Improving the sustainability and quality of DDGS, the high-protein animal feed co-product from bioethanol production, by using triticale as a biofuel feedstock?

Slides:



Advertisements
Similar presentations
Acknowledgement This study was performed with financial support of European Social Fund co-financed project 2009/0218/1DP/ /09/APIA/VIAA/099. Acknowledgement.
Advertisements

Climate Change Impacts and Adaptation in Agriculture Daniel J. Archambault Research Scientist Alberta Research Council February 25 th,2003.
R.W. Heiniger Vernon G. James Center North Carolina State University.
Morteza Mozaffari Soil Testing and Research Laboratory, Marianna Efforts to Improve N Use Efficiency of Corn in Arkansas Highlights of Research in Progress.
Kevin Capistran. RRV Yield Expectations Sugarbeets26 ton HRS Wheat70 bu Corn130 bu Soybeans40 bu Sunflower2000 lbs.
Future of UK winter oilseed rape production James Clarke & Susan Twining ADAS UK Ltd Prepared for: Crop Protection Association Agricultural.
Ethan Wyatt Plant and Soil Sciences Oklahoma State University.
Why cassava? It is a fascinating plant, and perhaps the one with the most potential. - food; starch - animal feed; - bioenergy and biofuels. Leaves are.
Yield, Protein, and Quality Response to Planting Date, Variety, and Late N. B.D. Brown. University of Idaho. Introduction Higher market prices for the.
Slide 1 Ag Science Cereal Production Barley Part 1 Copyright © Mr H Jones St Columba’s College, Dublin 16 For non-commercial purposes only….. Enjoy! Comments/suggestions.
An Economic Cost-Benefit Analysis of GM Crop Cultivation: An Irish Case Study Marie-Louise Flannery, Fiona S. Thorne, B Paul W. Kelly and Ewen Mullins.
Level II Agricultural Business Operations.  Registration (1)  Crop production (7)  Plant health (3)  Business management (4)  IT (2)  Health and.
ETS and the Arable industry Stuart Wright.
Research program 1 Our big target Reduced production costs.
Rationale and Objectives  Summer fallow is a common practice in the western portion of the Central Great Plains.  Summer fallow is inefficient at storing.
CUTEC Challenge Ron Stobart, NIAB TAG. The result of the integration of TAG (The Arable Group) and NIAB (National Institute of Agricultural Botany) A.
The Future for Energy Crops. Diverse drivers impact on land use Policy Drivers Climate change Energy security Ecosystem Services Rural livelihoods Food.
Wheat Protein Enhancement with N Intervention: Why the Concern? B.D. Brown and N.W. Christensen.
Triticale For P Removal Brad Brown University of Idaho 2008 Idaho Nutrient Management Conference.
Danish Crop Production Seminar 2007 Smart Plant Protection Jens Erik Jensen, DAAS Lise Nistrup Jørgensen, FAS Per Kudsk, FAS Ghita Cordsen Nielsen, DAAS.
Rural Economy Research Centre Situation and Outlook Conference SITUATION AND OUTLOOK FOR TILLAGE 2008/2009 F. Thorne Rural Economy Research Centre.
Due to (1) the impact of N on plant production, its economical and environmental impact, (2) the scale of energy needed to face worldwide demand, (3) the.
The Nitrogen Requirement and Use Efficiency of Sweet Sorghum Produced in Central Oklahoma. D. Brian Arnall, Chad B. Godsey, Danielle Bellmer, Ray Huhnke.
Testing New Products 13WMG16 Bill Bowden and Dave Gartner West Midlands Group Crop updates March 7, 2014 Badgingarra.
Wheat losses attributed to PM can reach 40% by affecting grain fill, root growth, and reducing test weights 1,2,3. At expected yield losses greater than.
FOOD A G R I C U L T U R E E N V I R O N N M E N T BIOKENAF – QLK5-CT th technical meeting Madrid, September 2006 X. Nuttens, S. Cadoux.
« Biofuels » (Enlarged Advisory Group on Pigmeat, 1st April 2011) Andreas Pilzecker, European Commission (Directorate-General for Agriculture, Unit H4)
Results and lessons learnt from maize- based cropping system activity Use your mouse to see tooltips or to link to more information.
SCC-33 National Variety Testing Meeting New Orleans – February 8-10, 2012 Rick Mascagni LSU AgCenter St. Joseph, LA.
The Effects of Topdressing Organic Nitrogen on Hard Red Winter Wheat - Year 2 Name: Erica Cummings Date: March 15, 2012 Title: Crops and Soils Technician.
Cereal Product Development and R&D Manager Nick Brooks.
OATS – Enhancing The Value A European Breeding Perspective Chris Green Fargo, July 2006.
Pasture Cropping in the Northern Agricultural Region David Ferris, DAFWA Supporting your success.
