the next 30-50 years.
LTAR Network Operating Principles
Develop research questions that are shared and coordinated across sites.
Provide the capacity to address large-scale questions across sites through shared research protocols.
Collect compatible datasets across sites, and provide the capacity and infrastructure for cross-site data analysis.
Facilitate and foster shared engagement in thinking and acting like a network.
LTAR Network Overview 18 sites
Data Records: 14 (CAF) to 100+ years (JER, NP, PRHP)
Area Covered (km2): 0.42 (KBS) to 16,500 (PRHP)
NEON Domains: 12 out of 17 (CONUS)
Major Drainage Basins: 12 out of 18 (CONUS)
Farm Resource Regions: 8 0ut of 9 (CONUS)
Shared Research Strategy (www.ars.usda.gov/ltar)
Four Priority Areas of Concern
1) Agro-ecosystem Productivity and Sustainability;
2) Climate Variability and Change;
3) Conservation and Environmental Quality;
4) Socio-economic Viability and Opportunities.
Four Key Products
1) New technologies & management practices;
2) New knowledge of processes & systems;
3) Improved agro-ecological models;
4) Comprehensive, accessible data.
Steve Shafer, Associate Administrator, National Programs
Paul Gibson, Chief Information Officer
Doreen Ware, Acting Chief Scientific Information Officer
Tom Houston, Chief Network Engineer
Process to Develop This Plan Three important documents
Big Data and Computing Workshop Summary, February 5-6, 2013
CSIO-CIO Big Data Pilot Proposals
ARS Scientific Computing AssessmentAri Berman et al., BioTeam, Inc., March 2014
Answer questions from Caird Rexroad (March 24)
Appointment of BDIP Team
Brainstorm: What questions need to be addressed to stand up this initiative
Contract with BioTeam, BDIP Team provided input to help develop details
Three components to the initial plan Science DMZ
Dedicated scientific research network for data computing
High-performance computing (HPC) system
Hybrid of local and cloud resources
Storage and efficient processing of ARS data
Virtual research support core
Experts to staff the new infrastructure
Provide computational research support
USDA AGRICULTURAL RESEARCH SERVICE
SCINet High-speed, scalable network at 6 locations Employ alternative, higher-efficiency security policies than ARSnet Dedicated to transport of research data Only carry non-sensitive (no PII) data Provide high-speed access to external computational and data
resources: NCBI, iPlant, XSEDE, etc. Accessible from specific compute and storage resources Physically separate from ARSnet, which ensures:
Alternative security policies Greatest efficiency for big data networking and collaboration Ensure continued security compliance by ARSnet
USDA AGRICULTURAL RESEARCH SERVICE
SCINet Locations
• 100 Gbps
– Albany, CA
– Ames, IA (NADC)
– Beltsville, MD (BARC/NAL)
• 10 Gbps
– Clay Center, NE
– Ft. Collins, CO (Bldg. D)
– Stoneville, MS
Core Hybrid Computing and Storage Ames, IA (NADC) Characteristics
69 Nodes; 1,560 cores; 15 TB memory
1.4 PB storage
AWS compute (640 cores) and storage (archival and replication)
Advantages A shared resources for research
Add capacity by leveraging cloud-based resources
Common location for scientists to use for collaboration
Accessible from ARS locations
USDA AGRICULTURAL RESEARCH SERVICE
Element 3 of the Big Data Strategy:Virtual Core Team Maintain the ARS Hybrid Cloud (HPC, storage,
common services, Cloud connectivity, and security)
Maintain the ARS SCINet (security, network, storage, and HPC)
Work with laboratories on carefully specified scientific targets
Train scientists on relevant informatics topics
Maintain a Help Desk that responds to researcher queries and reports
USDA AGRICULTURAL RESEARCH SERVICE
Virtual Core TeamAnalytics Support Section Efficiently reuse solutions across projects
Create standardized solutions for sets of common informatics needs that can be made available to scientists on self-serve basis.
Provide informatics resources to groups who would otherwise not have access to that kind of expertise.
Enable self-sufficiency among the ARS researchers through training, deep documentation, and extensive knowledge transfer.
USDA AGRICULTURAL RESEARCH SERVICE
Pilot projects to Support Agency Strategic Plan for Open Data Agile development starting with the evaluation of a few pilot projects Pilot projects 6 -12 months examples
Data: Transcriptomes, Genetic variation, Genome assembly & Annotation Communities: I5K, NPGS, Pathogens,
Define set of use cases emphasizing Support for data access and sharing Analyses Data standards Best practices Training materials
Establish Teams Diversity locations, species, expertise
Workshops Train the trainers 2-3 day workshops targeting specific data types
Evaluate outcomes and recommendations
USDA AGRICULTURAL RESEARCH SERVICE
Community Building Need to change the culture within the ARS
Move from individual CRIS project, location, to a Virtual Organization
The will require both bottom up and top down approaches
Working groups to support standards, policy, and training
Review of the existing policy & incentives
We need to start now and leverage existing ongoing work within projects.
USDA AGRICULTURAL RESEARCH SERVICE
Many public benefits come from ARS-University partnerships leveraging resources in:
• Infrastructure• Innovation• Education
AGRICULTURAL
RESEARCH
SERVICE
AGRICULTURAL
RESEARCH SERVICE
Research with ARS’ University Partners
ARS Funded Cooperative
Research – 2014
Number of Projects 359
Participating Universities 46
Number of States 43
Total Funding $30.4 million
ARS Research Funding from
University Partners – 2014
Number of Projects 270
Participating Universities 42
Total Funding $22.8 million
AGRICULTURAL RESEARCH SERVICE
Opportunities
Increase funding through partnerships on competitive grant proposals
Increase awareness to leverage each others’ talent and facilities
ARS involvement in training
and mentoring – 2013
Pathways Interns 360
Graduate Students 850
Undergraduate Students 960
Post-Docs 335
Adjunct Appointments 1,137
Scientists serving as
Student Advisors714 Opportunities
Partnerships that bring
increased diversity to
agricultural sciences
Training the Next Generation
AGRICULTURAL RESEARCH SERVICE