The Inevitability of AI Quality Control

Member News
The views expressed in this Member News article are the author's own and do not necessarily represent those of Agri-TechE.

Stand in a spinach field at 6:30 in the morning, and you will see both the brilliance of modern agriculture — and its tension.

Spinach grows fast. Sometimes a 24-day cycle from seed to harvest. Harvest too early, and the yield suffers. Too late and leaves lose value. The harvest decision itself is already an act of quality control. Once the machine starts moving, people walk ahead of it scanning the ground for anything that doesn’t belong — irrigation fragments, plastic, rogue weeds. Behind them, hundreds of kilograms of leaves are cut per minute. Millions of dollars are spent on quality control to ensure supermarket specifications are met.

The system depends on human vision. And that dependence is beginning to strain, particularly with labour shortages. Spinach, more than most crops, exposes something the industry rarely articulates clearly.

 

Quality Is Not Absolute

Article content

Fresh produce is biological. It varies by nature. No two leaves are identical. No two harvests are identical. Quality is a human framework imposed on nature to facilitate trade.

Customers expect consistency and quality. But quality is not a scientific constant. It is a commercial boundary applied to biological variability. When supply is abundant, tolerances tighten. When supply is constrained, they relax. Specifications are negotiated against reality.

Two experienced inspectors can assess the same batch and differ slightly — both defensible. Quality Assessment in fresh produce is largely subjective. Buyers and sellers rely on this flexibility to keep markets functioning when nature’s supply is unpredictable.

But subjectivity comes at a cost. Without objective quality measurement, interpretation drives price — leading to disputes, unfair practices, and significant food waste that ultimately harms both growers and consumers.

Contrast this with the trade of minerals, where the key attributes of value are measured precisely and shared transparently. When measurement is objective, trade becomes clearer, fairer, and far more efficient.

Article content

In the context of absolute standards, trust becomes an essential ingredient but is quickly eroded through disputes. The expansion of verification, inspection process and documentation adds costs, time, energy and friction, but does not resolve the fundamental issues arising out of subjectivity. This subjectivity is a tax in the agri-food chain.

Precise, transparent, digitally shared assessment reduces that tax. When both sides see the same structured data, negotiation becomes calibrated (based on verifiable data) rather than positional. Disagreements shrink from subjective debate to measurable variation.

AI will replace QC with Assessment

Article content

Traditional QC is structured as a gate — often operated by the buyer who optimise from the purchasing side and bears little of the cost of rejections. This is possible only because of the subjectivity of current manual QC processes.

Buyers work primarily on binary decisions: accept or reject when supply is pentlify. The seller has to bear the cost of rejection, which often includes disposal costs and in many cases, the seller negotiates a markdown and in some cases, provides the goods without charge. In Australia, “19% of rejected produce was recorded as being given away for free after rejection.”

Current QC processes are too crude for biological systems, extracting a heavy price, with around one-third (34%) of Australian vegetable growers now considering leaving the industry, according to the AUSVEG Industry Sentiment Report.

When quality is measured precisely and early — at or near harvest — produce can be segmented intelligently. Premium leaves move to high-spec retail, while slightly lower grades flow to processing, food service, or local markets. Supermarkets themselves often flex their standards when supply is tight rather than leave shelves empty.

AI assessment can manage this flexibility fairly and transparently, matching supply and demand through measurable — yet adaptable — quality thresholds.

Instead of discovering mismatches late in the supply chain, where waste becomes unavoidable, segmentation can happen upstream, helping growers maximise the value of the labour and resources already invested. What agriculture needs is not more crude QC, but assessment.

Turning Inspection into Infrastructure

Article content

Historically, quality control in fresh produce has been mandated by buyers and applied before dispatch and again at receipt — often by two different inspectors relying on subjective judgment. Spoilage during transportation adds yet another layer of variability.

The result is predictable: disputes, rejected shipments, and waste.

AI assessment changes the economics of this process. AI’s tireless eyes can inspect every leaf, every fruit, every vegetable, enabling assessment at unprecedented scale and accuracy across the entire supply chain.

