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Information Resources For 21 st Century Crop Production Decisions Illinois Corn Prices 2000-2008 Illinois Soybean Prices 2000-2008 Central Illinois Corn & Soybean Prices Crop Input CostsCentral Illinois 100 90 80 $ Per Acre


  1. Information Resources For 21 st Century Crop Production Decisions

  2. Illinois Corn Prices – 2000-2008

  3. Illinois Soybean Prices – 2000-2008

  4. Central Illinois Corn & Soybean Prices

  5. Crop Input Costs—Central Illinois 100 90 80 $ Per Acre 70 Costs 60 Fertilizer Pesticides 50 Seed Drying 40 Storage Crop insurance 30 20 10 0 2001 2002 2003 2004 2005 2006 2007

  6. $4 corn/$0.40 N vs $2 corn/$0.20 N • Price ratio the same … optimum rate the same • But the economic penalty for over or under estimating need or for nutrient loss is much greater with today’s higher prices • Greater economic justification for: – Precision input application, enhanced efficiency products – Guidance systems – Soil testing and plant analysis, soil or plant imaging – On ‐ farm strip trials, omission plots – Other forms of decision support • Investing in determination of right source , rate , time and place for inputs is the right response for the pocket book and the environment

  7. Increased demand for agricultural products has caused a remarkable transformation We have left a 25-year era dominated by the mindset that production (over) is a problem … and entered an era with new enthusiasm for sustainable development of the real potential of modern agriculture to harness the sun’s energy in meeting human needs . That spells opportunity , provided the steps taken are not only good short-term business moves, but are grounded in science-based sustainable practices leading to efficient and effective resource utilization.

  8. Fertilizer Prices Corn Price $7.00 $6.00 Price Trends $5.00 $4.00 Central Illinois $3.00 Corn $2.00 $1.00 $- 2001 2002 2003 2004 2005 2006 2007 2008 2009

  9. Cost of Fertilizer - Central Illinois $300.00 Year Fertilizer Bushels $250.00 2001 $ 57.89 29.4 Fertilizer Bushels 2002 $ 50.62 22.9 $200.00 2003 $ 51.52 22.5 $150.00 2004 $ 62.87 26.1 $100.00 2005 $ 72.96 35.4 2006 $ 83.15 34.9 $50.00 2007 $ 82.99 25.4 $- 2008 $ 110.00 23.2 2001 2002 2003 2004 2005 2006 2007 2008 2009 2009 $ 249.50 41.6

  10. Value of Information • Site ‐ specific information on an individual field has never been more valuable. – Rising input costs – Declining grain prices • Fine ‐ tuning management decisions.

  11. Global Framework for Fertilizer ECONOMIC BMPs Net profit Quality Return on investment Resource use Energy Profitability efficiencies: Adoption Labor Rate Nutrient Soil productivity Source Water Yield Cropping System Yield Place Productivity Sustainability stability Time Nutrient balance Farm income Nutrient loss Biological & Social Working conditions Soil erosion Environment Biodiversity Water & air quality Ecosystem services ECOLOGICAL SOCIAL

  12. Site-Specific Management Systems

  13. Automatic Guidance by RTK GPS Hands ‐ Free Farming High Resolution (RTK) GPS Guidance Systems 13

  14. International Conference on Precision Agriculture • Biennial research conference • IPNI & FAR Cooperating with Colorado State University • Close to 500 participants from 48 countries • Scientific presentations—oral and poster • A to Z applied sessions (CIG project outreach ) • Exhibits • Tours 10 th ICPA – July 18-21, 2010 • www.icpaonline.org Denver, Colorado

  15. Springfield, Illinois July 13-15 ,2009 InfoAg 2009

  16. InfoAg 2009 Conference Springfield, Illinois July 14-16, 2009 •Latest ideas on collecting, managing, and utilizing information in crop decisions. •Latest decision tools. •Latest technology. •Valuable networking opportunity. www.infoag.org

  17. www.ipni.net IPNI Website

  18. Working with Farmer Yield Data

  19. Yield Data Analysis I have all these yield data, what can I do with them?

  20. Investigating consistency • Binary grids created for each year • Binary grids added together – Example: 2 years of corn net returns – (0,1) grid 1998 + (0,1) grid 2000 – Interpretation of results: • 0 = corn not profitable in either year • 1 = corn profitable in 1 of 2 years • 2 = corn profitable in 2 of 2 years

  21. In what areas of the field has corn been consistently profitable? con([net profit 1998] > 0, 1, 0) + con([net profit 2000] > 0, 1, 0)

  22. In what areas of the field has corn been consistently profitable? Corn 1998, 2000 Red: 0 / 2 Yellow: 1 / 2 Green: 2 / 2

