Harvesting pasture cropped oats on Winona with summer perennial grass emerging beneath the crop. Pasture Cropping. Profitable Regenerative Agriculture

Similar documents
Profitable regenerative Agriculture. Colin Seis

Perennial Cover Cropping Colin Seis

Dealing with sown pasture run-down

Dealing with sown pasture run-down

3. IMPROVING PASTURE MANAGEMENT

WHY GROW MEDIC? Training Kit No. 1

Cadiz French serradella : a new pasture variety for deep acid soils

Integrating pastures into farming systems soil health and the benefits to crops

Origin Winter Active Tall Fescue

Educational Farm Walk Aldinga 15 October 2016

Grain & Graze National Feedbase Project. Production vs ground cover tradeoffs in the Murrumbidgee region

IMPROVING PASTURES BY RENOVATION Ed Ballard,Retired Animal Systems Educator University of Illinois Extension

Soil Enhancement versus Maintenance of Yield. Case Study: Broad Acre Grain and Silage

Reducing Livestock s Winter-Feed Costs. Mark Landefeld Extension Educator, Agriculture & Natural Resources, Monroe County

Tower Summer Active Tall Fescue

Managing Upland Grazing to Restore Soil Health and Farm Livelihoods

Effective Integration of Livestock & Cropping. Simon Vogt Rural Directions Pty Ltd

Nutrilime. The solution for soil conditioning is here. Penrice Soda Holdings Limited Quarry & Mineral ABN Committed To Success

What is pasture? Pasture as a feed for stock

Biological Sweet Corn Trial Lowood Q 2009

SEED

NUTRIENT BUDGETING AND MANAGEMENT ON ORGANIC FARMS

tfirst Monitoring alternative fertilisers demonstration

Growing Cereal Rye to Increase Carbon and Prevent Wind Erosion Lilly Martin, Liebe Group, March 2015

Maintaining profitability in retained stubble systems on upper Eyre Peninsula

Winter Wheat To New Heights. Helena Elmquist, Odling I Balans

Cover Crops. Brendan Paul Connecting agri-science with farming

ROTATIONS ROTATION SCENARIOS

GROWERS GUIDE. to Soil Health.

27 July 2018 Dryland farming in New Zealand. Derek Daniell Masterton

Understanding Lucerne

COVER CROPS- A CLOSER LOOK STEPHANIE MCLAIN NATURAL RESOURCES CONSERVATION SERVICE; WORTHINGTON FIELD OFFICE

Cobra Balansa Clover. Trifolium michelianum

Cover Crops. Brendan Paul Connecting agri-science with farming

NEW FROM BARENBRUG AGRISEEDS

The following checklist provides a convenient framework for making accurate fertiliser decisions.

profit through knowledge

Farm businesses, wool production and biodiversity

This section provides useful information on the characteristics of soil and important soil management practices.

WHITBREAD Anthony (1), BLAIR Graeme J. (1), LEFROY Rod (2)

GRDC project code: CSA Keywords: Cover-crop, seed coat, financial risk. Take home messages

HIGHER SCHOOL CERTIFICATE EXAMINATION AGRICULTURE. 2/3 UNIT (COMMON) SECTION I (20 Marks)

Land management practice trends in Australia s northern and remote agricultural industries

Nitrogen Fertiliser- weighing up risk and return

Farming in Australia staying ahead of the game. Reece Curwen 2015 Nuffield Scholar

Biological Farming Roundtable Notes

Agriculture. Paper 1. Centre Number. Student Number. Total marks 70

Bean Hollow Grassfed. Improving Soil Health through Livestock and Pasture Diversity: A Farm Demonstration

February Mg Magnesium

14 FARMING PRACTICES Land preparation. - To control the growth of weeds; - To shape the seedbed (into ridges, beds, or mounds).

