Back Issues

If you would like a printed copy of any of our back issues, then they can be purchased on Farm Marketplace. You can also download the PDFs or read online from links below.

  • How To Start Drilling For £8K

    Clive Bailye’s seed drill of choice is his 6m John Deere 750A , which has been used exclusively for 3-4 seasons. Last year, with an increased acreage, the founder and publisher of this Direct Driller magazine thought a second seed drill was necessary. Having just the one machine was a risk and in a difficult season would mean drilling was delayed. He looked around and found a good condition Horsch CO6 tine drill advertised in Germany.

    Words and pictures by Mike Donovan

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    After delivery he rebuilt the coulters to a narrow profile so as to reduce soil disturbance. He says the tine drill is very useful driling after straw crops such as osr and also through the straw on second crop cereals.

    Buying the drill from a German farmer was not particularly complicated, and provided him with a higher spec machine than Horsh sell in the UK. The seed dart tyres are much wider, and the machine is fitted with blockage monitors as well as full width front packers and also a liquid fert application system.

    A sheaf of photos were taken, and Clive then asked for some of specific parts to show wear. The deal was done at under £5,000 which Clive says is the market value of these machines which are too large for small farmers to buy. Original owners like to buy new and sell when the machine is still in good condition.

    Narrow tines with wear tiles

    @Clive knew he wanted to make changes, substituting the Horsch tines and coulters for something far narrower, and has ended up getting his own design of tine made, which has a wear tile made from Ferobide, far harder than tungsten. The drill is on the farm primarily for osr and 2nd crop cereals drilled into chopped straw and the 25cm spacing is okay for these crops.

    Comments on Clive’s on-line forum, TFF, said the drill many not be so good with beans, as the slot is a mere 12mm wide. And in barley the spacing may well be too wide as it needs to be thick. Clive points out that the seed pipe can actually be a bit wider than 12mm as it is in the shadow of the point. It would be good to have the option of using it for beans.

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    Above left: The cheap CO6 is being calibrated ready for its first outing

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    Above right: The adapted Horsch is being filled by the home built drill logistics trailer with seed and liquid starter fert.

    Getting around the German instructions

    The Horsch came, of course, with a control box and instructions in German. More on-line discussion revealed that English instructions were available on the Horsch website, and another explained that Horsch was sourcing some of these parts from Agton in Canada anyway. Zealman from New Zealand explained that the button marked with callipers should be held down for around 5 seconds. The menu is where you adjust the tramline sequence, valve layout and row numbers.

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    Ball hitch is a continental standard and provides a positive connection between tractor and drill

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    The Stocks Wizard has a rotor modified for Avadex which otherwise leaks everywhere

    A Stocks Wizard is on the back of the drill and used for Avadex. Here again the knowledge of actual farmers is helpful. Alistair Nelson warned that the rotor and the surrounding shroud need to be changed, and he got good advice “from Rick at Stocks”. Clive has the same setup on the 750A and says that the Avadex leaks everywhere unless the modification is made. The drill was acquired and modified in 2016 and the results have been excellent.

    The machine went through the residue without many problems and having the second drill has meant more timely planting. Clive has shown that moving into No-Till is not the expensive exercise so many farmers think it might be. The total cost, after modifications which included replacing all tines and coulters, was under £8,000.

    Author Mike Donovan writes: we have featured a number of home made direct drills in @Practical Farm Ideas, and are always interested in seeing more. Please contact mike editor@farmideas.co.uk or 07778877514.

  • Farmer Focus – David White

    Harvest 2021 roundup at Hawk Mill, an East
    Anglian perspective.

    Today, the 2nd September we finished harvest 2021. We tried on several occasions over the past week but the continued dull weather with early morning drizzle has prevented us from crossing the finish line, but today was going to be the day come rain or shine with spring beans and cover crop seed plots getting the chop. Queue the start of an Indian Summer!

    Who knew on July 22nd when we started with the rape that harvest would drag on this long, somewhat different from last year when harvest barely stretched into August, finishing on the 7th. I don’t think we have had any notable highlights, with yields here and of my neighbours being average, but quality good. The benefit of Camgrain storage came into its own again as our quality has been captured at moistures that will cost me very little to have dried but would not have been low enough to store for any time at home and market without claims or rejections. One highlight was my “Boats” (beans and oats mix) trial.

    I calculated the proportion of oats and beans in the sample to calculate the gross margin which was good for a break crop that had very few inputs and zero applied nitrogen. When looking at land use efficiency (LUE) it seems to stack up very well and has a very low carbon footprint. However, it took me nearly 2 days to separate the total field crop with my late 1950s dresser, a cost I didn’t add into the GM and it highlighted that to do this on a bigger scale a better dresser setup is needed or the services of a mobile cleaning plant.

    The combined crop did come to harvest together with the oats around 16% and beans 18%. Lots to consider with bi-cropping, what are you trying to achieve, which is the main crop of the two, does that matter, seed rates of the two crops etc, etc, lots of trial possibilities here. One thing I did prove was that adding oats to help weed control in the beans (Integrated Weed Control) that are then sprayed out does reduce the beans vigour and yield. However, my mono spring beans plot (.4ha) did produce a smaller GM than my “Boats” plot so something positive to take forward. Another observation, fewer Bruchid holes this year, is this due to having oats in the mix or a seasonal thing? There are two further questions to answer:

    Could a crop like this become so popular that my central store would intake and handle it?

    What/where is the driver to trial such crops as this nationally other than individual farmers?

    Cereal crops this year produced a lot of straw, so much so that it’s hampered my direct drilling practices. The pure volume even leaving a long stubble did not flow through the tine drill well. I think this was because after the very slow growth in April due to the many frosty nights we didn’t apply much growth regulator then when it rained in May the crops overcompensated in growth. So, the baler guys have been here and very efficiently baled and cleared the fields when weather allowed. This again demonstrated the fact that combining is the first seedbed operation and you’re not a good combine driver until you’ve driven a baler.

    Combine turning technique can make for a very tidy or untidy baling job! Removal of organic matter is not a problem if done occasionally and it will be replaced by the mixed species cover crops that have been planted and are growing albeit slowly as they need a proper rain! Yes although we have not had much decent combining weather we have not had much rain either, only 60% of the expected August average. East Anglia has also had the lowest number of August sunshine hours at 127.1 since 1968. How many of you will remember that year?

    Waiting for the baler and chaser, if only for a few days, has demonstrated again that once the crop is cut the ground dries very quickly and the nicer conditions you have in the “fiveminute fallow” window are valuable in a dry year. I’ve sown a small area of OSR and companions which are nicely up in the row. I’m pleased to be part of a group of farmers hosting some CSFB monitoring traps for Colin Peters of NIAB to try and work out what the complete life cycle of this pest is and we will potentially be looking at what emerges where the 2021 rape crop was right through to the spring.

    Cropping plans being made for the cereal crops. Big reduction of wheat area this year with spring barley and oats being the main cereals. My 3-way blend wheat seed sample was taken to the NIAB lab this week to be assessed for germination, vigour and disease levels so will hopefully be sown naked and I have found my local independent seed merchant is happy to sell me wheat seed without dressing too which is pleasing.

    Lessons learnt or reinforced from the year

    Spring drilling, patience is the key to success but if the ground is still slotty when drilled a tickle with something a few days later can make a big difference to emergence. You do need a little tilth. The benefit of having both disc and tine drills is invaluable. Second wheat is the driver of increasing blackgrass numbers. Second anything isn’t a good idea, a diverse rotation is everything, look beyond a one year opportunity bonus driven by prices. Don’t underestimate the value of leaving seeds on the surface rather than mixing them in. Crop residue management is everything.

  • Farmer Focus – Tom Sewell

    For the last 5 years, in the spring when the Oilseed rape is in flower, I’ve had the privilege of travelling to a very different part of Kent to offer our contract drilling services (planting spring beans into grass) for another farmer. Nothing particularly interesting about that you might think? But there is something quite profound and intriguing about this farming business, a father and son set-up operating in a diverse way and at quite a large scale for our area. For the purposes of this article they will remain nameless but I do have permission to reference them and highlight just what can be achieved without lots of shiny new machinery, fancy buzz words and 15 species cover crops!!

    In 2012 I was successful in applying for a Nuffield Scholarship. My original study topic was “Long term benefits of no-till” and at my interview in London I was grilled about why this would be of interest to anyone in the UK (amongst other things!). I was sponsored by the HGCA, which has now become AHDB, and part way through my travels and studies my report title was changed to “Moving from sustainable to regenerative farming using no-till systems”

    At the time no-one really knew what regenerative farming was let alone why anyone in their right mind might want to “move to it!” I lost count of the number of conversations I had with farmers at meetings where I gave my presentation asking what was wrong with being sustainable! It’s the danger of alienation, that some farmers feel, which prompted me to tackle the subject in this article. With buzz words flying about in the press, on social media and on most of the latest farming webinars we as farmers need to be careful not to come across as superior or somewhat arrogant because we have “seen the light”, “got off the hamster wheel” or “transitioned to a regenerative farming system integrating cover crops, agroforestry, mob grazing and 6-way blends of whatever”!! Whilst all the previously mentioned elements are to be applauded, encouraged, researched and developed we also need to realise that no two farms, farmers or farming businesses are the same. We all have different soils, weather, rotations, inherent fertility, cash flows, land tenure, priorities both with time and money, tractor brands and drill shapes, colours and sizes! The danger with social media and the glorification of our newfound systems is that we can show all the successes and very few of the failures. My current favourite saying is “comparison is the thief of joy” and nowhere is this more important than in our use and abuse of social media.

    My father-and-son drilling client use two direct-drills to plant most of their crops. They have 1000 ewes grazing grass and cover crops, between 225-250 suckler cows, 2000 acres of arable land growing wheat, beans, peas and grass seed, 50 acres of grapes and a diverse countryside stewardship scheme. Straw is returned to the fields via the cattle and sheep as manure. The machinery, whilst not all new and shiny, is well maintained and well operated yet they don’t profess top be anything other than mixed farmers. Their diverse soils (which I’ve probably drilled most of in the past 5 years) are well structured, level and fertile yet they quietly go about their business without too much fuss and media attention. Their black grass control is outstanding and at “hand roguable” levels and a crop of second wheat, in a field I drilled 2 years ago with beans, looked as good as anything I’ve seen in years, if at all! 

    My point is this! You don’t need to have the latest machinery, all the latest buzz words and scream and shout at those who perhaps take a different approach to farming and managing their soils as you do! Gentle encouragement and realising that everyone is in a different position should help us become leaders by example and not just because we shout loudest! As I drove home from their farm in my 15 year old 40kph tractor with my 7 year old drill on the back I reflected at just how fortunate and blessed we are to be able to do the job we do. Many outside of our industry dream of being farmers and whilst the hours can be long and difficult we must remember the benefits we get in so many ways which cant be quantified.

    As for our own home farm, this past year has seen us expand our acreage to a point where we now farm 1500 acres for 15 landowners across 10 parishes! Since last September all the practical farm work has been carried out by my father and I (my wife and I also run the office) and so far this year (writing this on 24th May) I haven’t worked a weekend! We have 55 fields of wheat this year, spread out and with very poor road networks serving them. It makes for fun and challenging times!! The Bateman sprayer is the only machine that goes on the field between planting and harvest so back up and reliability are key to us achieving the outputs required. We also support the sprayer with a bowser which this year has been invaluable in reducing roadwork and keeping the output up when the weather allows. Crops look well and the recent rains have ensured we go into June with good potential.

    Finally I must tell you about the latest addition to the fleet of one of our most important pieces of machinery. The latest upgrade is a work of art featuring stainless steel, sleek lines and enhanced ergonomic features. The previous model had served me well. Through my adoption of a new system of farming its reliability and performance had been faultless but just recently its hard life of soil engaging abuse had begin to show. Whilst we are in the fortunate position to be able to retain the old model as a backup or to increase output at busy times it will be retired to the shed where it can continue life in the dry and warm ready for those emergency situations when its brought back into action. For those of you still reading and wondering what I’m talking about? I upgraded the spade in my truck to a top of the range pure stainless-steel model (given to me by the local metal detecting club!)

    Sometimes the best things in life are free!

    On a personal note this year is a milestone for our family. My wife turns 40, we celebrate our 20th wedding anniversary and our eldest turns 16. For our business we farm to live and not live to farm. We love the job that we do but realise that time is so precious. As someone once said “the biggest difference between money and time… You always know how much money you have, but you never know how much time you have”. Hopefully bump into one or two of you at Groundswell, and if not, have a safe and productive harvest.

