Introduction. Farm Details

Similar documents
eprofit Monitor Analysis Tillage Farms 2016 Crops Environment & Land Use Programme

Precision Farming. What it is and how to implement it. Tim Chamen, CTF Europe (with plagiarization of some commercial offerings!)

Using Soil Tests for Soil Fertility Management

Profit from crop & farm analysis

Soil structure and Field Traffic Management. Tim Chamen CTF Europe

Modeling fuel use for specific farm machinery and operations of wheat production

Precise Application of Fertiliser

Soil structure, management and effect on nutrient availability and crop production

Crop Production Costs

Managing Soil Fertility. Teagasc Soil Fertility Management Spring 2015

Kansas Custom Rates 2016

AGENDA. Global Transformation. Precision Agriculture and its Challenges. Overcoming the Challenges. The Right Data. Data Science

3 Organic Matter, Soil Structure and Crop Yield

Soil Fertility Management The Optimum Nutrient Balance. Stan Lalor Teagasc, Johnstown Castle. ASA Conference 20 Mar 2014, Portlaoise

Teagasc Crops Forum Shay Phelan 07/9/2016

THE STATE OF MECHANIZATION IN GHANA WITH PARTICULAR REFERENCE TO THE RICE SECTOR

Precision Agriculture. John Nowatzki Extension Ag Machine Systems Specialist

Managing Soil Fertility: Targets to maximise production. Dr David P. Wall Teagasc, Johnstown Castle, Co Wexford

The benefits of getting Soil Fertility Right

Tillage Practices and Sugar Beet Yields 1

Satellite Navigation Science and Technology for Africa. 23 March - 9 April, John Deere Presentation

GPS/GIS Applications for Farming Systems

Fertiliser Application

Cover Crops 101: Advice for Growers

Sustainability Trial in Arable Rotations (STAR project): a long term farming systems study looking at rotation and cultivation practice

Factors that influence crop selection

Benchmark Sampling to Monitor Soil Fertility and Assess Field Variability Problem Background and Research

Agricultural Science Past Exam Questions Crop Production Higher Level

The LIFE+ project Demeter. Integrated and sustainable soil management to reduce environmental effects FLEMISH LAND THE LIFE+ PROJECT DEMETER AGENCY

Soil Management Practices for Sugar Beets Grown on Organic Soils

Status of Custom Hiring System of farm Machinery in Sri Lanka. Eng. M. H. M. A. Bandara Chief Engineer Department of Agriculture Sri Lanka

Optimizing Strip-Till and No-Till Systems for Corn in the Biofuel Era

Global warming potential of Swiss arable and forage production systems

Mechanizing Small and Marginal Farmers

2016 North Idaho Forage & Grazing School: Economics of Grazing Cover Crops

Cropping System Nutrient Management

All farmers subject to greening. Crop Diversification Permanent grassland Ecological focus area (EFA)

The Potash Development Association Why Maintain Soil Potash Reserves?

Estimating the Value of Crop Residues

Greenhouse gases How to reduce emissions

EASY Efficient Agriculture Systems. Precision farming

Can satellite data beat common sense of farmers? The agricultural sector, a high tech market, many opportunities for the space sector.

Economics of Precision Farming

The Grassland & Tillage Product Range

Precision Farming s Global Future

Conservation Agriculture: A precision farming tool for smallholders

The Future of Precision Farming Richard Godwin

National Farm Survey. Thia Hennessy, Brian Moran, Anne Kinsella, Gerry Quinlan. ISBN

Crop Rotations Under Irrigation. Irrigation Agronomy Workshop April 9, 2013 Outlook, SK Gary Kruger PA CCA Irrigation Agrologist

1. PRECISION SOIL PREPARATION

Planting after fallow: What is the fallow syndrome and how do I manage it? Joel Ransom

TALKING CTF LEADERS IN CONTROLLED TRAFFIC FARMING

Mid-conference field day in Boigneville and Fontainebleau Wednesday, the 26 th of September 2018

Chris Thoreau March 3, 2012

THE INTRODUCTION THE GREENHOUSE EFFECT

Effect of impervious layers on soil water content. A practical demonstration of drainage constraints

Projected PA Adoption 1998

Vertical Tillage: Does it Help the Transition to No-till?

Unit E: Basic Principles of Soil Science. Lesson 8: Employing Conservation Tillage Practices

Controlled Traffic Farming (CTF) An Introduction. What is CTF?