FOOD A G R I C U L T U R E E N V I R O N N M E N T BIOKENAF – QLK5-CT final meeting ATHENS, February 2007.
Mrs. Schaffner. the science and technology of producing and using plants for food, fuel, feed, fiber, and reclamation.
Acknowledgements This study was performed with financial support of EEA grant EEZ08AP-27 and European Social Fund co-financed project 2009/0218/1DP/ /09/APIA/VIAA/099.
Virtual Academy for the Semi Arid Tropics Course on Insect Pests of Groundnut Module 1: About Sorghum After completing this lesson, you have learned to.
Mixed Annual-Perennial Systems: Diversity on Iowa’s Land Matt Liebman Wallace Chair for Sustainable Agriculture Iowa State University.
Nutrient Management Planning. 2 N Nitrogen P Phosphorus K Potassium ………NO 3 Nitrate ………P 2 O 5 Phosphate ………K 2 O Potash ……… Nutrients needed by grass.
Figure 3. Concentration of NO3 N in soil water at 1.5 m depth. Evaluation of Best Management Practices on N Dynamics for a North China Plain C. Hu 1, J.A.
Precision Ag and Conservation Precision Ag Technologies are most often developed to increase efficiency and decrease input cost However, they provide great.
Extra crop competition with weeds by increasing wheat seeding rate
Peter McInerney Principal 3D-Ag  More than just your production system = Physical, financial and human elements of the farm business AND how they interrelate.
PHOSPHATES IN FEED? The Background – Perceived wisdom was that 0.7% Phosphate was required in a dairy ration to ensure herd health and fertility. Based.
After successful completion of this Lesson, you have learned to answer: 1.Why sorghum cultivation is important? 2.Can sorghum crop yield comparable to.
Level II Agricultural Business Operations.  Understand and identify the key crop production targets  Be able to state performance targets for individual.
Repeated undersowing of clover in organic cereal production. Nutrient dynamics and sustainability. Anne-Kristin Løes, Bioforsk Organic Food and Farming.
Introduction Efficient use of nitrogen is becoming important due to increasing N fertilizer prices and the growing concerns about NO 3 - contamination.
Durum and HRSW Best Management Practices A “Real-World” Perspective.
LATE SEASON N APPLICATIONS FOR IRRIGATED HARD RED WHEAT PROTEIN ENHANCEMENT. S.E. Petrie*, Oregon State Univ, B.D. Brown, Univ. of Idaho. Introduction.
Practical solutions for professional farming Members Winter Conference Wednesday 12th January 2011.
Collaborative Research & Development AFBI Pig Seminar 10 th November 2015.
Whole Farm Simulation and Nutrient Management USDA, Agricultural Research Service University Park, Pennsylvania C. Alan Rotz USDA / ARS.
Mallee Challenge Project #MalleeChallenge.
Grain & Graze 2 – Esperance 2010 Trials Summary Greg Warren & Michelle Handley Esperance, WA.
Where do Enhanced Efficiency Nitrogen Fertilizers and Split N Applications Fit? Cynthia Grant and Alan Moulin AAFC - Brandon Research Centre Nicolas Tremblay.
T6M4 PLANT FUEL Designed to match any crops need Low Salt index Nutrients are in plant available forms Compatible with popular pesticides Easy to.
Economics of Crop Production
FODDER BEETS IN WA Dale Thompson.
Economics of Cover Crops
Dhurba Neupane1, Juan Solomon2 and Jay Davison3
Benefits of grazing crops to growers Summary of DAFWA trials
Fertilizer Decisions Trial Nutrient Responses
Economics of Farm Enterprises II. (Farm Management II.) MSc level
Leaving Certificate Agricultural Science
Biofuels – Agricultural Issues and Outlook: Some Comments
Context Intensive forms of agriculture cause severe environmental effects: Soil erosion Loss of biodiversity Water pollution Development of conservation.
Coffee Shop Talk Heath Sanders Area Agronomy Specialist
Biomass Yield and Nutrient Accumulation by Four Small Grain Species
Effects of reduced tillage on vertical phosphorus stratification and availability Clain Jones, Chengci Chen, Evette Allison, and Karnes Neill Montana State.
Presentation transcript:

Improving the sustainability and quality of DDGS, the high-protein animal feed co-product from bioethanol production, by using triticale as a biofuel feedstock? A collaboration involving ADAS, Agrovista, Ensus, GrowHow, RAGT Seeds, Saaten Union and Senova, co- funded by the government-backed Technology Strategy Board, to develop triticale as a bioethanol feedstock, for sustainable DDGS.