  • Cover Crops To Increase Soil Microbial Diversity And Mitigate Decline In Perennial Agriculture. A REVIEW

    Authored by Eric Vukicevich, Tom Lowery, Pat Bowen, José Ramon Úrbez-Torres & Miranda Hart
    A REVIEW Published in Agronomy for Sustainable Development volume 36, Article number: 48 (2016)

    Abstract

    Commercial perennial agriculture is prone to declining productivity due to negative plant-soil feedback. An alternative to costly and environmentally harmful conventional treatment such as soil fumigation could be to manipulate soil microbial diversity through careful selection and management of cover crop mixtures. Although cover crops are already used in these systems for other reasons, their capacity to influence soil biota is unexploited. Here, we examine the role of plant diversity and identity on plant-soil feedbacks in the context of perennial agriculture. We identify key microorganisms involved in these feedbacks and explore plant-based strategies for mitigating decline of perennial crop plants.

    We conclude that (1) increasing plant diversity increases soil microbial diversity, minimizing the proliferation of soilborne pathogens; (2) populations of beneficial microbes can be increased by increasing plant functional group richness, e.g., legumes, C4 grasses, C3 grasses, and non-leguminous forbs; (3) brassicas suppress fungal pathogens and promote disease-suppressive bacteria; (4) native plants may further promote beneficial soil microbiota; and (5) frequent tillage, herbicide use, and copper fungicides can harm populations of beneficial microbes and, in some cases, contribute to greater crop decline. Non-crop vegetation management is a viable and costeffective means of minimizing crop decline in perennial monocultures but is in need of more direct experimental investigation in perennial agroecosystems.

    Introduction

    Perennial crops often experience reduced productivity over time due to the accumulation of soil-borne pests and pathogens (Hamel et al. 2005; Mazzola and Manici 2012; ÚrbezTorres et al. 2014). This is particularly problematic in woody perennial systems where crop rotation is not possible, and ultimately, replanting is necessary to restore production levels. However, addressing this problem from an ecological perspective may lead to more sustainable solutions or avoidance of decline altogether.

    An ecological concept that is useful for understanding crop decline is plant-soil feedbacks. This concept describes the reciprocal effects of plants and their associated soil microbial communities (Bever 1994).

    Negative soil feedback occurs when plants promote soil microorganisms that are deleterious to their own growth, contributing to the maintenance of plant coexistence in natural systems through densitydependent regulation of dominant species (Bever et al. 2015). In perennial monocultures, however, negative feedback leads to crop decline and replant problems (Hamel et al. 2005; Mazzola and Manici 2012). That is, the deleterious soil microbial community also suppresses the growth of neighboring crop plants.

    The negative effect of soil microbial communities in monocultures is not altogether surprising, given the negative relationship between biodiversity and the frequency of parasitism (Civitello et al. 2015).

    In many systems, low levels of diversity will allow a parasite of the dominant host species to more easily find a suitable host. Increased diversity makes hosts more difficult to find and disease outbreaks less frequent and leads to the “dilution effect” associated with high species richness (Keesing et al. 2010). For plant-soil ecosystems in particular, it is well established that increased soil diversity decreases incidence of plant disease (Garbeva et al. 2004a; van Elsas et al. 2002) and improves plant productivity (van der Heijden et al. 1998, 2008).

    Can growers capitalize on this dilution effect by increasing soil microbial diversity in perennial systems? While many mechanisms contribute to forming soil microbial communities, e.g., abiotic filters (Fierer and Jackson 2006; Lauber et al. 2008), there is an extensive body of literature documenting the ability of plants to “train” their associated microbial communities (Badri and Vivanco 2009; Fanin et al. 2014; Hartmann et al. 2009; Rovira 1969). While growers are limited in their ability to manipulate the diversity of crop plants in their cropping system, cover crop identity and diversity can be an efficient way to increase soil microbial diversity and suppress soilborne pests that cause crop decline (Garbeva et al. 2004a). Cover crops are already a common feature in many perennial systems, but their potential impact on the biotic component of soils is often overlooked. For the purpose of this review, we define the term “cover crop” as managed vegetation grown between crop plant rows, including annual and perennial swards.

    Here, we incorporate ecological knowledge of plant-soil feedbacks into the context of perennial agriculture to explore the use of cover crops to increase microbial diversity and manage crop decline. The specific aims of this review are to (1) synthesize our current understanding of how plant communities influence soil microbial communities into the context of cover crops; (2) highlight key beneficial soil microbes and their role in affecting crop decline; and (3) present plant-based strategies to mitigate decline of perennial crops through soil microbial diversity

  • Products In Focus…

    BOURGAULT PUTS BRITISH FARMERS FIRST

    British farmers will be primary beneficiaries of Bourgault Tillage Tools’ (BTT) decision to open a new subsidiary company in the UK.

    The Canadian company has become well established in the UK for many, initially working via distributors. But its’s new subsidiary – Bourgault Tillage Tools UK Ltd (BTTUK), based at Thorney, Cambridgeshire – will improve the company’s offer to its loyal and expanding client base, says Ian Clayton-Bailey, managing director: “We will be able to hold a much more comprehensive range of parts in the UK, which will enable us to offer customers a faster despatch of a wider range of parts. “They will come from BTT’s factory straight to our customers. That is essential to meet their demands during busy working seasons”

    BTT’s range of ground engaging parts and tools has already built an appreciative audience among British OEMs and farmers over the 30 years since the company was founded. And the new UK company will also offer British farmers Forge de Niaux range of disc blades and Extreme® Carbide products. Later this year it will introduce the company’s new MAXLIFETM carbide technology, which infuses tungsten carbide onto wearing parts, giving them a greatly extended working life.

    The company has built a significant global customer base thanks to its continual drive for innovation, having introduced a range of market-leading innovations over the years.

    BTT celebrates its 30th anniversary this year, and is still owned by its founder Joseph Bourgault. Over the years it has built an impressive business, which can boast some impressive numbers. It now has some 500 dealers covering all the major farming areas of the planet, and has expanded its range from around a dozen parts to over 500. And from a 10,000 square feet factory employing 16 people, it now runs a 76,000 square feet factory with 74 employees. In a typical year it turns 200 tonnes of steel; 7.8 million feet of welding wire and 14,000 lbs of crushed carbide into the tillage, fertiliser and seeding tools to meet its customers’ requirements. The original Bourgault company was founded by his father Frank in 1969, initially to make a four-row multipurpose cultivator, but soon expanding into air drills as well. 

    When the company found it increasing difficulty securing wearing parts that met its quality standards, it set up Bourgault Tillage Tools (BTT) in 1988. Founded a parts producing division, it became a separate, wholly-owned, subsidiary in 1991. As well as establishing a reputation for top quality, BTT quickly became recognised for innovative ideas and designs. Among these was the Parallel Wing Cultivator Sweep, which offered users far greater working life than competitor’s versions:

    “As competitors’ wings wore down so they narrowed, which meant they did less work”, says Patrick Yeager, Managing Director of Sales and Marketing. “BTT’s Parallel Wing Sweep overcame this problem and maintained the full width throughout its working life. “The fact that they also offered significantly longer working life than those offered by competitors also attracted customers. “In Canada the standard practice for changing worn sweeps was to use a blow torch to cut through the old bolts and then replace the worn parts with fresh ones”. The company’s Speed-LocTM system changed that, says Joseph, enabling farmers to remove the worn part easily and knock a new part into place: “It saves thousands of farmers many of hours downtime every year – and during the busiest season of the year”

    A key part of that system is the range of adapters that the company offers which can be bolted to the bottom of any machine’s cultivating legs, allowing any suitable BTT part to be fitted thereafter.

    The company’s product range has changed as the industry has developed, and its range of drilling boots are finding fresh customers as more farmers consider strip till and direct drilling techniques. 

    With direct drilling becoming widely adopted across Europe, the company’s VOS (Versatile Opener System) is in great demand and is being widely used by OEMs and retro-fitted by farmers. These feature a slim profile that cuts a neat slot in the ground to place the seed, while being able to ‘band sow’ a crop so that it covers 75% of the soil surface. This maximises the amount of light and fertiliser it intercepts, while crowding and shading out weed competition. One important aspect of its business is direct contact with its customers, which means it received any feedback on performance direct, says Ryan Olson, the company’s General Manager:

    “We have 60,000 farmers in our back yard who effectively field test our products and tell us which ideas work well and which do not”.  

    BTT (UK) Ltd is exhibiting at several leading shows this autumn and winter, including:

    Midland Machinery Show – 24th & 25th November, Newark Showground, Nottinghamshire.

    CropTec – 24th & 25th November, East of England Showground, Peterborough.

    LAMMA – NEC, Birmingham, 11th & 12th January 2022.

  • Growers Dismayed At The Unlevel Playing Field Of Grain

    Written By Steve Ridsdale

    Combinable crop direct drillers have found ways to cut establishment costs, whilst at the same time aiming to increase the resilience and productive capacity of their soils. At the other end of the production cycle, comes our output in the form of crop sales. We want to be competitive producers and competitive sellers.

    Combinable crop direct drillers have found ways to cut establishment costs, whilst at the same time aiming to increase the resilience and productive capacity of their soils. At the other end of the production cycle, comes our output in the form of crop sales. We want to be competitive producers and competitive sellers. What would you think, if I told you it was easier for competitor imports to access our UK markets than it is for ourselves. That would be crazy, wouldn’t it? Well, that’s the exact situation we find ourselves in. Let me explain…

    Most animal feed mills are members of an assurance scheme. It’s called the Universal Feed Assurance Scheme (UFAS), and it’s administered by the Agricultural Industries Confederation (AIC). Imported combinable crops are not required by the AIC to have any farm level audited assurance when supplying to a UFAS accredited animal feed mill. This contrasts with AIC’s insistence that UK and Eire growers adhere to farm level assurance protocols such as Red Tractor (RT) or Scottish Quality Crops (SQC), and so UK growers consequently face an extra layer of burden and cost to access their own home markets. It makes us less competitive in the marketplace.

    How Do These Imports Become Assured?

    These imports are used to feed RT assured livestock, so presumably RT and AIC are content with the imported grain safety, and consider it to be in no way harmful, or a food safety issue to our farmed livestock. AIC welcome these imports into the feed chain by virtue of either pesticide residue testing, or a pesticide declaration confirming grains were only grown using EU licensed pesticides. The notable difference is that AIC have NO requirement for these imports to have any farm level assurance at all. Think about that when you’re next paying your RT assurance invoice, writing down when you cleaned your grain bucket, or writing down the exact time and date you put some rat poison down.

    These imports, having been grown in countries where growers have access to pesticides not licensed in the UK, pesticide testing is a reasonable safety check to undertake. One might, however, question the usefulness of sampling grain after it has been blended at central storage and then onboarded to a boat.

    What Could An Equivalent System Of Assuring Grain Look Like For UK Producers?

    Turning our attention to home grown grain, we only have access to UK approved pesticides, so it follows that pesticide residue testing is unnecessary, and that the pesticide declaration method is more appropriate. Domestic legislation requires crop sprayers to be NSTS tested, and operators must have PA1/2 certificates of competence. Local authorities check we are compliant in having written HACCP procedural records for grain drying and storage, and are also at liberty to inspect our pesticide records. These legislative requirements provide a risk based assurance that UK grain has a safe pesticide adherence. Government are content with this high standard of legislative framework and the food safety status this provides to our grain, and ultimately to the consumer. We have some of the highest standards in the world.

    Our AIC approved TASCC merchants visit, and are welcomed at any time, 365 days a year, to take samples from our grain stores, check the hygiene procedures of our stores, inspect our machinery and visit our fields. If they’re not happy, they won’t purchase It’s a self-policing system. In comparison, we should be mindful that AIC do not stipulate any on-farm checks of imports. Those imported grains are only entered into the assured food chain by the shipper, using the pesticide test or pesticide declaration methods.

    It therefore follows, that a simple pesticide self-declaration on the grain passport provides UK grain with a much more comprehensive standard of assurance to that of imported grain, and so should be an accepted method for UK gain to enter a UK feed mill. This would give us equivalence to our competitors.