Controlled Traffic Farming

Makin and Usin Management Zones A Case Study

Nutrient Management Conference Feb. 7, 2017, St. Cloud, MN Rick Gilbertson Pro Ag Crop Consultants, Inc.

Foliar Nutrition: an Extra Bonus for the Rice Grower. Yoav Ronen, Joshua Golovaty and Eran Barak, Haifa group

FARM MECHANIZATION. AG ENGG 243 Lecture 1 1

The Potash Development Association Forage Maize Fertiliser Requirements

Adoption and Use of Yield Monitor Technology for U.S. Crop Production

Farm Income Review 2014

2 Calculating the cost of your feeds

SOIL QUALITY AND CROP PRODUCTION. Dick Wolkowski Department of Soil Science University of Wisconsin

Estimated Costs of Crop Production in Iowa 2003

Benefits of VRA technology for potato production based on Mole soil maps

Grassed Waterway Improvement and Gully Restoration

The estimated costs of corn, corn silage,

Cover Crops: Potential Role in Nutrient Management & Establishment Methods

Carsten Hühne 6th of November, 2012 Page 1 of 37

Estimated Costs of Crop Production in Iowa 2006

Fertilizing Corn in Minnesota

WE RE ABOUT DELIVERING THE SOLUTION

Basic Principles of Liming. John Peters UW Soil Science Department

EASY Efficient Agriculture Systems ISARIA CROP SENSOR

IS FALL TILLAGE FOLLOWING SOYBEAN HARVEST NECESSARY? 1/

Custom Rates Survey, 2013

The estimated costs of corn, corn silage, soybeans,

The estimated costs of corn, corn silage,

Estimated Costs of Crop. Production in Iowa File A1-20 The estimated costs of corn, corn silage, soybeans, Ag Decision Maker

Manure Land Application and Soil Health Indicators

Chapter 7.2. AFFIRM and Alberta MMP Software. learning objectives

The estimated costs of corn, corn silage,

Sustainable Pasture Management Practices in Tajikistan

Muskoka Lime Trial Project Muskoka SCIA Major Project (Interim Report)

University of Minnesota West Central Research and Outreach Center, Morris MN

Teagasc National Farm Survey 2016 Results

Double production by 2050

ROTATIONS ROTATION SCENARIOS

Minnesota Wheat Check- Off

2016 Southern Consultants Meeting High Yield Soybean Production

Enterprise Budget. Sweet Corn, Willamette Valley Region. EM 8376, Revised August 1995

P 2 O 5, tonnes. Beausejour Steinbach Winkler Portage Brandon Melita Roblin NW Interlake. % testing low

Soil firmness is critical for successful stand establishment in smallseeded legumes and grasses primarily to provide _seed-soil water

Transcription:

Introduction Farm Details Kevin and Una Nolan 465 hectares 7 ha located here Fragmented holding Land leased Share Farming Different Conacre methods Operating as Sole Trader Total Labour 2.5 FTE Innovations on the Farm - Nolan Farming brand - Precision Farming - Share Farming - Machinery sharing - Grain storage - Farmer of the Year 214 Issues and Direction Scale & Land Tenure Crops/Markets/Premium Prices Rotations, soil quality & org matter Field operation recording Use of GPS technology and soils Alternatives income streams Schemes GLAS, Tillage TAMS II

Yields and Performance 12.5 Winter Wheat t/ha 12 Winter Barley t/ha 1 7.5 T/ha 5 2.5 212 213 214 215 216 Kevin NFS All 1 8 6 T/ha 4 2 212 213 214 215 216 Kevin NFS All /ton 2 175 15 125 1 75 5 25 W. Barley Common Costs/ton 214 215 216 Kevin NFS All /ton 1 8 6 4 2 SQUARE How? W. Barley Common Profit/ton Field campaign 16 grassland and tillage sites over three years Farmer surveys to assess ranges in soil management practices. 214 215 216 Kevin NFS All Key Points - Common Profit/Ton well above National Farm Survey average - Common Profit does not include Land lease, Labour and Interest