Quality can now be verified both at dispatch and at receipt using the same standards, dramatically reducing disputes. And through mutual agreement, these standards can flex when supply conditions require it — allowing markets to balance supply and demand without compromising transparency.

QC therefore, stops being a buyer-managed filter and becomes a shared quality verification infrastructure. AI creates a common operating layer through which supply, demand, tolerance, and pricing can be aligned transparently and fairly.

This shift is not speculative — it is inevitable. Systems that reduce transaction costs, improve profitability, and reduce waste are always adopted.

Originally posted in LinkedIn – https://www.linkedin.com/pulse/inevitability-ai-quality-control-sivam-krish-ao7nc/

Dr Sivam Krish, GoMicro CEO, preparing the second GM Exceed unit for dispatch from Adelaide

 

Sivam Krish Reinventing Quality Control With AI | Founder, GoMicro | GenAI Pioneer & Keynote Speaker

  • *I have permission from the copyright holder to publish this content and images.

Foliar nitrogen fixing spray: what our first BactoStym Nitro results show

Member News
The views expressed in this Member News article are the author's own and do not necessarily represent those of Agri-TechE.

What we tested

We wanted to look at foliar nitrogen support in a clean and controlled way, so we set up a comparison in a nitrogen-free growth medium. One series received BactoStym Nitro. The second series received a market-leading foliar nitrogen-fixing benchmark. (We then sampled both series over time and asked an independent external laboratory to analyse the nitrogen profile.)

The goal was simple: remove added nitrogen from the system, then see how key nitrogen forms changed over time.

What the first results showed

  • The clearest signal came from ammonium nitrogen.

In the BactoStym Nitro series, ammonium nitrogen rose strongly through the test window, moving from 1.5 at T0 to 35.7 at T1, then to 60.9 at T2.

In the market-leading benchmark series, ammonium nitrogen stayed much lower, moving from 3.0 at T0 to 4.7 at T1, then falling to 0.6 at T2.

  • We also saw a difference in Kjeldahl nitrogen.

The benchmark series trended down from 223 at T0 to 118 at T2. By contrast, the BactoStym Nitro series rose overall from 129 at T0 to 170 at T2.

  • Meanwhile, nitrite nitrogen stayed below the lab quantification limit in both series throughout the test.

In simple terms, the lab comparison showed a much stronger ammonium nitrogen trend in the BactoStym Nitro series than in the benchmark series.

Why we think that matters

A lab is not a field, and we want to be clear about that.

However, this kind of controlled test still matters. Because the growth medium contained no added nitrogen, it gave us a cleaner way to see whether measurable nitrogen forms built up over time.

That is why we see these results as important early evidence. They do not prove whole-field performance on their own. However, they do show a strong enough signal to justify serious on-farm validation.

What comes next

That next stage is already underway.

Last season, we started independent field trials of BactoStym Nitro through an accredited institution that runs recognised agronomic evaluations. Those results are now being processed, and we expect them in the coming months.

So, this is where we are today:

We have a controlled nitrogen-free comparison that showed a strong ammonium nitrogen response in the BactoStym Nitro series.

Now we are waiting for the independent field data that will show how that translates under practical farm conditions.

Why we are sharing this now

We are sharing this as a watch this space update from BactoTech.

Too often, biological products get discussed in broad claims. We would rather show the first controlled results clearly, explain what they do and do not mean, and then follow with field data when it is ready.

What BactoStym Nitro is designed for

BactoStym Nitro is a foliar microbiological spray designed to support nitrogen efficiency when crops do not respond as expected.

In practical terms, it fits the moment when:
– nitrogen is on,
– the crop still looks flat or patchy,
– and the grower wants a foliar biological support tool rather than another soil input.

Watch this space

We will share the independent field-trial results as soon as they are available. For now, the first message is clear: our controlled lab work showed a strong nitrogen trend in the BactoStym Nitro series, and the next step is real-world validation.

Read the full article here: https://bactotech.co.uk/foliar-nitrogen-fixing-spray/

  • *I have permission from the copyright holder to publish this content and images.