    Farmers Are Angry

    UK growers have not received any logical explanation as to why UK we can’t have the same trading terms as imports. Rather, we’re told that in order to have access to UK feed mill markets, we must continue with farm level assurance from schemes such as Red Tractor or Scottish Quality Crops. A quick glance at the SQC website shows that AIC are one of 8 members in the ownership structure at SQC. Click over to the RT website, and we learn that the company guarantors of AFS (the parent of RT) include the NFU, AHDB, NFU Scotland and Ulster Farmers’ Union. We also learn that AIC have representatives on the RT Crops Board.

    NFU and AHDB

    These associations must raise questions over conflicts of interest. We’ve seen our farming unions and AHDB support RT, and it’s resulted in a situation whereby it’s more difficult for UK producers to access the feed mill markets than it is for imports. Policies need rethinking, and it needs to happen quickly. Farmers are disappointed and perplexed. Our representatives and statutory development board need to think carefully about who they are working for, or risk losing the support of the farmers who fund them. AHDB must work to ensure levy payers have, at a minimum, equal market access opportunities to competing imports, and our farming unions must help facilitate this. Questions need answering as to how anyone could have thought supporting the positioning of assurance companies, and the resultant market access anomaly, could ever have been a good idea

    Given that most other grain exporting countries did not have any farm level grain assurance schemes, it was an obvious and forseeable consequence that UK producers would be saddled with extra assurance cost burdens (in comparison to imports) for supply to our feed mills. Quire clearly, these policies were going to create a situation by which it would make market access more difficult for UK producers, and easier for competitors. RT and AIC also have a responsibility here. They have responsibility to our home industry from whom they make a living, and they need to consider the position in which they have now placed our AHDB and NFU. Farmers have resigned their NFU membership over this issue, and with talk of a ballot on the future of our AHDB Cereals & Oilseeds sector, we want to be in a position where farmers can give whole hearted support to these organisations who are designed to help us.

    We now need solutions. NFU and AHDB must no longer support a situation by which market access is more costly for UK growers. We must have, at a minimum, equivalent market access. Anything less is a failure by our NFU and AHDB.

    Free Market Economy

    Currently, feed mills and farmers are shackled to the AIC rules, and unable to choose different standards for themselves. There should be nothing in the way of a free market economy. It’s a huge disposition on the marketplace, and prevents the market trading naturally, commercially and in a free manner. Government decide upon our food safety regulations, not private selfappointed assurance companies who benefit from their own industry rules.

    Double standards don’t work, they’re untenable. We need one common standard no more onerous than imports enjoy, with optional schemes to serve end users who require audited assurance.

    Schemes such as RT and SQC can happily co-exist with the pesticide declaration method of assuring grain. There should be nothing stopping us having two voluntary standards for UK grain, working in tandem to serve different aspects of the marketplace. A feed barley grower should be able to access feed mill markets using the pesticide declaration method. The farmer should have choice, and the mill should have choice. A milling wheat or malting producer may choose to be RT assured. Some millers or biscuit manufacturers may insist on RT, others might not. It would be market led and premium led. The industry is grown up, it doesn’t need to be told what standard it should trade, particularly when the UK and imported grain is then blended into the same product.

    RT has often been criticised for failing to produce a price premium. RT would need to work harder to provide a premium over farmers’ compliance costs. That’s no bad thing. Innovation and excellence come from competition, competition that RT is currently lacking.

    Our producers should be afforded a level playing field, and RT, AIC, NFU and our AHDB, should work to achieve this.

    I’d urge growers to speak to their NFU representative or AHDB contact.

    Our own industry leaders have got us into this crazy mess. Now it’s time for them to work to repair the damage.


  • What Can You Control In Regen Agriculture

    Written by Tom Carnell from Tramline TEC, formed in May 2021.

    We were founded with the aim of providing solutions to problems in Agriculture, where the problems are normally caused by the need to control something. Why do we need to control something? So much of farming is without control. Weather, disease, pests, weeds, climate – all uncontrollable. This makes it even more important to control well the things that we can control.

    Why is this relevant to Direct Drilling? It is even more important to be able to control what you can well when you add in cover and companion crops, beneficial insects, teas and coatings. When you control something well you can determine what effect it has had on the result. As an example, take adding a companion crop. If you do not place it well you will have no uniformity and therefore you will not know whether the companion crop worked or not – indeed you may draw the conclusion that it hasn’t worked as you have not ended up with the result that you expected, and sthat result may have been down to the inaccurate placing of that companion crop rather than the crop itself.

    What can we control? We can control pretty much anything with a control system be it liquid or solid. We can control liquid fertiliser, Liquid Teas, granular fertilisers, seeds, sludges, pellets, manure, compost, etc. The controls can be on the machine and off the machine. Most implements on farm have controllers supplied as standard from the manufacturer. A lot of the time these controllers will not satisfy the needs of a modern farm. Retrofit controllers can be fitted to machines to give added benefits. These benefits can be:

    • ISOBUS. This enables the machine control to be displayed on the tractors UT (on an ISOBUS compliant tractor). When the UT has task control and section control unlocked this will take control of the machine allowing the application of variable rate plans and individual row or section control of the machine. Multiple controllers can use the same UT. Additional UTS can be added to enable the separation of tasks – for example autosteer on one screen, tractor functions on another and the Implement on the third. Modern screens can “partition” and offer multiple displays on one screen. Its [possible to have multiple ISOBUS controllers on one UT – just because there is only one ISOBUS socket on the tractor doesn’t mean only one ISOBUS implement can be connected.

    • Multiple channels. Often the standard controller will only control the standard machine and be unable to add extra functions. For example, you have a seeder which has 3 hoppers and you wish then to add liquid fertiliser and slug pellets or Avadex. The standard controller will only control the 3 hoppers or channels. Retrofit controllers can control up to 8 channels and if they are ISOBUS can offer the ability to have 8 different variable rate plans.

    • Self-calibration. More modern seeder controllers can be fitted with counting sensors which allow the seeder to calibrate itself and not have to be calibrated by the operator. The main advantage of these systems is the ability to apply seedrates in seeds per m2, removing the need for calculations using the thousand grain weight to get Kg/Ha rates.

    • Blockage and counting sensors, or a mix of both can be added to most seeders on the market, giving confidence that every seed has been planted where it should be and opportunities for Blackgrass and other .to grow are removed.

    • Sharing of data into the farm management system to show live data of where the machine is and how its performing and the ability to look at historic data to see why an area of a field yielded well. With the Precision Planting system its possible to look at this data down to a single seed level (singulated seed)

    • Precision placement of fertiliser. Have you ever wondered what effect placing fertiliser in the furrow, to the side of the furrow or on top of the furrow has? We have controllers that will apply in all of these locations which combined with yield mapping will allow you to see what effect each of these variants has on your final crop.

    • Depth control. This is interesting and also hard to get right. As we all know there are so many variables when you travel across a field in terms of soil type, compaction levels and moisture levels. Complex systems have loadcells on each row and row by row vary the pressure on the row to plant the seed into moisture. Simple systems allow the adjustment of whole machine row pressure from the cab.

    Controls and control systems are not limited to tractors and implements. Grain dryer control systems can be dated with obsolete parts leading to costly breakdowns in the middle of a wet harvest. We can build new control systems or update existing control systems and add in Wi-Fi connectivity to provide operator alarms when there is a problem. Where there is no WiFi we can add in point-to-point retransmitters if Wi-Fi is close by or 4G routers when there is no Wi-Fi.

    We can supply probes for grain stores that can be linked to a Wi-Fi network and will alarm if moisture, temperature or humidity values are exceeded. Weather stations can be added into these networks that can then be programmed to control fans in grain stores depending upon humidity and temperature of both the grain and the environment. 

  • Demystifying Farm Carbon Offsetting: Three Watch-Outs For Farmers

    Written by Samuel Smith from Farm Carbon Toolkit (FCT)

    There’s a rise in farmers and landowners interested in getting paid for carbon sequestration. Yet in the UK, an absence of robust guidance, protocols and industry experience makes this space feel like the “wild west”. Farmers are at risk of being misled, while NGOs and industry groups are struggling to form clear positions in what’s a fast-moving and confusing landscape.

    We help farmers to measure, understand and act on their greenhouse gas emissions (GHGs). It’s our mission, as a farmer-led organisation, to help farmers become knowledgeable and empowered on this topic, building profitable and resilient businesses that also help to restore our fragile and deteriorating ecosystems. Reducing GHG emissions from farms is a priority and all farmers can begin now. Therefore we take a close interest in the emerging opportunities for farmers and landowners to access payments for carbon sequestration and storage on their farms. Through our work, we are witnessing more carbon payment opportunities coming through supply chains, grant-funded projects, as well as future options within ELMs and in voluntary carbon offset markets.

    With our deep understanding of GHG emissions in agriculture, combined with on-the-ground experience of measuring farm and soil carbon, we are helping to inform various schemes and start-ups. What we witness is mixed. Some schemes are well-designed and robust in their approach to supporting farmers and having impact. While some are less carefully designed, with limited transparency and a possibility of unintended consequences. Farmers, landowners and organisations have limited guidance on best practice and a lack of standards make comparison between schemes challenging.

    Context: how a Net Zero paradigm is renewing interest in offsets

    As climate breakdown becomes ever more visible, many people and organisations are scrambling to make major cuts in greenhouse gas emissions. In recent years, there has been a proliferation of “net zero” carbon commitments from some of the world’s biggest companies and institutions. To meet these ambitious targets, organisations will need to use every tool at their disposal. This means not only reducing emissions as far as possible, but also investing in activities such as “nature-based solutions” to cover any residual emissions.

    Achieving net-zero across society means a gigantic shift in business practice; reinventing business models and shifting the products and services available to citizens. Culturally, industries are in different places on what this means. Some industry leaders are recognising and preparing to implement radical changes, yet can often be working alongside others who are constrained by a tendency towards business-as-usual. What many companies have in common though, is a desire to buy offsets in the short-term to help achieve net zero faster – and many are now turning to farm carbon.

    For example, Microsoft recently purchased $500,000 of soil carbon credits from Wilmot Cattle Company, who own an 11,000 acre farm in New South Wales. In the US, various brokers exist to pay farmers for carbon, many using an agreed protocol and a proposed Growing Climate Solutions Act may require the USDA to help farmers access these carbon markets in the future.

    Why Offset Schemes Require A Special Scrutiny

    There are various ways in which farmers can be supported to shift towards more regenerative agricultural practices. For example, via government subsidies, philanthropic projects, landowner initiatives and through supply chains taking an “insetting” approach. The selling of carbon or biodiversity offsets is another route, coming with a greater need for accurate, trusted measurement and verification. There is currently a lot of excitement around farm and soil carbon offsets in the UK and various new schemes are launching. A recent farmers’ attitude survey we conducted suggested that 30% of farmers are “very keen and willing” to partake in offsetting schemes. Meanwhile, 27% of respondents were uncomfortable and suspicious about this topic.

    We urge farmers to recognise the risks that exist around these schemes and ask tough questions to any organisation seeking to “buy” your carbon. To support a more credible and robust environment for farm and soil carbon payments, we are part of a consortium of organisations working towards a UK Farm and Soil Carbon Code. With carbon offsets – and any other mechanism to support change – there can be risks of driving unintended consequences, especially if we only focus on a narrow goal of carbon reduction. Instead, taking a “food systems” lens to the way we design projects can help us in building a healthier, more socially just food system.

    3 Watch-Outs for Farmers Selling Carbon Offsets

    To ensure farmers are empowered and clear on the terms in which their whole-farm or soil carbon credits are being sold, we believe farmers should demand the following from organisations seeking to pay them for carbon offsets: 

    1) What claims can you make in the future about your carbon footprint?

    In a carbon offset, the sequestered carbon being sold is effectively taken off the farm or landowners carbon balance sheet and appears on the balance sheet of another business or individual: the “buyer”. This means that the buyer has an exclusive claim to the carbon reductions or removals made by the farm. What is often overlooked or missing in the marketing materials of offset intermediaries, is that the farm may no longer be able to make claims about any associated produce being “low carbon”. While the farmer may be doing all sorts of positive practices, some or all of their sequestered carbon is on the balance book of the “buyer’ of carbon credits. A farm claiming it is low-carbon could be misleading, amounting to double claiming, propagating a false view of our overall progress against climate change.

    For illustration, if all farmers in the UK sold their sequestered carbon via offsets to private companies (that often operate beyond national borders), then the NFU’s Net Zero farming ambition may become impossible to reach, as would the climate pledges of many food retailers and brands who have made Net Zero pledges covering their Scope 3 emissions. This is a challenge and risk for farmers. Those selling direct-to-consumer may talk about their positive practices but may feel in a tricky position when explaining their carbon credentials, especially if their sequestered carbon has been purchased by an oil or airline company, who are some of the more prominent industry groups currently seeking offsets.