Project rationale Recent data show triticale can outyield wheat & require less N fertiliser Triticale is suitable for animal feed Triticale is a suitable feedstock for bioethanol production, hence could deliver more sustainable DDGS protein Triticale is over-looked by many growers and trades at a discount

N x species trial 2009

Clay loam soil in Suffolk, after wheat 5 N rates 4 Species – 6 wheat varieties, 3 oats, 3 triticale, 3 barley Managed as wheat crop, except weed control & barley fungicides N x species trial 2009

Project objectives Demonstrate cost & environmental benefits of triticale over wheat across contrasting environments Evaluate grain, alcohol & DDGS quality in the lab Optimise protein output Demonstrate market utility by processing triticale in a commercial bioethanol plant

Work packages WP4: evaluate nutritional quality of triticale grain & DDGS WP5: evaluation of benefits & dissemination WP1: evaluate yields and N requirements of triticale WP2: evaluate varieties, agronomy & ear fertility WP3: evaluate bioethanol performance of triticale

Summary of triticale / wheat comparison trials TrialSiteSoilYearRotational position Best wheat variety (t/ha) Best triticale variety (t/ha) Triticale advantage N speciesSuffolkClay loam % N speciesSuffolkClay loam % HGCA TTNorfolkDeep silt % HGCA HMN. YorksShallow % AgrovistaN. YorksClay loam % TSB HMN. YorksShallow % TSB SU 1 st SuffolkLoam % TSB SU 2 nd SuffolkLoam % HYLO TTNorfolkSilt % HYLO WTOxonClay loam % TSB HM 1stN. YorksSandy clay loam % TSB HM 2ndN. YorksSandy clay loam % TSB RAGTEssexSandy clay loam % TSB NIABCambsSilty clay loam % TSB SUSuffolkClay loam % Average % Average % Average %

ADAS High Mowthorpe st cereal: optimum 163 kg N/ha2 nd cereal: optimum 172 kg N/ha

RAGT 2012 (1 st cereal) 1 st cereal: optimum 209 kg N/ha

NIAB 2012 (2 nd cereal) 2 nd cereal: optimum kg N/ha (but very poor curve fits)

Saaten Union 2012 Wheat mean: 8.31 t/haTriticale mean: 8.47 t/ha

Biomass at harvest RAGT 2012 (1st cereal)NIAB 2012 (2 nd cereal)

Biomass at harvest RAGT 2012 (1st cereal)NIAB 2012 (2 nd cereal)

Nitrogen uptake RAGT 2012 (1st cereal) NIAB 2012 (2 nd cereal)

Nitrogen uptake RAGT 2012 (1st cereal) NIAB 2012 (2 nd cereal)

Lodging RAGT 2012 (1st cereal) NIAB 2012 (2 nd cereal)

Specific weight

Grain protein (Varieties only shown if included in three or more experiments)

Gross margin comparison as a second cereal wheattriticale Grain yield (t/ha) Grain price£150£145 Grain output (£/ha)£1125£1218 Seed£45 Seed treatment£25 N fertiliser (kg/ha) N fertiliser (£/ha)£174£139 Other fertilisers£85£90 Herbicides£60 Fungicides£100£70 Insecticides/slug pellets£10 PGRs£15£20 Total variable costs (£/ha)£514£459 Gross margin (£/ha)£611£759 Triticale advantage£148

Triticale advantages Higher yield than wheat (in 80% experiments to date) –5% higher yield as 1 st cereal –13% higher yield as 2 nd cereal Needs up to 20% less N –To avoid lodging; little difference in N optima in most experiments Lower protein content than wheat –Higher predicted alcohol yields /ha and /t Higher gross margins Lower GHG costs per tonne

Triticale problems Greater lodging risk than wheat Lower specific weight Lower market price

Project partners - contacts Daniel Kindred, Susie Roques, Richard Weightman Mark Hemmant John Pinkney Allison Grundy Cathy Hooper Richard Jennaway Alison Barrow, Chris Green Project monitoring officer: James Dunn