Azotobacter vinelandii: a practical look at free-living nitrogen-fixing biology in crop production

Member News
The views expressed in this Member News article are the author's own and do not necessarily represent those of Agri-TechE.

Nitrogen efficiency is one of the biggest challenges in crop production.

Growers want reliable performance, lower losses, and better value from every unit of applied nutrition. At the same time, the industry is under growing pressure to cut waste, improve resilience, and find practical biological tools that fit real farm systems.

One species that deserves more attention is Azotobacter vinelandii.

Azotobacter vinelandii is a free-living nitrogen-fixing bacterium found in soil. Unlike Rhizobium, it does not need to form nodules on legumes. Instead, it lives in the root zone and is known for helping convert atmospheric nitrogen into forms linked with plant growth. Research also links Azotobacter species with root support, plant-growth effects, and better nutrient availability.

Why this matters

This makes it interesting for more than one reason.

First, it brings value to the nitrogen-efficiency discussion. Second, it supports the wider shift from purely chemical input thinking towards systems that combine biology, soil function, and crop nutrition. Third, it raises important questions about how free-living microbial species can fit into practical crop programmes without overclaiming what they can do.

A practical view, not hype

At BactoTech UK, we have been looking closely at this species because we believe biology needs to be discussed in a more practical and evidence-led way.

The key point is this: Azotobacter vinelandii is not a magic replacement for agronomy. It will not solve compaction, poor drainage, or weak nutrition planning on its own. However, in the right setting, it may help support better nitrogen use, stronger root-zone activity, and a more resilient soil-plant system.

That is why we think the conversation around biological inputs needs to move beyond hype.

The more useful questions

Where does this biology fit best?
What field problems is it really helping with?
How should growers assess success?
And how do we connect microbial products to real crop outcomes rather than broad promises?

What we have explored

We have written a practical overview of Azotobacter vinelandii to explore those questions in more detail, including how it works in soil, how it differs from Rhizobium, where it may help most on farm, what it will not solve on its own, and why mixed microbial systems are becoming more interesting in current research.

Join the conversation

We would be very interested to hear from growers, advisers, researchers, and agritech businesses working on nitrogen efficiency, biological inputs, and root-zone performance.

What role do you think free-living nitrogen-fixing biology can REALISTICALLY play in future crop nutrition programmes?

Read the full article via the link: https://bactotech.co.uk/azotobacter-vinelandii/

  • *I have permission from the copyright holder to publish this content and images.

UK Precision Breeding Act – transforming crop development and food security

Member News
The views expressed in this Member News article are the author's own and do not necessarily represent those of Agri-TechE.

The UK’s agricultural sector is entering a new era with the implementation of the  Genetic Technology (Precision Breeding) Act 2023, positioning England as a European leader in agri-tech innovation. This landmark legislation opens the door for advanced breeding techniques like precision breeding, which promises faster, more accurate crop development to meet the challenges of climate change and global food security.

From traditional breeding to precision science

For centuries, plant breeding has relied on crossing two parent plants and hoping nature delivers the right combination of traits. While this process is guided by expertise, it involves uncertainty and can take decades to achieve desired results.

Precision breeding changes the game. Instead of waiting for chance, scientists make targeted adjustments to a plant’s existing genetic material—without introducing foreign genes. Unlike GMOs, which transfer genes from other species, precision breeding works within the plant’s own DNA, creating improvements that mimic what traditional breeding could achieve, only much faster.

How is precision breeding different from gene editing?

The term gene editing was widely used in the past, but the scientific community now prefers precision breeding to avoid confusion with genetic modification (GMO), which involves adding foreign DNA. Precision breeding simply accelerates natural processes without introducing external genetic material.

Speed and accuracy: Cutting development time by a decade

One of the most significant advantages of precision breeding is speed. Experts estimate it can reduce the time to develop a new variety by 5–10 years, accelerating innovation for growers and consumers alike. This efficiency is crucial as the global population approaches 10 billion and the demand for resilient, high-yield crops intensifies.

Traditional breeding often introduces unintended genetic changes, while older techniques like mutagenesis—used since the 1960s—cause widespread, random modifications. Precision breeding avoids these pitfalls by making defined, targeted changes, ensuring better outcomes for farmers and the environment.