    Farmers selling through their supply chains may also be in a weaker position. Retailers are increasingly wanting to buy low-carbon produce and cannot do this if the farm has sold much of it’s sequestered carbon via a private offset. If the farm carbon offset sector follows the recommended principles around double-counting and double-claiming, then farmers may find themselves less desirable to customers.

    2) Does the scheme have a transparent, robust methodology on permanence, additionality, measurement and verification?

    The credibility of a high quality offset can be tested through its approach to: 

    1. Permanence:

    In the ideal offset project, reversals of carbon emissions are physically impossible or extremely unlikely. Standard convention in offset markets has been to guarantee that carbon is kept out of the atmosphere for 100 years. Yet, this is not practical for soil carbon, which is considered as “shortlived” storage carrying a higher risk of reversal. In the USA, Nori manage permanence by offering short-term credits that expire after 10 years. In Europe, Soil Capital has a 5 year crediting period, in which farmers can earn and generate credits, followed by a 10 year retention period. Carbon Farmers of Australia must choose between 25 and 100 year permanence guarantee.

    2) Additionality:

    This is about whether the payment the farmer receives plays a decisive role in helping remove carbon from the atmosphere. Additionality is essential for the quality and credibility of the carbon offset market. Yet, especially in farming, its determination is subjective and deceptively difficult. Is this payment providing the make-or-break difference?

    1. Measurement, verification and
      scope:

    This is a complex area. For example, what’s included in the scope of the carbon footprint? Is the scheme considering the whole-farm’s carbon balance, or is it based on a per-hectare field basis? For example, in the USA, White Oak Pastures received scrutiny last year as their claims about having carbon negative beef neglected their wider, whole-farm footprint and landuse.

    For measurement and verification, what protocols and tools are being used to measure and verify the sequestration? Is the payment based on actual field measurements (and if so, to what depth, to what lab test, resolution and frequency), or are they computer models of how carbon stocks are expected to change with different practices? How much of a buffer is in place for uncertainty? Can we trust those models, given how nascent our understanding is around soil carbon sequestration? Are they based on the UK context?

    3) Demand transparency and having a choice in “the buyer“

    It’s a common principle that organisations seeking to offset through farm and soil carbon should prioritise cutting their own emissions: minimising the need for offsets in the first place. As outlined in the Oxford Offsetting Principles, buyers of offsets should also publicly disclose their current emissions, accounting practices, reduction strategies and targets to reach net zero. Furthermore, for the sake of the seller’s reputation, we believe farmers and landowners should also have some say or agreement to who’s buying the carbon offset. We believe geographically local carbon offsets are preferable, as it further assists with transparency and can provide an opportunity for the wider public to understand offsetting.

    What next?

    We are keen that farmers are incentivised and rewarded for farming sustainably. This may include payments for carbon reduction, building soil health and increasing sequestration. To this end, we’re aware our Farm Carbon Calculator is beginning to be used as a helpful tool to help guide such payments.

    We will continue to draw on our practical, on-the-ground experience and expertise to contribute to projects in this space – always keen to support and advocate for robust and credible projects, schemes and marketplaces. Looking ahead, we have various innovations and services in the pipeline to support better, more accurate and meaningful carbon assessment. We’re also keen to continue contributing to the science and understanding of GHG emissions in agriculture. There’s lots to crack on with! 

  • Drill Manufacturers In Focus…

    BUSY BACKEND AND DISCUSSIONS WITH THE NEIGH SAYERS!

    Having travelled all over the country with the Ma/Ag drill we are now beginning to see the results of our toils which seem positive. As always during demonstration, we have visits from the next door neighbour, some with positives comments and some not quite so. On one demonstration which I and the farmer where more than happy with, the visiting cousin was negative to say the least. After his departure, I spoke to the farmer about his cousin’s opinion, and had the response that he was very positive until I stepped out of the cab!

    I have grown a little tired of the comments that direct drills are only a dry weather tool, we have proved that providing you can travel without making a mess on the surface, and providing your equipment is suitably tyred and correctly operated so as not to do damage underneath the surface then pretty much anything is possible. In fact where cover crops have been grown or last year’s crop aftermath is still around, these can allow operations where bare cultivated ground might not.

    Here is a riverbank field, an attempt was made to plough but soon given up, we direct drilled the spring barley into reasonable conditions, all was well until we ventured into the ploughing which appear reasonably dry, it wasn’t! Lesson learned, a 2 ton crop of spring barley (drilled 20.4.18), apart from the ploughed ground, which just grew weeds!

    Direct drilling 14 tons/Ploughing 0
    I rest my case!
    Mark Harrison, Ryetec Ltd

  • Drill Manufacturers In Focus…

    JOHN DEERE – FUTURE OF FARMING

    Changes in weather patterns are just one of many challenges farming is facing. John Deere is investing huge resources into solving these challenges. Three core technologies are shaping the future: Electrification, Automation to Autonomy and Artificial Intelligence.

    Electrification

    Electrification isn’t just about using batteries as the power source. It’s about using electrical drives to replace engines and hydraulics. Electric motors have huge torque at low speeds, they’re more efficient, more reliable and lighter.

    eAutoPowr transmission: eAutoPowr is the first continuously variable transmission with an electromechanical power split. Compared to conventional CVTs, the drive is more efficient and wear-free. Another special feature is the provision of up to 100kW of electrical power for external consumption. To demonstrate this, John Deere and Joskin have developed a slurry tanker with two electric drive axles. Thanks to this eight-wheel drive system, a much more efficient transmission of tractive power is possible. This can also reduce slurry incorporation costs by up to 25 per cent.

    VoloDrone – The large drone developed jointly by John Deere and Volocopter has a diameter of 9.2 m and is powered by 18 rotors. It has a fully electric drive with replaceable lithium-ion batteries. One battery charge allows a flight time of up to 30 minutes, and the VoloDrone can be operated both remotely and automatically, on a preprogrammed route. The drone frame is equipped with a flexible standardised payload attachment system. This means that different devices can be mounted on the frame, depending on the application. For crop protection, the large drone is equipped with two liquid tanks, a pump and a spray bar. Thanks to the low flying height, very large area coverage of up to 6ha/hr can be achieved.

    Autonomy through automation

    The focus of automation is not to replace the operator. It’s about using technology to create the best operator possible. The journey began with hands-free AutoTrac satellite guidance to steer the machine. Now we have Integrated Combine Adjust on our S700 combines which makes real-time automatic adjustments to maintain the pre-set levels.

    Autonomous electric tractor – John Deere’s new autonomous tractor concept is a very compact electric drive unit with integrated attachment. The tractor has a total output of 500 kW and can be equipped with either wheels or tracks. Flexible ballasting from 5 to 15 tonnes is possible, depending on the application, to help reduce soil compaction. Thanks to the electric drive, there are no operating emissions and noise levels are extremely low. Further advantages include low wear and maintenance costs.

    Semi-autonomous tractor – This tractor drives semi-autonomously and is equipped with an integrated crop sprayer. Using a built-in camera, it is possible to work in row crops – for example, applying plant protection products to fruit tree orchards. Filling the sprayer tank is fully automatic at the filling station, so the user is not exposed to pesticides. This is designed to reduce costs and increase productivity by over 30 per cent.

    Autonomous sprayer – This novel autonomous sprayer is lighter than a conventional self-propelled sprayer and has a 560 litre spray tank. It can enter fields after rain without causing any soil compaction. The high ground clearance of 1.9 m and four-wheel steering make it extremely versatile, while the tracks minimise ground pressure and greatly extend the operating window.

    Artificial Intelligence

    Artificial Intelligence is changing the way we spray.

    See & Spray – With See & Spray technology, high-resolution cameras capture 20 images per second. Based on the images and artificial intelligence, the system recognises the difference between cultivated plants and weeds so that individual plants can be specifically treated.

    With this new generation of weed control, the use of pesticides can be greatly reduced.

    CommandCab – Whatever happens in the future, the farmer will always be in control. Our Command Cab shows how the journey from Automation to Autonomy is likely to evolve. The future vision of a driver’s cab reveals new possibilities for artificial intelligence. With its joystick control, touchscreen display and networking of all machine components, it´s a completely new operating concept. By integrating real-time weather data, individual pre-settings and job management procedures, the cab becomes the command centre for agricultural operations.

  • Agronomist In Focus Dick Neale

    FROM HUTCHINSONS

    Catch and cover crop choices play significant part in positive transition to Sustainable Farming Initiative When any new technique is employed its initial benchmark for success is a measure of the financial return it provides over the technique it replaces or enhances. In that respect cover crops have had a rocky start in their introduction to UK agriculture. This is largely because the financial positives or negatives a cover crop brings in the initial stages of introduction are marginal with the potential for a negative financial impact often overriding the positive. However, measuring a catch or cover crops success or value based purely on one year’s yield impact fails to recognise the significant improvements in soil structural health, biology, nutrient flow and water management their use imparts over time.

    Increasingly research is demonstrating the importance of below ground biomass in the building of soil organic matter (SOM) with figures recording over 40% of root matter being retained as SOM while top growth contributes only 8% to SOM. Cash crops must not be forgotten in the process of building SOM but catch and cover crops play a vital role in filling the gaps in rotational cropping, in particular being present during the August to November period when UK soils are traditionally bare from post-harvest cultivation. The value of catch and cover crops is immense when sown in August to intercept those longer days of sunlight energy and recharge the soils biological battery. 

    Choose a cover that works for your situation

    Choice of cover is crucial to optimise performance, address identified issues on individual fields and match the farms management approach out of the cover period, be that grazing, rolling, spray and direct drilling or cultivation. Covers can be used to address carbon: nitrogen ratios within the soil which can impact the soils’ ability to ‘digest’ high lignin residue like wheat straw, equally they can be used to slow the ‘burn rate’ of SOM in lighter soil fractions. The focus is knowing what the state the soil is in and what it needs. Cover crops can be used to add significant diversity into rotations and are an ideal opportunity to get legumes into the cropping cycles and reduce reliance on applied artificial nitrogen. Following crops must be considered as there is significant risk of yield reduction where oats or rye are a high proportion of the cover crop mix prior to spring barley or wheat. Where cereals dominate the rotation ,utilising oats as the cover adds little in diversification terms.

    Consistently successful cover crops are made up of multiple species. The species mix should be optimised to the targeted impact required whilst bringing diversity, nutrient fixation, storage and release. Ease of use like seed flow characteristics through air seeders and overall rates of use to fit with smaller air seeder hoppers is a further consideration along with reliability of species with the UK climate.

    We have made sure Hutchinson’s mixtures have been optimised for reliability and performance. Typically, our mixtures contain 8 species with the previous crop volunteers making it a 9 species population. Ratios in the mixtures are adjusted to optimise the area of performance, be that soil structural impact, nutrient release and fixation, water pumping or surface protection.

    As details of the Sustainable Farming Initiative become clearer it leaves little doubt that cover crops, reduced cultivation practices and soil assessment and improvement will be central to accessing support funds in the future. Transition from one cultivation system to another takes time both for growers to gain confidence in the new approach and for soil to react and improve, now is an ideal time to make the change while support payments remain to help counter the risks and tweaks required for any system as it establishes itself on farm.

  • New Miscanthus Finance And End-User Offtake Agreements Assist UK Decarbonisation

    In an industry first, farmers considering planting the carbon negative crop Miscanthus can now benefit from a finance package to cover virtually all upfront costs for crop establishment, as well as new direct, long-term offtake agreements with end-users, with 10–15-year index-linked annual returns.

    The new opportunity has been launched to help support the growing need to decarbonise the UK economy with bio-based solutions, and if planting of perennial crops such as Miscanthus is accelerated quickly, to at least 30,000 hectares per year by 2035, this increase could sequester 2 MtCO2e by 2035 and over 6 MtCO2e by 20501.

    Oxbury Bank is working in partnership with Miscanthus specialist, Terravesta, to deliver the new finance package, which is supporting farmers to plant and establish the crop. “One of the main barriers to entry for Miscanthus growing is the upfront cost of planting. Our finance package with Terravesta ensures a quick release of funds to help farmers to grow a sustainable business. The loan structure allows farmers to pay interest only for up to two years while the crop is establishing and then pay back the capital over an extended period of time when the crop is producing an economic return,” says Nick Evans, managing director of Oxbury Bank.