Precision Equipment on the Farm Machines -John Deere Universal auto steer kit SF2 receiver (American & Russian satellites) Accuracy of +/- 5 cm Removable steering wheel for any machine John Deere tractors & Combine Benefits 1. Necessity on larger scale 2. Accuracy of use 3. Support getting better 4. Ease of use Other Machines using GPS Guidance Amazone Trailed Spreader (ZGB Ultra) Variable rate spreading capable. SQUARE How? Horsch Trailed Sprayer Field campaign (Leeb GS 6) 16 Auto shut off grassland and tillage CLAAS Combine -sites telematics over three years Farmer surveys to assess Yield recording ranges in soil Machine outputmanagement recorded practices. Built in RTK auto steer on the Fendt tractor. Challenges 1. Initial costs 2. Loss of signal 3. Device Connectivity 4. Occasional loss of data Next steps: Link Soils Yield Maps Variable rate application

25 Area 2 Area 1 Carlow Field Maps Teagasc measurements 217 Consulted with the farmer Multiple measurements within each zone Seed depth issue Big variations between zones & within zones Average yield 217-1. T/ha 216 Area 4 Area 3 Area 2 Area 1 Area Tiller 217 Results Head *Spot Diff. no./m 2 no./m 2 yield % T/ha 1 11 68 15.4-3.75 2 92 737 16. 3 62 12.4-22 4 168 692 13.8-14 * Yields recorded are hand sampled yields

Teagasc Crop BETTER Farm Cappoquin Estate, Waterford Farming 233 ha (578ac) Divided into 4 farms (1Km) Land: medium soil type Labour unit: John Collins + part time W. Wheat, W. Barley, OSR, Oats (porridge) spring barley and maize (for sale) Challenges for future Labour Securing skilled part time labour Matching machinery to labour Fixed costs: Matching land base to machinery Land rental options Reduce production costs

Winter Wheat Performance 12 Yield t/ha 2 Common Costs per ton 11 175 t/ha 1 9 8 7 6 5 213 214 215 216 15 125 1 /t 75 5 25 213 214 215 216 Cappoquin All NFS Cappoquin Est. All NFS 8 7 6 5 4 /t 3 2 1 Common Profit per ton 213 214 215 216 Key Points All 1 st wheat Consistent performance Returns higher then average Cappoquin Est. All NFS Common costs exclude land rental, labour and interest

Precision Ag on the Farm History on Farm Early 199 s Crop Records on excel 1995/96 Yield monitor 1997 Otimix Crop Recording Programme 25 Farmade + mapping 29 to Present Gate keeper with mapping 211 Yara N Sensor Due to Organic Matter 214 Updated Yield monitor Other Precision Technology Sprayer (GPS with full auto section control) Amazone Spreader (variable rate capability) But.. Auto steer (Demo) But Benefits 1. Necessity on larger scale 2. Accuracy of use 3. Support getting better 4. Input saving? Challenges 1. Initial costs 2. Complex but.. 3. Time consuming? 4. Occasional loss of data

Waterford Field Maps Headland Area 1 & 2 top of field Area 3 & 4 bottom of field Area Tiller Head *Spot no./m2 no./m2 yield Diff. % T/ha 1 856 446 14.8-5.7 2 843 454 13.2-16 3 821 482 15.7 4 813 488 14.1-1 217 Yield Map * Yields recorded are hand sampled yields 216 Yield Map

Introduction Farm Details Derek Keeling (father and son) 39 hectares Fragmented holding Owned 4 divisions (12 miles) Land rotation (potatoes) Conacre (Small area) Total Labour 4 FTE High input high output farm Issues and Direction Scale & Land Tenure Crops/Markets/Premium Prices Innovations on the Farm Labour availability Drying & storing grain for 3 years Have used liquid urea as main source of nitrogen Has GPS capability Yield recording (Low tech) Use records for decision making Use rotation for more 1st wheats Field operation recording Use of GPS technology and soils Schemes TAMS Role of organic manures Where do you stop spending?

Yields and Performance 12 Winter Wheat t/ha 12 1 1 8 8 T/ha 6 T/ha 6 4 4 2 2 214 Derek 15 215 NFS All 216 Common Costs/ton 216 5 4 1 3 /ha 75 5 214 Derek 125 /ha Winter Barley t/ha 2 215 NFS All 216 SQUARE How? Common Profit/ton 216 Field campaign 16 grassland and tillage sites over three years Farmer surveys to assess ranges in soil management practices. 1 25 Wheat Derek Barley NFS Wheat Derek Barley NFS Key Points - Common Profit/t well above National Farm Survey - Common Profit does not include Land lease, Labour and Interest

Identifying Variation Farmer Field observations Identified the different zones Historical information Historical Maps to confirm variation Crop observations Plant counts Head counts Pot. Yield All individual trailers weighed and yields recorded