Legislation unlocks innovation

The UK’s new regulatory framework makes it easier to test and commercialize precision-bred plants. This science-led approach supports sustainable agriculture by enabling crops that are more resistant to disease, better adapted to climate extremes, and capable of producing higher yields with fewer inputs like fertilizers and pesticides.

As policymakers and industry look for ways to futureproof the nation’s food system, the conversation is increasingly shifting from whether we should adopt new breeding technologies to how quickly we can deploy them responsibly. The pressures driving this shift are not abstract—they’re felt in everyday life, from rising food prices to the growing unpredictability of global supply chains. Against this backdrop, the role of precision breeding becomes clearer: it is not simply a scientific advancement, but a practical response to a world where food security can no longer be taken for granted.

Elsoms_26March25_071-768x512
Rodrigo-Lab-RandD

Rodrigo Echegoyén-Nava, Elsoms Head of Research and Lab Services, captures this reality succinctly:

“We’re currently living in a world that constantly presents challenges in nearly all aspects of our lives. You might not have the newest flagship model phone, stop your news feed or follow your favourite musician on social media, but you will still need to eat something every single day.

Food security has become one of the main concerns globally. Precision breeding emerges as an additional tool to allow breeders and scientists develop higher yield, more resilient plant varieties, by exploiting crops at their full potential.”

Addressing public perception

Despite its benefits, precision breeding faces misconceptions. Many assume it’s radically different from traditional breeding, but in reality, it’s a more precise version of what breeders have done for millennia. There’s nothing extra left in the plant, no foreign DNA—just improvements that nature could have produced over time.

Why it matters

Without continued investment in plant breeding, agriculture risks stagnation. As David Coop, Elsoms Managing Director warns:

“If no company can afford to produce new varieties, we will simply have to make do with what we’ve already got. Nature will catch up with us, and we won’t be able to produce enough food for a growing population.”

Precision breeding offers a solution—faster innovation, stronger crops, and a sustainable future for farming.

CASE STUDY: Development of a Handheld Soil Health Measurement Device

Member News
The views expressed in this Member News article are the author's own and do not necessarily represent those of Agri-TechE.

In this case study we share how Cambridge-based product design, engineering and development specialist, eg technology worked with PES Technologies to develop their Handheld Soil Health Measurement Device from concept to commercialisation.

Background

PES Technologies, a family-founded start-up, set out to revolutionise how soil health is measured. Building on a PhD in experimental solid-state physics, they developed a sensor capable of detecting biological, chemical and physical indicators of soil health within minutes, directly in the field. This was a significant leap from traditional lab-based methods that typically take days.

With early prototypes in hand and a vision for scalable impact, PES approached eg technology to help refine their concept and bring a commercial product to life.

By reducing the friction of data collection, PES empowers farmers and advisors to make informed decisions.

Soil health is at the core of effective agronomy, shaping recommendations, guiding research and influencing long-term sustainable land management strategies.

 

From Concept to Commercialisation

Our initial engagement focused on the critical technology – developing a sensitive, accurate and robust measurement circuit, so that reliable measurements could be taken, using PES Technology’s sensors in the field. This foundational work helped PES secure funding and build an alpha prototype. As the company grew, they returned to eg technology to develop a fully integrated, Bluetooth enabled portable soil testing device and to support its transfer to manufacture.

With investor timelines looming and limited internal resources, PES needed a partner who could deliver a marketable product for use by agronomists, in just six months. We assembled a dedicated, cross-disciplinary team to meet this challenge head-on.

“Time, cost and complexity can prevent meaningful engagement from farmers and land managers.” – PES Technologies

PES-electronics
PES-from-concept-to-commercialisation

The PES device measures 12+ key indicators of soil quality in minutes, including microbial biomass, organic matter & pH levels

Designing the solution

Working closely with PES engineers, we developed a detailed project plan and executed a phased development programme. The project involved the technical development of the mechanical and electrical subsystems, as well as the embedded device software.
The project began with understanding the use case, industrial design and designing the system architecture to address complex challenges, such as ‘how to package a reel of sensors into a bespoke cassette to protect them until use’, and managing real-life situations such as ‘preserving data until a cloud connection is available’.
The usability of the final product form was progressed in tandem with the programmable electromechanical systems, and alongside the client’s app development and sensor production, requiring tight collaboration between the different disciplines, as well as with the client. From our experience of working with other science-led start-ups, we were aware that measurement protocols tend to evolve as the client’s experience with the underlying science develops. Therefore, we ensured that it was easy for PES to adapt the measurement protocols from their smartphone application.