    “Agriculture is changing, and it’s important that farmers have access to finance and capital for their low carbon initiatives and sustainable growth plans, like Miscanthus,” says Mr Evans.

    Under the new contract, Terravesta will supply its Performance Hybrids, planting equipment and agronomy throughout the crop’s life, ensuring successful crop establishment by committing to a minimum number of plants emerging under its new planting promise. “Our current rhizome-based variety Terravesta AthenaTM delivers higher yields than the commercially available Miscanthus giganteus, a calorific value increase of 8%, resulting in 180% increase in energy per hectare (megajoules) and significant ash content reduction, all of which benefits the end-user considerably,” explains Alex Robinson Terravesta’s chief operating officer.

    “Terravesta AthenaTM generally takes its first harvest in year two and reaches maturity faster than Miscanthus giganteus, and some of our growers are reporting a first harvest of eight tonnes per hectare, going onto a mature yield of between 10 -17 tonnes per hectare depending on the soil type.

    “The beauty of this new package is that growers have a direct contract with renewable energy power plants, which enables Terravesta to provide a finance package and allows us to focus on crop establishment in the UK at a much greater scale to support our net zero targets,” adds Mr Robinson. 

    To learn more visit:
    www.terravesta.com/learnmore.

  • Does Grazing Cover Crops Negatively Impact Soil And Crop Yields?

    Separation of crop and livestock production can degrade soil and other natural resources while reducing economic returns. Additionally, the conversion of grassland to cropland has put a strain on forage for cattle. Grazing cover crops can be a potential option to re-integrate crops with livestock production and reverse the adverse effects of separating crops and livestock production. Grazing cover crops could still maintain the benefits from cover crops as roots and some stubble remain after grazing. Cover crop grazing has shown to improve economic returns (Franzluebbers and Stuedemann, 2007) while still capturing benefits from cover crops (Faé et al., 2009; Maughan et al., 2009); however, soil compaction risks can be a concern.

    Written by Lindsey Anderson, Humberto Blanco, Mary Drewnoski and Jim MacDonald, Published in CropWatch
    from the University of Nebraska-Lincoln

    While there are few studies evaluating cover crop grazing, most of the existing studies found any shallow soil compaction that did occur was not enough to influence yields. Tillage and soil wetness could influence the impact of cover crop grazing on soil compaction. A study under strip tillage in west central Nebraska found that grazing cover crops increased soil compaction in one of three years, but it is possible strip tillage may have alleviated potential compaction in the other two years (Blanco-Canqui, et al., 2020).

    On the other hand, a study in Georgia found that compaction increased more when grazing under conventional tillage (disk plowing to 6-8 in.) compared to grazing under no-till (Franzluebbers and Stuedemann, 2008). This suggests conservation tillage, such as no till or strip till, could be more beneficial than conventional tillage when grazing cover crops. Another study in Georgia found cover crop grazing in the spring after an above-average rainfall increased soil compaction due to soil wetness and thus reduced cotton yields (Schomberg et al., 2014). Thus, soil wetness is also important to consider when cover crop grazing.

    To further improve our understanding of how cover crop grazing may affect soil properties and crop yields, we conducted a study in 2019 and 2020 on a field-scale oat cover crop grazing experiment under an irrigated no-till corn-soybean rotation on silt loam soils in eastern Nebraska. Our results suggest that fall/winter cover crop grazing does not negatively impact soil or crop yields (Figure 1). These results are similar to other fall/winter cover crop grazing studies, but it should also be noted our study only had cover crop following the corn phase of the rotation, thus grazing only occurred every other year, possibly reducing any cumulative impacts of grazing.

    Field Management

    Our cover crop grazing experiment was established in 2015 at the Eastern Nebraska Research and Education Center near Mead, Nebraska. There were two study fields in this experiment, and each field was 52 acres under center pivot irrigation and no-till. The rotation was corn-soybean, and each field was cut in half and harvested as corn silage in one-half of the field and high moisture corn in the other half of the field. Corn silage was harvested around Sept. 1 and high moisture corn (about 32% moisture) harvested around Sept. 15, about 25 days before typical dry corn (about 15% moisture) harvest. A cover crop of Horsepower oat was drilled at 96 lbs per acre following corn harvest (Figure 2). Following cover crop planting, the fields received 40 lbs N per acre from ammonium nitrate. No cover crop was planted following soybean harvest.

    Cattle Management

    Cattle grazed from November to December at stocking rates ranging from 0.6 to 1.7 head per acre, with cattle initial weights ranging from 507 to  553 pounds throughout the study. The stocking rates were calculated based on a target grazing period of 70 days and accounted for cover crop biomass under corn silage and both cover crop biomass plus corn residue amount under high moisture corn. Forage allowance was about 25.6 pounds per steer per day in the first two years and about 39.0 pounds per steer per day in the last three years. Grazing only occurred in late fall/winter following the corn phase of the rotation with grazing durations ranged from 30 to 69 days over the five year experiment. Based on the rotation, grazing occurred twice in one field and three times in the other field over a five year period.

    Did Cover Crop Grazing
    Damage Soils?

    Cover crop grazing had no impact on soil compaction, wind or water erosion potential (expressed as wet and dry aggregate stability), water infiltration, water retention, organic matter, particulate organic matter (fraction of organic matter readily accessible to soil microbes), or microbial biomass compared to the non-grazed cover crop (Figure 1). These findings strongly suggest that cover crop grazing does not damage soils.

    Why Might Grazing Not Impact
    Soils?

    It is believed cover crop grazing had no impact on soil compaction in this experiment because:

    1. Grazing only occurred after the corn phase of the corn-soybean rotation, which reduced the frequency of grazing (every other year grazing).

    2. The experiment was located on soil with high soil organic matter (4.2% within 0 to 8 inches) and soil organic matter can prevent soil compaction.

    3. Grazing occurred in late fall when the soil is less likely to be wet compared to spring, with spring having more rainfall.

    4. Natural freeze-thaw and wettingdrying soil cycles can naturally break up any potential soil compaction. 

    Cover crop grazing removed about 47 to 87% of cover crop biomass due to cattle intake and trampling (Figure 3). However, much of the biomass removed was actually incorporated into the soil surface from trampling, retaining cover crop residue within the system. Additionally, cattle intake removes little nutrients from the system, as cattle excrete most of the nutrients consumed during grazing. For these reasons above, we believe cover crop grazing in this study may have had no negative impact on soil properties due to the addition of trampled cover crop aboveground biomass, cover crop root biomass and infrequency of grazing (every other year).

    Did Cover Crop Grazing Impact
    Crop Yields?

    Cover crop grazing had no impact on soybean or corn yields (Figure 1), which is similar to previous cover crop grazing experiments. Only two studies report yield decreases from cover crop grazing during wet soil conditions in spring (Schomberg et al. 2014) or increased soil water evaporation from summer cover crop grazing reducing residue cover (Franzluebbers and Stuedemann, 2007). Our study site was irrigated and grazed in fall/winter.

    Should I Graze My Cover
    Crops?

    • In this study, cover crop grazing had no impact on soil compaction, wind or water erosion potential, water infiltration, water retention, organic matter, particulate organic matter or microbial biomass compared to the non-grazed cover crop. Therefore, based on the conditions of this study, fall/winter cover crop grazing had no negative impacts on soil properties. Additionally, cover crop grazing had no impact on crop yields.

    • In previous studies, cover crop grazing can have some impact on soil compaction, depending on tillage system and soil conditions at time of grazing. Based on what little research is available, it is suggested conservation tillage — such as no till or strip till — may prevent possible accumulated impacts of compaction, but conventional tillage should be avoided.

    • Based on our experiment and others, cover crop grazing could be a strategy to re-integrate crop and livestock production without largely degrading soil properties or impacting crop yields.

    Acknowledgements

    We thank Nebraska Environmental Trust and the USDA SARE for their funding of this research. Also, we thank Kallie Calus, McKenna Brinton, Benjamin Hansen, Kristen Ulmer, Zachary Carlson and Fred Hilscher for their work on this research. Additionally, we thank Mark Schroeder and team at the Eastern Nebraska Research and Education Center for field management, Husker Genetics for acquiring and planting oats, Elizabeth Jeske for soil microbial analysis, and all undergraduate and graduate students assisting with fieldwork.

  • The Plant Microbiome: An Introduction

    Written by Joel Williams

    Soil Biology – two words that have become commonplace in the lexicon of the farming community in recent years, and rightly so. Biological interactions are of course as important as the physical and chemical interactions that make up the fascinating medium we call soil. Among all the groups of organisms that live in soil, there has been a particular growing focus on the microorganisms; interest in which gained significant traction as we began using more powerful tools to study them – genetic and molecular tools for example. As we began to unearth the world of the soil microbiota, we quickly realised just how vast and complex this underground universe really is – certainly much more so than previously thought. In dealing with this complexity, one branch of research has shifted attention away from the soil to study the microorganisms that are associated with plant tissues – enter the plant microbiome.

    The plant microbiome – also known as the phytomicrobiome – refers to the groups of microorganisms that are intimately and directly associated either on or within various plant tissues. The number and diversity of organisms that make up the plant microbiome is a fraction of what is found in the bulk soil, hence the emerging focus on studying this less complex plantassociated ecosystem. Please note, I use the words ‘less complex’ very cautiously here – arguably, there is nothing ‘less complex’ about it at all apart from having less diversity and density of organisms.

    I’m sure most readers will be familiar with the below ground community of microbes known as the rhizosphere but the above ground plant habitats are collectively known as the phyllosphere. These microbial communities consist of bacteria, archaea, fungi, viruses, algae, and occasionally nematodes and protozoa (these latter two are much more common down below in the rhizosphere but less so above ground). Bacteria are by far the most commonly found microbe above ground in terms of both numbers and diversity. All of these microbes that associate with the plant are either acquired from the environment (soil and atmosphere) or they are inherited from the mother plant via the seed.

    Within each of the plant associated habitats, some microbes live inside the plant tissues (endophytes) while others will remain outside of the plant, living on the surfaces (epiphytes). There is some overlap between the microbes that associate on various plant parts, but surprisingly, many of the species are totally unique and distinct from each other, fulfilling very specific roles and functions within each of their micro-habitats. Let’s briefly explore some of the different regions of the phytomicrobiome:

    Root microbiome – often referred to as the rhizosphere, this is of course the microbes who associate with plant root systems. Arguably the most well studied of all plant microbiomes, the organisms in the rhizosphere play particularly important roles for nutrient acquisition, plant immunity and resilience during environmental stresses.

    Shoot microbiome – the microbes that dwell in shoot tissues appear to be more closely related to the species found in the soil highlighting the soil as an important primary source of organisms which colonise the plant. The endophytes found in the shoot are highly mobile within the plant and are also commonly found in the seed – forming part of the seed microbiome for the next generation.

    Leaf microbiome – the leaf microbiome has been shown to influence photosynthesis and transpiration hence playing a vital role in plant development, particularly under difficult climatic and weather conditions.

    Flower microbiome – our understanding of the microbial communities that uniquely associate with flowers is far less when compared to other above ground plant habitats. This is particularly due to the fact that these attractive habitats receive more regular visitation by a diverse range of insects who facilitate transfer of other beneficial and pathogenic microbes; as well as inadvertently leaving a fingerprint of their own insect-associated microbiota. As you might guess, the organisms associated with flowers have been implicated in influencing plant reproductive success – they have even been shown to use flower scents (volatile organic compounds) as a food source and additionally induce distinct changes in the expression of a plants floral scents.

    Seed microbiome – like other parts of the plant, the seeds are also colonised with a diverse group of microbiota. At the end of reproductive development, the organisms on and within seeds act as a reservoir for the next generation and typically establish as endophytes in next years offspring. Functionally speaking, the seed microbiota release a range of metabolic substances that enhance germination and establishment as well as plant performance and productivity under stressful conditions. We will return to the seed microbiome in the next issue of Direct Driller and will expand on this article with a deeper dive specifically into the role of the seed microbiome.

    Altogether, the plant microbiome directly and indirectly influences plant performance, productivity and can support low input production systems. Direct mechanisms that support plant growth include nutrient supply via solubilisation from soil reserves or biological nitrogen fixation, as well as production of plant growth promoting hormones. Indirectly, plants can also recruit specific microbes to help them overcome various biotic and abiotic stresses – such as activation of beneficial microbes who can suppress pathogens or improve drought resistance.