Dublin Field Maps Winter Barley Area 1 Area 2 Area 3 Av. yield / ha; 1.77t Winter Wheat Area 2 Area 1 Area 1 Lower than average yield Area 2 Best part of the field Area 3 Needs two cultivations Area Tiller no./m2 Head *Spot yield Diff. T/ha no./m2 % 1 155 942 11. -8.3 2 1442 12 12. 3 113 997 11.2-6.6 Area 1 Best part of field Area 2 Poorer yielding Area 3 Low lying Area Tiller Head *Spot yield Diff. T/ha* no./m2 no./m2 % 1 678 51 18.8 2 461 354 14.8-21 3 626 387 14.4-23 Area 3 Av. Yield / ha; 1.72t * Yields recorded are hand sampled yields

Understanding Field Variability Tool Box Field Knowledge/ Yield Maps Soil Analysis Soil Texture / Type / Drainage Crop Walking Soil Structure (VESS) Soil Examination

Yield Maps Zone 1 Soil Type Loam Well drained Soil Fertility VESS - ph 6.1, P - 4, K 3, SOM 7% 14.8t/ha 18.8t/ha ph 5.7, P - 2, K 4, SOM 6.6% Low Zn Plant low in P 14.2t/ha Zone 2 Soil Type Loam Well Drained Soil Fertility VESS - Field Yield 1.7 t/ha Zone 3 Soil Type Clay Loam Soil Fertility Poorly Drainage VESS - ph 6.1, P - 3, K 3, SOM 8.4% Dublin

Yield Maps Zone 3 Soil Type Sandy Loam Soil Fertility Poorly Drainage VESS - ph 7.6, P - 4, K 1, SOM 7% Low Zn, Plant Low P, Mn 13.8t/ha ph 7, P - 4, K 2, SOM 4.9% 12.4t/ha 15.4t/ha Zone 2 Soil Type Sandy Loam Well Drained Soil Fertility VESS - Field Yield 1 t/ha Zone 1 Soil Type Sandy Loam Soil Fertility Poorly Drainage VESS - ph 6.4, P - 3, K 2, SOM 4.8% Carlow

Yield Map Zone 4 14.1t/ha Soil Type Loam Well drained Soil Fertility VESS 1.8 ph 6.2, P - 1, K 2, SOM 4.1% Field Yield t/ha Zone1 14.8t/ha Soil Type Sandy Loam Well Drained Soil Fertility VESS - 2.6 ph 6.3, P - 2, K 2, SOM 4.1% Zone 2 13.2t/ha Soil Type - Loam Well Drained Soil Fertility VESS - 2.2 Zone 3 15.7t/ha Soil Type - Loam Well Drained Soil Fertility VESS - 1.9 ph 5.9, P - 2, K 2, SOM 4.2% ph 6.4, P - 2, K 2, SOM 4.2% Waterford

BETTER FARM PROGRAMME Benefits of Organic Manure on Tillage Farms Manure Type Available Nutrients (units) Value N P K Pig slurry (1,gal) 19 7 2 25/1,gal Cattle Slurry (1,gal) 6 7 32 2/1,gal Broiler Manure (ton) 11 12 24 28/t Layer Manure (ton) 23 11 24 32/t SMC (ton) 3 3 17 11/t Efficient use comes from Applying to low fertility soils / SOM Match manure type to crop Use high N manure in spring Mix well / spread evenly & accurately Incorporate within 3 to 6 hours Other Benefits Organic matter / Org N Cu, Mn, Zn, Mg, Ca, S Feeding the soil life Soil structure improvements Test manures & adjust N, P & K Cost effective way to build soil fertility

Managing Variability Determine Cause (Toolbox) Categorise: Can we correct it? Can we manage it? Do we leave it alone? Yield stability Can vary from year to year Often soil moisture related Very difficult to manage

Managing Variability Fixable: Nutrient deficiency: Apply nutrient Spatial weed problems: Herbicide / Cultural Challenging Soil compaction Subsoiling - only in conjunction with plan Change headland management Change cropping Control traffic: timing and ground-pressure Soil type: e.g. areas of light texture Match crops: e.g. avoid beans if large areas Realistic yield expectations Spare inputs

Which Approach? Impact on Wheat margin 8t 1t 3 Margin ( /ha) 2 1 Avg yield Std inputs Low Yield Std Avg Yield High Avg yield Extra N Low yield High -1-2 Variable Yields Without action -3 Low: Managed approaches