Sequestration Fact Sheet

International Research and Development. Designing a Crop Rotation Plan with Farmers

This presentation is sponsored by the Beginning Farmer and Rancher Development Program SUSTAINABLE AGRICULTURE

THE INTRODUCTION THE GREENHOUSE EFFECT

TALL FESCUE MANAGEMENT GUIDE

B.1.5 Sodic and acidic soils

Introduction Assignment

Managing rangeland goats in western New South Wales

Soil Fertility and Forage Availability. Travis Harper Agronomy Specialist University of Missouri Extension

Animal, Plant & Soil Science. D2-4 Conservation Tillage Practices

JANUARY Notes. Nutrient Management Tips

Pasture Management for Small Farms (Part 2) Article Provided By Bruce Nisley, Sherman and Wasco County Livestock Agent May 2001

PAGE 1 SOUTHERN AND WESTERN REGION

Nutrient management on organic cattle farms

2010 State FFA Crops Contest Written Exam

History. Grass Seed Production. Uses. Uses. Oregon Grass Seed. Environment Requirements 2/7/2008

Shade, Shelter and Fodder:

Economics of Grazing Cover Crops

The Potash Development Association Forage Maize Fertiliser Requirements

Livestock integration Vegetative cover/ reduction of tillage Legumes/nutrient catch crops Biodynamic preparations Crop rotation

Presentation by Mark Branson 2004 Nuffield Scholar. Using Precision and Conservation Agriculture to Improve Farm Profits and the Environment.

Steps to making efficient use of water

Grassland Ecosystem Function: Uplands

Long term effects of surface applied lime in the Woady Yaloak Catchment

FACT SHEET LANDHOLDER SERIES -PROPERTY PLANNING- Pasture & Grazing. Management

Conservation Agriculture Soil Health Matters

Agriculture and Society: Part II. PA E & E Standards 4.4

Interpreting Soils tests to build active soils w/cover crops

EARLY SOWING OF WHEAT

RESULTS OF 7 FERTILISER PROGRAMS ON CEREAL CROPS

Re-evaluating cover crops in semi-arid cropping in Australia

SUMMARY SPECIFICATIONS. Product Specifications and Application Guidelines for Compost Mulches for Orchard Production in NSW

1,700 beneficial insect species for every 1 pest species!

Resource Conserving Crop Rotation & Alternative Livestock Watering System

Red Clover an ideal tillage crop? Dan Clavin, Organic Specialist, Teagasc Athenry

High Production Annual Forage in Perennial Systems

AARHUS UNIVERSITY. Food production and bioenergy, land allocation, land use with less environmental impact. Professor Jørgen E.

Weed management in the southern region mixed farming systems Strategies to combat herbicide resistance. Charles Sturt University

germinal.com Catch Crops The benefits, management and their role in compliance

Outline Delta/DF&WT Overview Should I Cover Crop? Winter Cover Crop Varieties Challenges and Opportunities

Using cover crops to adapt to climate change. Jason Kaye, with Charlie White, Mary Barbercheck, Armen Kemanian, William Curran, and Dave Mortensen

Three Principles to Graze By

COMPARISONS OF SHEEP AND GRAIN PRODUCTION FROM SYSTEMS OF PASTURE AND OATS. A. AXELSEN,* F. H. W. MORLEY* and M. CROUCH*

PROFITABILITY AND ECONOMICS OF,. _ < CROPPING.

The Potash Development Association Why Maintain Soil Potash Reserves?

Farming Systems. These icons indicate that teacher s notes or useful web addresses are available in the Notes Page.

