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Economic Returns, Organic and No-Till Rotations
Presentation given by David Buschena, Montana State University
The Setting
- There is great interest in alternative cropping systems including
no-till and organic production
- It is difficult to evaluate net returns from these alternative systems.
- Net returns depend on inputs, management, land and uncontrollable
factors.
- Plot studies attempt to control for differences in inputs, land quality,
management and general climatic conditions.
General Points for an Organic Production System
- These systems can be quite complex, utilizing green manure plow-down
annual crops such as peas, perennials such as alfalfa, and small grains.
- The rotation and crops utilized are tailored to the particulars of the
field, with multiple goals of improving the soil, controlling weeds,
stabilizing moisture, generating revenues, and
- It is difficult to compare revenues of organic systems to those of
conventional systems since they often use non-traditional crops with thin
markets.
- Tillage costs appear to be higher in organic relative to conventional
systems.
- Organic HRS and HRW yields appear to be comparable to county averages.
- Price premiums are vital to economic success for organics.
- Per acre time requirements appear to be higher, with typically fewer
total acres
Method 1: Comparative Net Returns For A Chouteau County Organic Farm
- Production and price history in an established organic crop rotation
- Profitability estimates relative to county averages from 1993-2000).
- Net returns to this organic system compare favorably to estimated
returns based on county average yields and prices.
- Favorable returns due to both lower operating costs and organic price
premiums.
- In recent drought years, price premiums were very important to the
organic operation.
Five Year Rotation Schedule: Organic Versus Conventional Farming Systems
Chouteau County Organic Farm
Year |
Field 1 |
Field 2 |
Field 3 |
Field 4 |
Field 5 |
1 |
Sunflower |
Green Manure Peas |
Spring Wheat |
Barley |
Mechanical Fallow |
2 |
Green Manure Peas |
Spring Wheat |
Barley |
Mechanical Fallow |
Sunflower |
3 |
Spring Wheat |
Barley |
Mechanical Fallow |
Sunflower |
Green Manure Peas |
4 |
Barley |
Mechanical Fallow |
Sunflower |
Green Manure Peas |
Spring Wheat |
5 |
Mechanical Fallow |
Sunflower |
Green Manure Peas |
Spring Wheat |
Barley |
Conventional Farm Number 1 (Chemical Fallow)
Year |
Field 1 |
Field 2 |
Field 3 |
Field 4 |
Field 5 |
1 |
Spring Wheat |
Chemical Fallow |
Spring Wheat |
Barley |
Chemical Fallow |
2 |
Chemical Fallow |
Spring Wheat |
Barley |
Chemical Fallow |
Spring Wheat |
3 |
Spring Wheat |
Barley |
Chemical Fallow |
Spring Wheat |
Chemical Fallow |
4 |
Barley |
Chemical Fallow |
Spring Wheat |
Chemical Fallow |
Spring Wheat |
5 |
Chemical Fallow |
Spring Wheat |
Chemical Fallow |
Spring Wheat |
Barley |
Conventional Farm Number 2 (Mechanical Fallow)
Year |
Field 1 |
Field 2 |
Field 3 |
Field 4 |
Field 5 |
1 |
Spring Wheat |
Mechanical Fallow |
Spring Wheat |
Barley |
Mechanical Fallow |
2 |
Mechanical Fallow |
Spring Wheat |
Barley |
Mechanical Fallow |
Spring Wheat |
3 |
Spring Wheat |
Barley |
Mechanical Fallow |
Spring Wheat |
Mechanical Fallow |
4 |
Barley |
Mechanical Fallow |
Spring Wheat |
Mechanical Fallow |
Spring Wheat |
5 |
Mechanical Fallow |
Spring Wheat |
Mechanical Fallow |
Spring Wheat |
Barley |
Comparing Chouteau County Organic Farms Costs and Revenues versus a Typical
North Central Montana Grain Farm
Costs
|
1998 Spring Wheat after Fallow |
1999 Barley Recrop |
2000 Fallow |
Organic |
Conventional |
Organic |
Conventional |
Organic |
Conventional |
Seed and Treatment |
6.9 |
6.9 |
4.75 |
4.75 |
- |
- |
Herbicide |
- |
- |
- |
- |
- |
- |
Grass |
- |
12 |
- |
12 |
- |
- |
Broadleaf |
- |
4 |
- |
4 |
- |
- |
Chemical Fallow |
- |
- |
- |
- |
- |
4.21 |
Application |
- |
4 |
- |
4 |
- |
4 |
Fertilizer |
- |
15.31 |
- |
11.93 |
- |
- |
Total Operating Costs |
18.91 |
55.81 |
13.36 |
49.60 |
6.82385 |
12.21605 |
Revenues
|
1998 Spring Wheat after Fallow |
1999 Barley Recrop |
2000 Fallow |
Organic |
Conventional |
Organic |
Conventional |
Organic |
Conventional |
Protein |
12 |
14 |
- |
- |
- |
- |
Yield |
29.6 |
31 |
20.5 |
32 |
- |
- |
Price per Bushel |
5.50 |
3.61 |
4.75 |
1.10 |
- |
- |
Total Revenue |
162.8 |
111.91 |
97.38 |
35.20 |
- |
- |
Net Returns above Operating and Machinery Ownership |
143.89 |
56.1 |
84.02 |
-14.40 |
-6.82385 |
-12.21605 |
Expected Net Returns above Operating and Machinery
Ownership |
121.62 |
33.83 |
61.46 |
-36.96 |
-15.75885 |
-15.45605 |
Expected Net Returns above Operating and Machinery
Ownership *If no price premium (SW Price=3.78) |
50.87 |
33.83 |
-13.37 |
-36.96 |
-15.13385 |
-15.45605 |
Labor and Management Hours
|
1998 Spring Wheat after Fallow |
1999 Barley Recrop |
2000 Fallow |
Organic |
Conventional |
Organic |
Conventional |
Organic |
Conventional |
Production |
0.21 |
0.21 |
0.21 |
0.21 |
0.1 |
0.05 |
Marketing |
0.01 |
0.005 |
0.01 |
0.005 |
- |
- |
Scouting |
0.14 |
0.06 |
0.17 |
0.06 |
0.08 |
0.08 |
Total Hours |
0.36 |
0.275 |
0.39 |
0.275 |
0.18 |
0.13 |
Net return excluding labor and management dollars was higher for organic
farming than for either type of conventional farming.
Plot Studies
- Ongoing research at Montana State University to study organic, no-till,
and conventional rotations
- Sites in Bozeman and near Moore, Montana.
- We follow a farm through the transition period from conventional to
either organic or to no-till.
- Time Period 2000-Present. Weather challenges were severe.
Five Rotations at Bozeman
- Organic: alternate year legume-cereal (Winter pea fallow HRW lentil
barley)
- No-Till Winter: alternate year broadleaf-cereal (Winter pea HRW
dormant canola HRW)
- No-Till Spring: alternate year broadleaf-cereal (Spring pea HRS
spring canola HRS)
- No-Till Diverse: cool-warm, broadleaf-cereal stacked 2+2 (Spring pea
HRW corn sunflower)
- No-Till Continuous (Wheat HRS HRW)
Supporting Information
- Parallel with plot studies, interviews of producers in Central and
Northcentral Montana.
- Production practices included organic, and no-till.
- Information included yield, rotational adjustments, crop loss, and
erosion levels.
Findings
- Organic producers faced numerous challenges due to wind erosion, with
damage varying considerably due to terrain and cropping system
- No-till producers typically avoided wind erosion
- Organic and no-till producers typically responded to drought by
increasing fallow acres
Last Modified:
07/30/2007
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