There were many moving parts in this development, and considerations had to be made for the environment in which the final device would be operated. The unit needed to be physically and aesthetically robust, not only to protect the sensitive components inside, but also to give the user confidence in its successful operation in harsh environments. The client also specified the final device should be intuitive, simple to use, easily paired with the accompanying mobile application and should hold a sufficient charge to last for a full day’s use in the field.

Significant use of prototyping and development of test harnesses allowed us and PES to efficiently test and debug the real-world performance of the device, cassette and app, prior to finalising the design for manufacture and releasing data for an initial small batch build, assembled by the client.

The development journey consisted of:

  • Concept generation and proof-of-principle model
  • Alpha and beta prototypes
  • Pre-production prototype
  • Performance testing
  • Transfer to manufacture

Throughout this phased project, we supported PES in solving technical challenges and aligning the product with commercial goals.

A variety of prototyping methods were used across the development process to de-risk different elements of the design

 

A Scalable, Field-Ready Solution

Working closely with PES, our engineers designed a robust, hand-held, rechargeable design, suitable for scale-up manufacture. The smartphone-controlled device, with its cassette of sensors enables rapid testing of soil, and in conjunction with PES’ mobile app and cloud-based machine learning, delivers real-time, in-field, GPS-stamped soil health indicators from organic matter to Nitrogen, Phosphorus, and Potassium levels directly to the user.
The project advanced their Technology Readiness Level from TRL 3-4 to TRL 7-8, positioning them for commercial rollout. Our managed, collaborative approach enabled PES to meet their tight deadlines without compromising on quality or functionality.
Regulatory compliance was prioritised, with the final device passing relevant electrical and mechanical safety tests, including EMC, for each of the target markets. The unit is UKCA marked and PES are working towards a CE Mark.
In 2024, PES received industry acclaim as they won the award for Innovation Excellence at the FPC Fresh Awards and were crowned Agri-Tech Innovator of the Year 2024 at the British Farming Awards.

 

eg technology’s collaborative approach and technical expertise were instrumental in turning our vision into a reality. Their team helped us move from a promising prototype to a field-ready product, in an accelerated and challenging timeframe. eg delivered a robust, intuitive device that empowers agronomists with real-time soil health insights. We’re excited to continue working with eg technology as we scale our impact.

Steve Lock | PES Technologies

 

“Collaborating with PES Technologies to transform their pioneering soil health sensor into a robust, field-ready device was a rewarding journey. Our engineering team worked across disciplines, from concept generation through to transfer to manufacture, advancing their technology readiness significantly, and we’re proud to continue supporting PES as they scale their product and vision.”

Ollie Godbold | eg technology

 

Are you ready to develop your innovation?

For further information on how eg technology can support in getting your technology or ideas to market or to chat with one of the eg team about your product design and development requirements, please get in touch.

BOFIN Webinar: get involved with a new OSR project and knowledge exchange community

Member News
The views expressed in this Member News article are the author's own and do not necessarily represent those of Agri-TechE.

Arable farmers, researchers and agronomists are invited to a webinar on Thursday 26 March to learn about a major farmer-led oilseed rape research project and two early ways farmers can get involved.

The webinar, which will run from 8.30-9.30am, will outline exciting new research into light leaf spot carried out by the LLS-ERASED project and involvement opportunities.

This includes the free ‘OSR Circle’ community which connects growers, scientists and other experts to share knowledge and help shape research priorities.

Members of this community will be the first to be invited to become the project’s ‘Spore Scouts’ and send in leaf samples to researchers at the University of Hertfordshire.