Long Term tillage and. Merriwagga FARMERS ADVANCING RESEARCH

Soil Management Basics. New Farms for New Americans 2010

GrassGro 3 easier, faster analysis of grazing systems

Karradale Trading 2018 Year in Review. Anna-Lisa & Craig Newman Varley/Lake King SE Hyden Mixed Broad Acre Agzone4

Transcription:

Harvesting pasture cropped oats on Winona with summer perennial grass emerging beneath the crop Pasture Cropping Profitable Regenerative Agriculture Colin Seis Concerns about declining profitability, increased input costs, poor soil structure, dry-land salinity, soil acidification and increasing numbers of herbicide resistance weeds have prompted over 2000 farmers throughout eastern, southern and Western Australia to adopt Pasture Cropping. The year-round ground cover created by using pasture cropping techniques results in reduced wind and water erosion, improved soil structure, reduced weed numbers, increased nutrient availability and increased levels of soil organic carbon. The soil health benefits from plant root exudates and a large increase in organic matter derived from a mix of shallow rooted crops and deep-rooted perennial pastures are numerous and include large improvements of soil microbiology. In an era when dryland salinity, soil acidification and loss of soil carbon are having increasing impacts on the productivity and profitability of farming enterprises, pasture cropping is providing an option for addressing these issues. Colin Seis and his son Nicholas own and run the 840 ha (2000-acre) farm Winona which is situated north of Gulgong on the central slopes of NSW Australia. The Seis family is one of the early pioneering families in the Gulgong district and has been farming and grazing there since the 1860s. Winona runs around four thousand, fine wool merino sheep, which includes a 60 year old Merino Stud and Pasture crops around 200 ha (500 acres) annually to oats, wheat and cereal rye. Winona also runs one of the largest kelpie working dog studs in the world and sells dogs and pups to many countries in North and South America, Europe and Scandinavia as well as all states of Australia. Colin has a published book on training working dogs ( Working Dogs ), which is sold internationally. He has also conducted dog training clinics internationally in the USA, Norway and Sweden and in most states of Australia.

Colin is the pioneer - developer of Pasture Cropping which is a method of sowing cereal crops directly into perennial pastures. It combines grazing and cropping into a single land use method where each one benefits the other economically, environmentally and ecologically. Colin Seis and Daryl Cluff pioneered pasture cropping in 1993 and since that time, on his farm Winona, Colin Seis has spent much of his time perfecting this technique and due to this it is now possible to grow many different types of winter and summer growing crops, without destroying the perennial pasture base. It may appear that Pasture Cropping is simply a cropping technique. It is much more than that. Pasture Cropping is the combining of cropping and grazing into one land management method where each one benefits the other. The potential for profit and environmental health, including increasing soil carbon are enormous and a lot of farmers in many regions of Australia are showing this to be the case. There are now over 2000 farmers pasture cropping cereal crops into summer (C4) and winter (C3) perennial native grass in NSW, South Australia, Victoria Queensland, West Australia and Tasmania as well as other areas around the world. The original concept in 1993, of sowing crops into a dormant stand of summer growing (C4) native grass, like red grass (bothriochloa macra) was thought to be a very inexpensive method of sowing oats for stock feed. This certainly turned out to be true, but it was quickly learnt that there were many side benefits and that it was only touching the surface of a land management technique that is proving to be revolutionary. The grazing crops performed so well that it was obvious that good grain yields could be achieved as well. It was also learnt that sowing a crop in this manner stimulated perennial grass seedlings to grow in numbers and diversity. This produces more stock feed after the crop is harvested and totally eliminates the need to re-sow pastures. Conventional cropping methods require that all vegetation is killed prior to sowing the crop and while the crop is growing. From a farm economic point of view the potential for good profit is excellent because the cost of growing crops in this manner is much less than conventional cropping methods. The added benefit in a mixed farm situation is that up to six months extra grazing is achieved with Pasture Cropping compared with the loss of grazing due to ground preparation and weed control required in traditional cropping methods. Other benefits include large recruitment of perennial plant numbers and diversity of the pasture following the crop. This means that there is no need to re-sow pastures, which can cost from $100 to $150 per hectare. The technique is also being used to restore native grasslands over much of Australia. There is growing evidence, anecdotal and scientific, to support improvement in soil health, improved water use efficiency and general improvement in ecosystem function. By retaining perennial grass in grazing and cropping systems and having 100% ground cover 100% of the time, large increase in plant biomass can be achieved when compared to conventional methods. This biomass when combined with plant root exudates and soil microbes has been shown to dramatically increase soil carbon levels and improve the soil food web. On Winona soil carbon levels have increased by over 200% during a 10 - year period. Independent studies at Winona on have found that pasture cropping is 20% more profitable than conventional agricultural practices, this is coupled with great environment and ecological benefits that will improve the soil and regenerate landscapes. Australia s main scientific and research organization (CSIRO) have also taken Pasture Cropping seriously investing in a three-year trial project that was conducted by Dr Sarah