    There is an increasingly prominent nudge towards reducing fertiliser and pesticide use in agriculture from both top-down (policy) and bottomup (consumer driven). There is significant potential in the use of DIY or commercial microbial inoculants to support this transition, however, many challenges remain regarding improving product consistency in field conditions. Central to achieving this is the need for a deeper understanding of the ecological processes and mechanisms that underpin the plant microbiome assembly and function. Addressing these knowledge gaps will no doubt help provide the necessary tools to support agricultures transition toward ecological and productive sustainability.

    References

    1. Understanding phytomicrobiome: A potential reservoir for better crop management. (2020). doi: 10.3390/su12135446

    2. Phytomicrobiome for promoting sustainable agriculture and food security: Opportunities, challenges, and solutions. (2021). doi: 10.1016/j.micres.2021.126763

    3. Plant microbiome: A reservoir of novel genes and metabolites. (2019). doi: 10.1016/j. plgene.2019.100177

    4. Toward Comprehensive Plant Microbiome Research. (2020). doi: 10.3389/fevo.2020.00061

    5. Microbiome selection could spur next-generation plant breeding strategies. (2016). doi: 10.3389/ fmicb.2016.01971

  • Where To Buy

    As a reader of the magazine, we are sure you appreciate good quality, nutrient dense food, but it isn’t always that easy to know where to buy from. We are introducing this feature to highlight those farms who are selling direct and therefore maximising their profits, not just benefitting the wider supply chains. We would hope you all will support them by buying something during the next year. If you would like your farm shop and website featured in future issues, then please drop us an email to info@directdriller.com

    Ardross Farm Shop Fife

    Home delivery service available in North East Fife

    The Pollock family warmly welcome you to their award winning farm shop nestled in the picturesque East Neuk of Fife. Looking over the beautiful Firth of Forth, Ardross Farm Shop reconnects you with fresh, local, inspiring food from the farm and the surrounding area along with an abundance of produce from Scotland’s natural larder. Arrive to a mouth watering display of freshly picked vegetables straight from our farm. Our cabbages are so fresh they squeak, our broccoli sparkles with the morning dew and our freshly dug carrots perfume the shop with a sweet earthy smell. Freshly baked local bread tempts you further inside where our fantastic team can tantalise you with an array of specially selected products for food lovers! Using our own traditionally reared beef, fresh vegetables and other local products our kitchen is always busy and filled with the smells of homemade raspberry jam, steak pies and a variety of burgers. However it is not only our own produce that makes our selection so delicious.

    Blessed with a wonderful selection of artisan products produced both locally and nationally we also stock fantastic free range eggs, rare breed bacon and local pork, world renowned venison, organic lamb and mutton, wild border game, delicious free range chickens, ready meals, British wines and beers, handmade chocolates, luxury jams and marmalades, divine puddings and ice creams to name a few. We are very proud of everything we stock and all of our products are tried and tasted by the family and many of our customers before they are included in our shop.

    Court Farm Rochester

    UK Wide Delivery

    Specialising in traditional beef and lamb native breeds raised outdoors, Court Farm Butchery and Country Larder offers a wide range of fresh and tasty meat. Because they butcher the whole bodies, they can supply you with just about any cut you could wish for – if you don’t find what you’re looking for in the shop email them and they will endeavour to get what you’re looking for. The Country Larder stocks a selection of preserves, sauces, speciality cheeses, Wessex Mill flour, Owlet apple juice and award-winning Simply ice cream from Ashford plus local fruit and veg from David Catt & Sons, and free-range eggs from Fairseat Farm. In house they make their own pies, pasties, sausage rolls and pork scratchings plus a selection of cold deli meats. The Linghams have been farming at Court Farm for three generations. Court Farm Butchery & Country Larder is a well-known brand in North Kent since opening to the public in the 1990s.

  • Farmer Focus – Chris Hollingsworth

    Harvest 2021 roundup at Hawk Mill, an East
    Anglian perspective.

    In my first Farmer focus piece, I am writing to you about a new company which will revolutionise our farming businesses and one I have become personally involved in. It’s a company called Farmdeals (you will have probably seen the adverts) and where better to start the journey than here at the Direct Driller magazine. The fastest growing farming publication on the planet and one of the very few farming journals where you get the real story not fake news.

    Agriculture is the last major industry left without an online digital trading platform, well that was until Farmdeals was born. The Farming Forum has teamed up with a software company called Future Farm. They bring to the table experienced engineers who have the knowledge and ability to build the right digital platform for our industry, that with the experience of the marketing team at the Farming Forum then we have the right structure to create a very successful online digital ordering platform. We can dramatically reduce the cost of every transaction and pass that on to our farmers. We can do this because a digital ordering platform requires considerably less labour to run it than a traditional buying group. This will reduce our costs so we can pass this on to our farmers or members with lower prices.

    There will be special offers, different payment terms, price updating. Deals where the price reduces as more product is sold and the savings are passed onto you. Where the price will drop depending on the how many farmers buy. We will encourage you all to do what we call ‘milk round ‘deals. An example of this is with fuel. We set up a 36,000-litre tanker delivery direct from the refinery to a particular area (minimum order for each farm would be 6000 litres). We can offer this at a 10% discount to conventional deliveries. This will incentivise you the farmer via your Facebook, Twitter or Whats app groups to build mini buying groups to trade with us, deals within Farmdeals. 

    All of this is designed to bring the manufacturer closer to the farmer, reduce the links in the chain between buyer and seller, optimise the price and give the farmer (whatever his size) more power in the marketplace. This doesn’t come as a long list of messages in your voicemail or endless emails to put in your delete box but instead in one easy to use app which you can view either on your mobile from the tractor seat or in the office on the laptop.The Farmdeals platform has been carefully designed to help you make the right choices. Yes, there will be some bumps in the road as the present cumbersome and expensive framework of buying and selling is slowly dismantled and yes there will be plenty of resistance from the trade.

    Farmers are traditional and not everyone is going to take to online digital ordering straight away. Some will still want to chat to their supplier and will be unwilling to complete their transaction with a couple of clicks on their mobile phone from the tractor seat. But hey, Rome was not built in a day. By now I am sure you are all thinking well good for you Chris so you are going to be making money out of your investment. Well true we are not going to do this for nothing but we all firmly believe, and this is written into the very heart and soul of the Farming Forum that we can start to disrupt agriculture’s current trading system and we can all benefit from it.

    Next time a salesman rings you on your mobile or worse still drives up to your farm just think who is paying for this? Between the manufacturer and you, how many middlemen are there all taking a margin out of the transaction? Farmdeals will allow us to trade at a considerably lower cost and pass that onto you the farmer, and as we build our membership base, we will be able to command better prices for everyone. I use the word member because in effect we are an Agricultural Buying Group, but maybe not one you would recognise.

    Currently there is no membership or joining fee, no levy on turnover and very small commission charges. What’s the downside? Well, the personal service will be different. Queries, questions etc will be dealt with mainly by our help/ chat lines. We will have staff available to help you, but you will be encouraged to use the online service first. Check out the web site and you will see how many products we already have, look at our prices and see how competitive we are. Currently we have Fuel, Ad blue, Oils and Greases, Fertiliser, Crop Nutrition, Agchem, Animal feed, Vet Meds, Machinery parts with many more to follow. So far, we have discussed the purchase side of Agriculture, well that’s not all we are planning to do. We started on the purchase side, but we are now building a Selling Platform and that’s where the story gets even more interesting. We want to build a much closer relationship between the farmer and the consumer.

    Very important and challenging in the fresh produce business but why not? If I was a livestock farmer producing high quality grass-fed beef, I would love to link up to a chain of restaurants who will buy direct from me and yes, they will pay a premium Farming is never easy and no more so than in today’s world. Farmdeals will help you to find new ways of reducing your costs of production and selling your produce at a better price.

    So come and look at what we do and sign up as a member. We are only a click away.

  • What Do You Read?

    If you are like us, then you don’t know where to start when it comes to other reading apart from farming magazines.
    However, there is so much information out there that can help us understand our businesses, farm better and
    understand the position of non-farmers. We have listed a few more books you might find interesting, challenge the
    way you currently think and help you farm better.

    Entangled Life: How Fungi Make Our Worlds, Change Our Minds and Shape Our Futures

    The more we learn about fungi, the less makes sense without them. Neither plant nor animal, they are found throughout the earth, the air and our bodies. They can be microscopic, yet also account for the largest organisms ever recorded. They enabled the first life on land, can survive unprotected in space and thrive amidst nuclear radiation. In fact, nearly all life relies in some way on fungi.

    These endlessly surprising organisms have no brain but can solve problems and manipulate animal behaviour with devastating precision. In giving us bread, alcohol and lifesaving medicines, fungi have shaped human history, and their psychedelic properties have recently been shown to alleviate a number of mental illnesses. Their ability to digest plastic, explosives, pesticides and crude oil is being harnessed in break-through technologies, and the discovery that they connect plants in underground networks, the ‘Wood Wide Web’, is transforming the way we understand ecosystems. Yet over ninety percent of their species remain undocumented. Entangled Life is a mind-altering journey into a spectacular and neglected world, and shows that fungi provide a key to understanding both the planet on which we live, and life itself.

    The Secret Network of Nature: The Delicate Balance of All Living Things

    The natural world is a web of intricate connections, many of which go unnoticed by humans. But it is these connections that maintain nature’s finely balanced equilibrium. Drawing on the latest scientific discoveries and decades of experience as a forester, Peter Wohlleben shows us how different animals, plants, rivers, rocks and weather systems cooperate, and what’s at stake when these delicate systems are unbalanced.

    The Hidden Life of Trees: What They Feel, How They Communicate 

    Are trees social beings? How do trees live? Do they feel pain or have
    awareness of their surroundings?

    In The Hidden Life of Trees Peter Wohlleben makes the case that the forest is a social network. He draws on groundbreaking scientific discoveries to describe how trees are like human families: tree parents live together with their children, communicate with them, support them as they grow, share nutrients with those who are sick or struggling, and even warn each other of impending dangers. Wohlleben also shares his deep love of woods and forests, explaining the amazing processes of life, death and regeneration he has observed in his woodland.

    A walk in the woods will never be the same again.

    For the Love of Soil: Strategies to Regenerate Our Food Production Systems

    Learn a roadmap to healthy soil and revitalised food systems for powerfully address these times of challenge. This book equips producers with knowledge, skills and insights to regenerate ecosystem health and grow farm/ranch profits. Learn how to:- Triage soil health and act to fast-track soil and plant healthBuild healthy resilient soil systemsDevelop a deeper understanding of microbial and mineral synergiesRead what weeds and diseases are communicating about soil and plant health-Create healthy, productive and profitable landscapes.Globally recognised soil advocate and agroecologist Nicole Masters delivers the solution to rewind the clock on this increasingly critical soil crisis in her first book, For the Love of Soil.

    She argues we can no longer treat soil like dirt. Instead, we must take a soil-first approach to regenerate landscapes, restore natural cycles, and bring vitality back to ecosystems. This book translates the often complex and technical know-how of soil into more digestible terms through case studies from regenerative farmers, growers, and ranchers in Australasia and North America. Along with sharing key soil health principles and restoration tools, For the Love of Soil provides land managers with an action plan to kickstart their soil resource’s well being, no matter the scale.“For years many of us involved in regenerative agriculture have been touting the soil health – plant health – animal health – human health connection but no one has tied them all together like Nicole does in “For the love of Soil”! ” Gabe Brown, Browns Ranch, Nourished by Nature. “William Gibson once said that “the future is here – it is just not evenly distributed.” “Nicole modestly claims that the information in the book is not new thinking, but her resynthesis of the lessons she has learned and refined in collaboration with regenerative land-managers is new, and it is powerful.” Says Abe Collins, cofounder of LandStream and founder of Collins Grazing. “She lucidly shares lessons learned from the deeptopsoil futures she and her farming and ranching partners manage for and achieve.”The case studies, science and examples presented a compelling testament to the global, rapidly growing soil health movement. “These food producers are taking actions to imitate natural systems more closely,” says Masters. “… they are rewarded with more efficient nutrient, carbon, and water cycles; improved plant and animal health, nutrient density, reduced stress, and ultimately, profitability.”In spite of the challenges food producers face, Masters’ book shows even incredibly degraded landscapes can be regenerated through mimicking natural systems and focusing on the soil first. “Our global agricultural production systems are frequently at war with ecosystem health and Mother Nature,” notes Terry McCosker of Resource Consulting Services in Australia. “In this book, Nicole is declaring peace with nature and provides us with the science and guidelines to join the regenerative agriculture movement while increasing profits.”Buy this book today to take your farm or ranch to the next level!