The webinar will also be the first chance to hear about a new precision-bred OSR line with significantly reduced susceptibility to this devastating disease, currently being multiplied up ready for farmer-led field trials – the first across Europe.

LLS-ERASED is a three-year £2.5m farmer-led project funded by Defra’s Farming Futures R&D fund. Led by the British On-Farm Innovation Network (BOFIN) it brings together farmers, plant breeders, crop scientists and agronomists to tackle light leaf spot using precision breeding alongside new disease-management tools.

Speakers for the webinar are Tom Allen-Stevens of BOFIN, Dr Faye Ritchie of ADAS and Prof Yongju Huang of the University of Hertfordshire. They will also be joined by the project’s technical lead Dr Rachel Wells of the John Innes Centre, and Scottish Agronomy’s Adam Christie, for a Q&A session.

Tom Allen-Stevens urged anyone with an interest in the future of oilseed rape to register for the webinar to find out more.

“Oilseed rape is an important break crop, but light leaf spot is a growing threat to its viability. I encourage farmers and other industry experts to join us to hear about the fascinating work being undertaken to tackle this damaging disease, and the opportunities to get involved.

“The OSR Circle community offers an opportunity to tap into expertise and experience from growers and other experts from across the country. Anyone with an interest in the crop is welcome to join and contribute. And for those keen to do something practical, we will also launch our Spore Scout campaign which invites farmers and agronomists to send leaf samples to our scientists at the University of Hertfordshire.”

To find out more and register for the webinar via this LINK.

  • *I have permission from the copyright holder to publish this content and images.

Cut Synthetic Nitrogen by 50% on Wheat? What Our Field Trial Showed

Member News
The views expressed in this Member News article are the author's own and do not necessarily represent those of Agri-TechE.

Why this trial matters

Nitrogen remains one of the biggest costs on farm. At the same time, growers face more pressure to improve nutrient efficiency, protect water, and cut waste. That creates a simple but important question:

Can you cut synthetic nitrogen and still protect yield?

We wanted to test that question in the field, not just discuss it in theory.

What we tested

We compared two wheat fields under the same general conditions:

Control field: full standard synthetic nitrogen rate

Test field: 50% less synthetic nitrogen

We kept the variety, soil type, drilling, crop protection, and general management the same. On the reduced-N field, we also used biological support:

BactoRol Nitrogen

BactoStym Nitro

RhizoForte

The aim was not to remove fertiliser completely. The aim was to see whether biological support could help the crop perform well with less synthetic nitrogen.

What happened

At harvest, the result was clear:

The field with 50% less synthetic nitrogen matched the yield of the full-rate control.

That also meant lower fertiliser cost per hectare on the test field.

This is what made the trial so encouraging. On this field, under these conditions, a large cut in synthetic nitrogen did not reduce output.

What this does – and does not – mean

This result matters. However, it does not mean every farm should cut synthetic nitrogen by 50% next season.

This was a real field trial, but it was still one field, one setup, and one season. Soil type, rooting, crop stress, weather, and grain-quality targets all affect the risk.

So the real takeaway is not “halve nitrogen everywhere.”

The real takeaway is this: reduced synthetic nitrogen is worth testing more carefully than many growers assume.

Why we would start lower on real farms

For most growers, a smaller first step makes more sense.

Instead of jumping straight to 50%, we would suggest testing around a 30% reduction on a small area, with a proper control beside it.

That gives growers:
a lower-risk starting point,
a fair field comparison,
and real farm data before making a bigger decision.

Which fields suit this best?

This kind of test suits fields that are:
even, well rooted, in decent soil structure, and not already under heavy stress.

We would be more cautious on fields with:
compaction, patchy establishment, shallow roots, high stress, or uncertain soil nitrogen supply.

Milling wheat can also carry more risk, because protein matters as much as yield.

What should growers measure?

If you want to test a reduced synthetic N approach, keep it practical.

Measure:
crop evenness,
root depth,
soil structure,
total N applied,
crop colour and vigour,
final yield,
and grain quality where relevant.

Most importantly, compare the reduced-N strip with a proper control.