  23. In what areas of the field have soybeans been consistently profitable? Soybeans 1999, 2001 Red: 0 / 2 Yellow: 1 / 2 Green: 2 / 2

  24. What areas of the field are consistently profitable? Years with profit All Crops February 6-10, Illinois Regional Tillage 24 2006 Seminars

  25. Are Our Soil Test Goals Adequate for Current Systems? 38 bu/A more corn!!

  26. Building on the Best Agronomic Science

  27. Our Best Agronomic Science … •What is it? •Where is it? •Is it good enough?

  28. What is it? Science has never had a Industry has never had a more more complete set of impressive set of technologies. “knowledge nuggets”. p 0 150 300 450 600 750 900 1050 0.0 0.2 Wright 0.4 Soil Depth (m) The best agronomic science might well be that which guides 0.6 us to determining which practices and technologies are 0.8 1.0 “best” for a specific farm or field. 1.2 No Manure 1.4 No N or P 135 N + 0 P 1.6 135 N + 80 P 1.8

  29. Decision support and risk management tools Variable Rate Applicator with GreenSeeker

  30. Farm Research Analyst

  31. Our best agronomic science … •What is it? • Where is it?

  32. Potential source of relevant agronomic science?

  33. Our best agronomic science … •What is it? • Where is it? • Could be anywhere in the world – “The world is flat.” ‐ Thomas Friedman • Could be from your own farm – Published science not always clear … answer may only be found through on ‐ farm testing • Sound agronomics fits globally

  34. Global Maize

  35. Teams: • High yield farmer(s) and their advisers • Extension scientists (multidisciplinary) • Research scientists (multidisciplinary) Protocols Average Recommended High yield farmer practices approaches practices

  36. Global Maize

  37. Land availability is most often the primary limiting resource

  38. Herman Warsaw--- ---World Record Corn Producer 370 bu/A = 23.2 metric tons/ha

  39. Warsaw’s Resources

  40. Agronomy First!

  41. “Fine tuning . . . removing the next limiting factor” W. L. Nelson

  42. Global Maize Long-Term Sites Comparison of Management Systems

  43. Global Maize Long-Term Sites Comparison of Management Systems • Average Farmer Practice • Current Official Recommendations (university or government) • Intensive (High Yield) Management

  44. Teams: • High yield farmer(s) and their advisers • Extension scientists (multidisciplinary) • Research scientists (multidisciplinary) Protocols Average Recommended High yield farmer practices approaches practices

  45. Global Evaluation of Hybrid -Maize Ecological Intensification of Maize • To test predictability of maize growth and yield at all scales • Adapt model to local climate, soils, cultural practices, scale • To define current yield and yield potential in major maize-growing areas of the world • Build and test nutrient management components (N)

  46. Global Evaluation of Hybrid -Maize • Mechanistic approach • Local adaptability – Climate – Process ‐ oriented – Soil – Site ‐ specific parameters – Cultural practices • Define yield potential – Scale • Define research needs • Guide ag industry • Focus research results – Right product, rate, time, place • Guide management decisions – Technology adaptation

  47. Global Evaluation of Hybrid Maize -- On-Farm Testing -- • Research Sites • On ‐ Farm Sites – Institution location – Omission plots (N, P, K, S) – Long ‐ term – Partner with local agency or dealer – Monitoring capability – Field ‐ scale equipment • Crop – Adapted to local culture and • Soil (nutrients, water, erosion, etc.) technology • Environment (air, water) – Demonstrations and field days – Multi ‐ Nutrient interactions – Data collection protocol – Refine the science – Implement the science

  48. (Hypothetical Data) Data Analysis

  49. 100 Percent of annually attainable Intensive management Yield Gap maize yield (%) Average farmer practice 0 0 1 2 3 4 5 6 7 8 9 10 Time (years after start of long-term study)

  50. N 2 O-N NO 3 -N Soil C + per unit of yield, relative to farmer practice (%) NO 3 -N leaching / N 2 O-N emission / C loss 0 Average Official Intensive farmer recom- management practice, mendation - ample N, P, K

  51. Cost per yield unit Net return + Cost / profitability per yield unit, relative to farmer practice (%) 0 Average Official Intensive farmer recom- management practice, mendation - ample N, P, K

  52. Soil test K = low + Soil test P = low relative to farmer practice (%) Chang in maize yield, 0 Ample Ample Ample Ample Off. N Off. NPK NP NK PK ample NPK PK -

  53. EONR range Maize yield (Mg ha -1 ) Farmer practice 0 60% Off. Ample Off. N rate (kg ha -1 )

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