    Quality Agriculture: Conversations about Regenerative Agronomy with Innovative Scientists and Growers

    An increasing number of farmers and scientists believe the foundational ideas of mainstream agronomy are incomplete and unsound. Conventional crop production ignores biology in favor of chemical interventions, leading farmers to buy inputs they don’t need. Fertilizer recommendations keep going up, pest pressure becomes more intense, pesticide applications are needed more often, and soil health continues to degrade. However, innovative growers and researchers are beginning to think differently about production agriculture systems. They have developed practices that regenerate soil and plant health and that deliver much better results than mainstream methods.

    Using these principles, growers are able to decrease fertilizer applications, reduce disease and insect pressure, hold more water in the soil, improve soil health, and grow crops that are more resilient to climatic extremes, increasing farm profitability immediately. As a leading agronomist and teacher, John Kempf has implemented regenerative agricultural systems on millions of acres across many different crop types and growing regions with his team at Advancing Eco Agriculture. In Quality Agriculture, John interviews a group of growers, consultants, and scientists who describe how to think and farm differently in order to produce exceptional results in the field. Their remarkable insights will challenge you, encourage you, and inspire gratitude and joy for the rewards of working with natural systems.

    A Soil Owner’s Manual: How to Restore and Maintain Soil Health

    A Soil Owner’s Manual: Restoring and Maintaining Soil Health, is about restoring the capacity of your soil to perform all the functions it was intended to perform. This book is not another fanciful guide on how to continuously manipulate and amend your soil to try and keep it productive. This book will change the way you think about and manage your soil. It may even change your life. If you are interested in solving the problem of dysfunctional soil and successfully addressing the symptoms of soil erosion, water runoff, nutrient deficiencies, compaction, soil crusting, weeds, insect pests, plant diseases, and water pollution, or simply wish to grow healthy vegetables in your family garden, then this book is for you.

    Soil health pioneer Jon Stika, describes in simple terms how you can bring your soil back to its full productive potential by understanding and applying the principles that built your soil in the first place. Understanding how the soil functions is critical to reducing the reliance on expensive inputs to maintain yields. Working with, instead of against, the processes that naturally govern the soil can increase profitability and restore the soil to health. Restoring soil health can proactively solve natural resource issues before regulations are imposed that will merely address the symptoms.

    This book will lead you through the basic biology and guiding principles that will allow you to assess and restore your soil. It is part of a movement currently underway in agriculture that is working to restore what has been lost. A Soil Owner’s Manual: Restoring and Maintaining Soil Health will give you the opportunity to be part of this movement. Restoring soil health is restoring hope in the future of agriculture, from large farm fields and pastures, down to your own vegetable or flower garden. 

  • Introduction – Issue 13

    Substituting the plough, power harrow, sub-soiler and cultivator for a one-pass machine makes sense for any farm. Creating a soil environment which allows nature to do the hard work is, as we all know, beneficial to farm profitability, farming lives, greenhouse gas emissions, birds and bees. These benefits fit with the thinking of Defra minister George Eustice, the current incumbent of a job which has been one for sprinters rather than stayers.

    He followed Theresa Villiers, minister for 7 months, preceded by Michael Gove (2 years 1 month), Andrea Leadsom (11 months), Liz Truss (2 years), and Owen Paterson (1 year 10 months). Gove called for the Agriculture Bill creating the slogan ‘public money for public good’, and Eustice has the task of making this happen. Though from a Cornish fruit farming family, Eustice is a politician through and through. Having served a five year stint in Defra he described the EU Common Agricultural Policy as “a basket case”, and it is clear that the move to a better system which rewards environmental work is a priority, but not straightforward.

    There remains a lack of detail on what qualifies as public goods. A recent article in Politics Home magazine The House (March 9, 2021) explained ‘…post-Brexit the (UK) government wants to see sustainable, subsidy-free farming, that only rewards people financially for improving so-called ‘public goods’. This means reward for improving the environment, animal health and welfare, and reducing carbon emissions.’ Author Kate Proctor says the majority of farmers in England will see a 5% reduction in income in 2021/22. Basic Payment is being phased out and ELMs phased in.

    The CLA sees a gap in the middle, which they are calling a ‘valley of death’. The newly created Sustainable Farming Incentive aims to reduce the impact. Eustice is wanting older farmers out so new blood can come in, saying we have to design future farm policies for the farmers of tomorrow. Incentives to get the oldsters out sounds logical, but has the danger of inflicting damage by loading young people with debt. Buying the farm from the older generation is far more expensive than inheriting it once they have passed on, thanks to Agricultural Property Relief. The minister appears to associate farm progress with technology and data – the province of young minds – whereas the really exciting revolution is the substitution of farming with chemicals to doing the job by biology, something that is understood by older and young farmers to an equal degree. Eustice (49) must be careful not to become too ageist.

    Defra has yet to set practical goals and outcomes; has yet to determine a farmer extension or education policy; remains unclear about cropping and many other issues that farmers have to decide on. Matching these to the environmental outcomes set for the industry to meet targets needs the involvement of many different stakeholders, and I include publications such as Direct Driller which I believe is one of the most important environmental publications in Britain. The value of diversity and the dangers of a one-size-fits-all farming policy to food production need remembering. The Covid pandemic shows that biblical events are ready to strike. These might include the potato famine, the failure of the groundnut scheme in East Africa or collective farming in Russia and its satellites. The variability of UK farming methods, and the choice of individual farmers to do what they see best, is something to be applauded and maintained.

  • Work from Home

    We have featured articles on many different types of robots that will at some point influence the way we farm, but have the simple wins in the arable world have been ignored? Possibly because they don’t benefit the trade, maybe they are simply a bad idea or maybe a bit of both. However, if the pandemic has shown us one thing, working from home is possible for a lot of industries. But the agronomists among us have not had this luxury.

    They, like the farmers, still have to get dressed every day and drive somewhere. Apparently, nothing can compare to actually walking a field. Except for the fact I am being told by every robot manufacturer and drone app company out there, that it can. Why are companies so slow to offer you a digital agronomist? A cheaper version of a walked agronomist, who you have to send the pictures and information to and they help you make decisions.

    My feeling is that it’s a liability problem.

    Someone is responsible for whether the crops in a field grow or not. If an agronomist is walking a field, they can make the decision to turn left or right based on what they are seeing right now. They take on the responsibility. But if they aren’t there, someone else has to feed them the information. Can they really zoom into one of 500 pictures you send them every week and do the same job. I’m not sure they can and even if it was possible, who knows if they have been sent the “right” pictures for analysis.

    The question then moves onto, who is at fault when something goes wrong. Do farmers really want the extra risk of something going wrong just to save a few £s per hectare walking fee? Agronomists, keep you wellies at the ready, we still need you on farm!

  • Living Mulches For Sustainable Cropping Systems: A Step Towards ‘Regenerative Organic’ Agriculture In The UK?

    Written by Dominic Amos, Crops Researcher at the Organic Research Centre

    As based on information found on Agricology (www.agricology.co.uk)
    Reducing tillage and chemical inputs can be beneficial for soil and the environment, so could a permanent clover understorey acting as a ‘living mulch’, moving towards a perennial soil cover, offer a practical solution to reducing inputs and having more sustainable cropping systems?

    This is the question being investigated by a group of arable farmers attempting to implement the system for input reduction through an Innovative Farmers Field Lab. Inputs in this case could be agrochemicals and fertilisers or tillage and diesel, depending on the current farming system. These are the two starting points of the group who are either already practicing long term conventional no-till looking to reduce chemical inputs or established organic farmers looking to reduce tillage. There is an imperative from both perspectives but whilst both farming systems can learn from each other, the challenges for each of making an alternative system work are quite different due to the respective starting points.

    What is a living mulch?

    A living mulch (LM) system includes aspects of several common farming practices and concepts such as cover cropping, intercropping, undersowing, and mulching, with the system building upon these approaches with full integration as a cropping system. In practical terms it requires the establishment of a perennial forage legume to provide protection for the soil as a (semi-)permanent ground cover common to perennial cropping systems such as top fruit or viticulture. It is rarely used in annual cropping systems due to the competition with the cash crop so the question is, is it compatible with annual arable cropping? The LM approach differs from the well-known organic reduced tillage systems with the roller crimper pioneered by Rodale where the idea is to terminate high biomass cover crops to provide a dead mulch that helps suppress weeds for establishing cash crops. In truth this system relies on certain climatic conditions generally not experienced in the UK.

    Services and benefits

    The LM system can be expected to deliver a number of key ecological services to the agroecosystem including nitrogen (N) accumulation, weed suppression, enhanced soil physical characteristics (and trafficability), soil protection, catch cropping function, self-regulation of pests and disease, increased soil fertility and increased biological diversity. At this stage it is also worth considering that many organic farms already have weeds that provide some of the ecosystem services but with less control over species, so the mulch could be thought of as a ’designated weed.’¹

    The two key services that need to be delivered for a LM system to best contribute to agricultural productivity are weed control and N supply.Living mulches offer a potential alternative and sustainable strategy for these two provisions, although the amount of N made available for the cash crop and level of weed control will be greatly influenced by management and by the season. Conventional notill systems may require supplemental N fertiliser to maintain crop yields. These two services offer an insight into the complexity of the system and the trade-offs (not necessarily unavoidable). There is a strong correlation between the mulch biomass and weed suppression and N accumulation services but high biomass will offer stronger competition against the cash crop. 

    This management balancing act between cash and cover crop growth throughout the season is the fundamental challenge to a working LM system – in order to harness the benefits of this permanent cover whilst limiting the risks to productivity. If enhanced soil health, increased biodiversity (above and below ground) and reduced emissions can also be delivered, then a more sustainable and resilient farming system is the prize on offer. There is a word of warning at this point since much of the research already conducted in this area including recent work at Stockbridge Technology Centre through the DIVERSify and TRUE projects demonstrate large and potentially unsatisfactory grain yield losses from arable LM systems that will require careful thought and management to make successful.

    Enhancing beneficial interactions and managing competition

    The ecological concepts that underpin the cereal-forage legume system are known as niche complementarity and facilitation and the system works on the principle of functional diversity. In theory this means the two ‘parts’ of the system work in harmony but in practice, particularly from the organic perspective, making the system work has proved elusive. This is a complex issue but a key factor is the interactions of the cash and the cover crop, and the ability to manage and manipulate the competitive advantage of the cereal. In fact, from an agroecological perspective, boosting the cash crop and weakening the cover crop at key times in the growing season is a real challenge especially since, as previously mentioned, weakening the mulch actually contradicts its key service provisions. Small doses of N fertiliser and herbicides can selectively weaken the clover and hand the competitive advantage to the cereal but of course these options are unavailable for organic farmers.

    Farmer-led trials with Innovative Farmers

    There are several areas that are being explored by farmers through the field lab:

    1. Mulch species and establishment

    2. Cash crop species and establishment

    3. Mulch management (both externally and in crop)

    Mulch and crop species selection

    Different combinations of approaches are being tested with the farmers – utilising their knowledge of the context of their farms and systems and taking wider considerations into account to choose the most appropriate options for them. This will facilitate the peer to peer exchange and progress on living mulch best practice. In the field lab trials the farmers have used a mix of wild white and smallmedium leaf clover recommended by Cotswold Seeds, that has been selected to remain prostrate and provide persistence but with limited longer term competition against the crop. The clovers were established through undersowing into cereal crops in spring 2020.

    Direct drilling cereal crops into the pre-established stand of clover took place last October with winter oats and rye selected for their competitive abilities. How and when, or even if, to manage the mulch is a key question being explored. There are opportunities to mow or graze before drilling the cash crop, or even during the foundation phase of cereal growth in the late winter. One of the most interesting questions is whether the mulch needs to be selectively managed later during the growing season and how this might be done? An option being considered is inter-row mowing, though commercial equipment is not yet available.

    In conclusion

    This fine balance of managing and manipulating the dynamics of a cash and cover crop to the advantage of the cash crop whilst maximising the services from the cover crop is what in the end will determine the successful implementation of what is on paper a sustainable and resilient way to farm the land – albeit one that will require a system redesign approach. In the end the system will rely on the knowledge and ingenuity of the farmers and the peer to peer learning to turn the theory into successful practice.