Bruce on Winona. The project investigated many aspects of Pasture Cropping and documented a wide range of positive outcomes, including increased water use efficiency, improved nitrogen use efficiency and improved plant biomass. The CSIRO have also been involved in soil carbon testing on Winona which also showed very large increases in soil carbon. On farm trials have been conducted in NSW, Queensland, Victoria, Tasmania, South Australia and Western Australia. In these areas good crop yields have been achieved while stimulating perennial species, improving soil health and increasing plant biomass, which will increase soil organic carbon levels over time. Until recently Pasture Cropping has been practiced with the use of chemicals to control weeds, and conventional fertilizers to manage soil chemistry. But over time, as Pasture Cropping stimulates improvement in soil health, with increase in soil organic carbon levels and improvement in ground cover, many crops are now being sown without these inputs. Once complete ground cover is achieved, the Pasture Cropping technique can be used to grow organic crops. This can be done without using a plough or herbicide to destroy the existing pasture. Soil and Pasture changes on Winona : After 50 years of high input agriculture, Colin Seis 2000 acre farm Winona, had become degraded, dependant on high inputs and lacking production and profit as well as having ongoing problems of insect attack and fungal disease in crops. The granite soil on Winona had become compacted, lacking structure, acidic, high in aluminum and had organic carbon levels below 1.5%. The top soil had declined to less that 100 mm (4 inches) deep and the sub soil had become sodic. The poor structured soil allowed very little water to infiltrate and consequently very little nutrient cycling. Small saline areas were first noticed on Winona in the 1920 s and by the 1970 s the saline area had expanded to cover over 100 acres. Over a 50 year period, introduced pastures like sub clover and rye grass, were sown annually in an effort to maintain production. These pastures were maintained with increasing amounts of fertiliser to a point where 125 kg/ha of superphosphate (112 lbs/acre) was applied to pastures annually and 100 kg/ha of DAP applied to annual crops like wheat and oats. The advice in 1970 to apply 200 kg/ha of superphosphate to pastures was thankfully, not adopted. From the early 1990s Colin Seis started to look for other ways of farming and grazing on Winona, that did not require high levels of fertiliser and pesticides to maintain, and would restore the farm to a regenerative grassland. The restoration of Winona was achieved with a combination of pasture cropping time control grazing and reduction of fertilizers, fungicides and insecticides. Pasture Cropping combined with time control grazing changed Winona from a farm dominated by annual plants that required high levels of fertiliser to maintain, to a grassland dominated by native perennial plants that improved soil structure, increased organic carbon levels and increased soil nutrient cycling. The data and photo below are the result of using these techniques The University of Sydney, Australia, conducted the following research on Winona and a neighbors adjoining paddock to evaluate the effects of different land management techniques on soil and ecosystem function. The Winona paddock was pasture cropped in 2000 (wheat), 2004 (oats) and 2009 (cereal rye). A large mob of merino ewes is time control grazed on the area with a graze period of 2-3 days and allowed to recover from the graze for 90 120 days before re-grazing. This grazing technique has been used over all of Winona for over 20 years. The large mob of sheep was also used to prepare the paddock pre pasture cropping by mulching and manuring the grass.