    Agricology is an independent collaboration of over 40 of the UK’s leading farming organisations sharing ideas on sustainable farming practices. We feature farmers working with natural processes to enhance their farming system, and have a wide range of farmer videos on our YouTube page. We also share the latest scientific learnings on agroecology with the farming community from our network of researchers. Our website hosts over 400 articles on different agroecological practices. Subscribe to the newsletter or follow us on social media @agricology to keep up to date and share your questions and experiences with the Agricology community.

  • Where There’s Muck There’s Brass!!

    Written by Jon Williams from www.thesoilexpert.co.uk

    An old adage of farming practice we need to pay attention to with our management of our slurry and manures for the benefit of the environment and our farm business.

    With increasing attention focused on the environmental impact of food production methods currently in practice and the industrialisation of agriculture via the dependency on this development from synthetic fertilisers and chemical cocktails which can be considered as a chemical experiment, it is becoming increasingly clear that this form of food production is resulting in depleted soils, of soil life and nutrients with the result that the food produced no longer has the nutrient density or health benefits gained from a more balanced living soil system more in harmony with nature.

    The current industrial model of agriculture must take a new more holistic approach considering not just the short term gains but also the longer-term impacts of such methods of production and one way to assist in this shift is to change our attitude toward slurry and manure, transforming this from a waste product into one that is an asset. The good news is that Governments are prepared to back this with financial incentives under the heading of providing “Public Goods”

    The science of slurry and manure

    To achieve the best outcome an understanding of the science of slurry and manure is useful and this combined with it’s impact on the soil when it is applied in different forms such as anaerobic or aerobic or fermented products. 

    Slurry

    Anaerobic digestate or slurry from a crusted or covered pit will be anaerobic and will have more volatile gases present such as Nitrous oxide, Methane, Ammonia and Hydrogen Sulphide and to overcome the immediate environmental impact of these gases it is suggested that they must be injected into the soil to reduce the impact of these gasses in the air, some of which are being blamed for creating particulate matter damaging Human lung tissue. All injection of slurries must be done when soil conditions are such that they are not holding water which will result in further damage to soil life and also soil structure.

    However there is a more serious long term implication when such a product is injected into soil. Being anaerobic the pH of Digestate in particular is above 8 (ref Wrap digestate and compost use in agriculture Feb 2016) and so the product is caustic and is detrimental to soil life as it burns worms which happen to like to live in an aerobic soil and so they take a hit but can get out of the way when injected in slots.

    The overall impact is that the soil is flooded with available ammonia and there is a flush of Nitrogen similar to when large amounts of fertiliser Nitrogen is applied and Rothamstead have just released the results of 40 years of research showing that the more available N that is applied to soil the more it distorts the genetic expression of soil organisms. (ref Andrew W Neal) So the overall impact of anaerobic digestate or slurry from a crusted and untreated or covered store has a negative effect resulting in the soil becoming more dependent on brought in synthetic nutrients as most of the Nitrogen is immediately available.

    One alternative to this is to render the slurry to being aerobic and this can be achieved in several ways with huge benefits to the environment as well as to soil life. Firstly let’s look at what is the product we are dealing with and to understand how to manage it for our best advantage and to have the least impact on the environment. Slurry generally has a low fibre content and a high Nitrogen to Carbon ratio and is bacteria dominated with little fungi present and so in that respect it is an imbalanced product as far as the soil is concerned, however we have to make the best use of it.

    The nitrogen content can vary according to the amount of protein fed to the stock producing the slurry because livestock are fairly inefficient at converting protein into meat or milk and so the higher the protein diet can produce a higher value slurry and it is therefore more worthwhile to invest in stabilising the nutrients held within that particular slurry.

    One of the amendments that can be used to retain this value in our slurry is to render the product to become aerobic and this can be achieved in several ways, such as a mechanical bubbler, or by adding a catalyst such as Plocher and the result of these amendments is that as the slurry becomes aerobic the pH is dropped towards neutral with the aerobic bugs creating Carbonic acid which in turn stabilises Ammonium which becomes available for plant use in a similar form as comes from fertiliser. However not all the nitrogen is in this available form as there is a portion that is retained as Organic Nitrogen as the slurry has become a stable product and is now not breaking down further as it would in a digester. The organic Nitrogen is slowly released during the months following the application and so there is not the flush of available Nitrogen as seen from Anaerobic digestate and the plant is fed in a more natural way which can have the effect of reducing the incidence of disease and better performance if conditions become dry.

    Other methods of lowering the pH of slurry are being carried out with the addition of sulphuric acid which does stabilise the nutrients via the same process of lowering the pH of the slurry but does not render the slurry to being aerobic and of course there is the health and safety issues of handling and applying such a product and its corrosive nature damaging concrete slats and retaining wall.

    However there is a relatively new method of lowering the pH from about 7.2 to 6.8 which is done by the addition of” Effective Microorganisms” which encourages a fermentation of the slurry. This concept was developed in Japan by a Professor Higa in 1982 who coined the term “Effective Micro-organisms” when he discovered the mix of 80 microbes which work synergistically to ferment organic matter retaining the nutrients in a stable form. The fermentation actually pre-digests the organic matter making it immediately available to the soil organisms and thus to the plants. 

    This product can be used with a covered slurry pit which I understand is the proposal for management of slurry stores in England. E.M. is based on the principal of anaerobic fermentation and by lowering the pH, can retain the value of the nutrients within the slurry which when applied to the soil is already in a more mature form which allows the soil organisms to utilise it without using a lot of energy and there is no loss of volatile gasses into the environment. This treated product might no longer mean that you will be required to inject it into the soil which reduces the fossil fuel use of slurry application as well as wear and tare on machinery.

    Manure Management.

    Having a different Nitrogen to Carbon ratio this product has a higher fibre level and therefore is more conducive to the establishment of a more balanced product enhancing both the Bacteria and the Fungi within the product and consequently when applied to the soil creating a more balanced soil. Currently on most farms this product is not amended in any way and under the proposed new legislation may need to be incorporated into soil with 24 hours of application. This of itself has an environmental impact by the very nature of ploughing it in there will be a further release of CO2 into the atmosphere but the aim of this protocol I suggest is to reduce the ammonia going off into the environment thus lowering its potential impact on Human health.

    So from this we can assume that untreated manure releases volatile gasses including Ammonia and that there is considerable potential benefit in stabilising those nutrients. Most farms still leave manure in a heap outdoors and un covered releasing volatile gasses and allowing nutrient run-off, and even if an element of aerobic composting is carried out there is a further release of CO2 into the atmosphere with considerable losses. Therefore the way we currently manage manure needs to be considered.

    These issues can all be dealt with by treating the manure with Effective Micro-organisms, known as Bokashi, which again ferments the manure stabilising the valuable nutrients including the ammonia and so the need for ploughing after application will not be necessary and manure application can be carried out on Min -tilled soils which will have multiple environmental benefits, retaining carbon as well as enhancing soil life and crop performance.

    The product can be applied to the manure as it builds up in the sheds layering it by spraying it on the fresh bedding when added and the animals will tread it in creating an anaerobic bed but stabilising the Ammonia reducing it’s potential impact on animals within the sheds. Alternatively the sheds can be emptied and as the pile builds up the product can be applied in layers and then covered with a silage sheet for the fermentation to take place which is completed within 6 to 8 weeks leaving a mature product which will be soon converted into soil as it is quickly utilised by the soil life. This having a further benefit in feeding the soil Micro-Biome with a balanced product having both beneficial bacteria and fungi present and so the soil becomes less reliant for cropping with synthetic fertilisers and plants are less stressed with the potential of reduced disease.

    An added benefit is having more product to spread on the land because the losses are dramatically reduced with no Co2 going off into the atmosphere during the process of maturation and there is more carbon entering the soil thus enhancing the nutrient and water holding capacity of the soil as well as achieving greater Carbon sequestration, a “Public Good.”

    The micro-organisms in Bokashi can be considered as the new meaning of culture in the word agriculture and is already used by 75% of all Dutch farmers and I see no reason why it cannot achieve similar levels of use here in the UK. So a mind shift in thinking and a new attitude towards slurry and manure can result is a win, win situation both for the environment and the farmer.

    Available from Agriton Ltd.

  • When The Medicine Feeds The Problem

    Do synthetic fertilisers and pesticides exacerbate pest and disease threats? A session at the Oxford Real Farming Conference looked at the science behind the claim

    Written by Mike Abram

    The use of synthetic nitrogen fertilisers is increasingly under the microscope, driven mostly by its impact on the environment and as a major contributor to greenhouse gas emissions on arable farms. But presentations at the Oxford Real Farming Conference also pointed how its use, and that of pesticides, might be exacerbating pest and disease problems by enhancing the nutritional quality of crops for those pests and pathogens. Nitrogen is the nutrient required in the highest quantities for plants, and was vital for crop growth and development, explained Daisy Martinez, a researcher at the University of Edinburgh.

    “Plants take up nitrogen from the soil, and use it to synthesise amino acids – small, molecular building blocks – and then use it to build proteins. Proteins are the stuff of life alongside carbohydrates.”

    But when the crop was flooded with too much soluble nitrogen, in the form of synthetic fertiliser, the concentration of amino acids expanded faster than the plant could make proteins, she said.

    “So the plant is rich in amino acids, which are valuable nutrient sources for pests and pathogens. It’s like saying welcome to the banquet.”

    A literature review of scientific papers found some insect pests laid more eggs on crops fertilised with high nitrogen rates, larvae developed more rapidly to a larger size and were more likely to survive and reproduce, she said.

    “In the literature we found many examples of significantly denser populations of insect pests fertilised with high rates of nitrogen fertiliser compared with lower rates.”

    Similar was true of fungal and bacterial pathogens, where crop disease severity measured by things like microbial colony-density, disease lesion area or spore production, increased where nitrogen was used at high rates, she said.

    “These findings support the idea that intensive fertilisation with synthetic freely available nitrogen feed the problem with pest or pathogen damage by enriching the quality of our crops through the availability of nutrition.”

    These findings supported the conclusions of a relatively littleknown French agronomist Francis Chaboussou (1908 – 1985).

    But there was more to the story as just as humans have defences against diseases, so do plants, she said. These ranged from physical defences, such as waxy protected surface on leaves or strengthened cell walls, to producing defensive chemicals.

    “Some of these chemicals are toxic and kill the pest or pathogen outright, while others make the crop less palatable, so the crop is not worth eating or impossible for the nutrients to be absorbed by the pathogen or pest.”

    The chemicals could be split into two broad groups – nitrogen-containing or carbon-based compounds, she said. “The natural production of these chemicals can be enhanced or suppressed in response to nitrogen fertilisation.

    “High nitrogen availability typically decreased production of the carbonbased defences, while stimulating the production of nitrogen-based defences. “But whether that is good or bad for the crop depends on the context, and on the crop. There are many of these compounds, and particular chemicals can be more or less crucial in different crops. “And it gets even more complicated as the pests or pathogens can be more or less sensitive to these chemicals as well so you might get an insect that is really deterred by one chemical but isn’t sensitive to another. It’s just a really complicated area,” she said. “But the main message is that nitrogen fertilisation doesn’t only just affect the crop’s nutritional quality, and therefore their susceptibility to pests and pathogens, it also affects their defences. “It is not possible to say more N is good or bad for defence, it depends on context, but it is an area that needs more research,” she concluded.

    Do pesticides also enhance the nutritional quality of crops for pests and pathogens?

    The research team also looked at whether applying pesticides also enhanced the nutritional quality of crops for their pests and pathogens. “This is a little paradoxical – pesticides are applied to crops to suppress, deter or kill pests or pathogens, and should be minimally harmful to crops in the process,” Daisy said.

    The study’s hypothesis was that pesticides counterintuitively by their impact on the crop’s internal biochemistry might actually benefit pests and pathogens by improving their diet.

    “We looked at several studies which showed applying pesticides resulted in several significant biochemical changes in the crop’s tissues. These changes are akin to others that are commonly seen in plants under stressful conditions. “The crop is able to cope with the stress – it doesn’t keel over, but the outcome of these metabolic shifts is the accumulation of amino acids, especially nitrogen rich ones. “And these are valuable, nitrogen-rich nutrition for pests and pathogens,” she explained.

    “While these studies were not designed to test the effect of the biochemical changes on crop susceptibility to pests and pathogens, our tentative hypothesis is they might make use of this pesticide-stressed biochemical state in the crop for their own benefit.”