The Neighboring paddock was sown to oats in 2000, 2004 and 2009, using traditional disc ploughing, scarifying once and cultivating twice. The sheep are grazed using traditional set stock grazing (no rotation). The only fertiliser applied to either of the paddocks during the last 10 years has been with the crops. 40 kg/ha DAP on Winona and 60 kg/ha DAP on the neighboring farm. No lime has been applied to either farm. The results of this management technique are: Winona s paddock is dominated by 82.9% native perennial grass species. (82.9% compared to 11% on the neighbors) The neighboring paddock is dominated by 88.1% annual weed species. Improved ecosystem and landscape function on Winona. Production has increased, (double) with the number of sheep carried on Winona at 8 dse /ha compared with 3.7dse/ha on the adjoining paddock. Crop yields on both areas are similar Improved water infiltration Improved nutrient cycling. Almost double soil nitrogen Soil microbial counts showed that the Winona soil had significantly higher counts of Fungi (46% increase) and actinomycetes bacteria (over 100% increase) Note: The above data is the result of a communities in landscape project by Peter Ampt, Rebecca Cross, and Sarah Doornbos from the University of Sydney NSW in 2010. The soil photo and samples (below) were taken 15 meters apart and a half meter (500mm) deep on 28 th September 2010 The soil on the left is from Colin Seis farm Winona the other sample from the neighboring farm. (Fence line comparison) (The same paddocks as the data above) The following increases in soil minerals have occurred on Winona: Calcium 227%, magnesium 138%, potassium 146%, sulphur 157%, phosphorus 151%, zinc 186%, iron 122%, copper 202%, boron 156%, molybdenum 151%, cobalt 179% and selenium 117% The average increase in total nutrients in the Winona soil is 162 % E.g. Calcium: 12768 kg/ha on Winona and 4602 kg/ ha on the neighboring farm (277% change) Phosphorus: 837kg/ha on Winona and 554 kg/ha on the neighboring farm (151% change) Soil organic carbon has increased by 203.5% over the 10 year period. There is 90.1 ton/ha on Winona, and 43.41ton/Ha on the neighboring farm which is equivalent to 168.5tonnes of CO2/Ha sequestered to a depth of half a meter of which 78% of the newly sequestered carbon is in the non labile (humic) fraction of the soil.

Top soil has increased from 100mm (4inches) to almost a half meter (about 18 inches) and water holding capacity increased by 200% or 360,000 lt/ha Gross Margins Pasture Cropped Traditional Crop For many years agriculture has concentrated on production as a measure of the amount of money made. Although production or the amount of product produced is important, it is not necessarily an indication of profit. When our farms start to function in an ecologically sound manner a lot of inputs that have previously been seen as necessary like insecticides and fungicides and excessively high rates of fertiliser can be reduced and in some instances can be eliminated altogether. When these inputs are reduced there does not need to be a reduction in profit or production, but it is important not to reduce inputs until farms and individual paddocks are functioning well other wise production and profit can be compromised. The chart shows the difference in money spent today compared to 20 30 years previously when Winona was being managed with a high input agricultural system. The costs have been converted to Australian 2011 values 1960-1992 1993-2011 Difference Superphosphate $51,000 0 $51,000 on pasture Sheep veterinary costs $12000 $7000 $5000 Pasture seed and pasture establishment Cropping Expenses 200 ha (500 acres) Dollars saved on Winona annually (2000 acres) $5500 nil $5,500 $40,000 $20,000 $20,000 $81,500 The cost of production on Winona (sheep, wool and grain) is $81,500 less annually for inputs like fertilizer, pesticides and veterinary expenses. Combined with less expenses Winona is generating more income, run more livestock, crop grain yield is similar, while increasing soil carbon and soil minerals. This is all being achieved while the grassland on Winona is being regenerated and generating more income from the sale of native grass seed. The benefits of pasture cropping are way beyond the short-term crop yields. They contribute to the development of vitally needed topsoil, water management, stabilizing the many forms of soil erosion, controlling weeds, increasing pasture plant numbers and diversity as well as great potential for increasing soil carbon levels and improving soil health. It gives farmers and graziers a tool to effectively manage their farms whilst individually contributing to a healthier environment. Colin Seis Winona Gulgong NSW 2852 Australia Ph 02 63 759256 Email: colin@winona.net.au