Why this matters now

This trial is not just about fertiliser units. It is about nitrogen efficiency, margin, and risk.

If a crop can hold performance with less synthetic N in the right situation, that gives growers another way to think about input pressure. Not by cutting blindly, but by testing properly and scaling what works.

Conclusion: this trial showed that wheat can, in the right conditions, hold yield with far less synthetic nitrogen than many growers expect. The safest next step for most farms is not a 50% jump, but a smaller, measured trial that proves what works under their own conditions.

Read the full trial breakdown

We have published the full field-trial breakdown on our website, including the setup, the limits of the result, and what farmers should check before trying a reduced-N approach themselves.

Cut Synthetic Nitrogen by 50% on Wheat: Field Trial Results and What We Learned, here’s the link.

  • *I have permission from the copyright holder to publish this content and images.

SPS Agreement is nearing the end of negotiations with the EU

Member News
The views expressed in this Member News article are the author's own and do not necessarily represent those of Agri-TechE.

The UK and European Union are nearing an agreement on Sanitary and Phytosanitary (SPS). Negotiations are still ongoing and expected to be finalised later this year for an agreement to take effect from mid-2027. To support this process, the Department for Environment, Food and Rural Affairs (Defra) has launched a six-week call for evidence to develop its understanding of the potential impact on business. With the government closing in on negotiations, now is the time for businesses to engage with ministers and officials to ensure the government acts in the interest of British businesses.

There are significant areas of concern where detail on the UK government’s position is lacking. The impact of ‘dynamic alignment’ with the EU’s approach to precision breeding risks constraining British innovators that are capitalising on a more agile regulatory regime following the Genetic Technology (Precision Breeding) Act 2023. The scope of the agreement is also unclear and whether it will extend to on-farm animal welfare standards and food labelling. A further consideration relates to implementation and the practical need for a transitional period for businesses that are already making operational decisions for 2027. An impractical deadline, without reasonable exemptions or a clear lead-in time, will increase both the cost of food production and regulatory burden for the sector to comply with a new regime.

GK Strategy is a political consultancy that advises businesses on regulatory change. We have extensive experience in supporting food, farming and agriculture businesses to navigate government policy and regulation, especially where domestic regulation intersects with international policy frameworks. We’re on hand to support how businesses operating in these sectors can minimise any risks related to the SPS Agreement and shape government thinking on its scope, implementation and regulatory implications.

To discuss the SPS Agreement and how GK can support your organisation, please reach out to James at james.allan@gkstrategy.com

  • *I have permission from the copyright holder to publish this content and images.

How national data sharing could boost farm incomes and ensure food security

Meet the Network
Agri-TechE

 

The value of your data is currently at the forefront of many farming conversations, with debates about whether to share it or retain the information for your own farm.

As AI becomes more prevalent and financial challenges mount, it’s understandable that farmers might want to keep their data private to boost their competitive edge. Yet, researchers at Cranfield University suggest that sharing this data could generate additional revenue and ultimately, enhance food security and achieve sustainability goals.

To support this, Cranfield University and Defra have agreed to develop an open access portal of soil and related environmental data for England and Wales, including the National Soil Map of England and Wales (NATMAP).

“We believe opening access to this data is a way to better manage and safeguard our soils and our environment,” says Ron Corstanje, Professor of Environmental Data Science and Head of the Cranfield Environment Centre.

 

 

Rob Simmons, Professor in Sustainable Soil Management at Cranfield University, has spent almost two decades focusing on developing applied solutions to on-farm challenges, spanning soil compaction, runoff, erosion control.

A primary focus over the last five years has been optimising the practical use of polymers to improve emergence, establishment, and yield in field grown herbs, salad onions, bulb onions, lettuce and spinach, with his research always in close collaboration with growers so that outcomes are solution based, practical and adoptable.

Working alongside Severn Trent, Southern Water, and Anglian Water, one of his current PhD students Lisa Donovan is modelling the benefits of overwintered cover crops in rotation and their impact on reducing erosion and improving water quality.

 

Rob Simmons
Rob Simmons
Professor in Sustainable Soil Management, Cranfield University

“The water companies see agricultural land as part of their critical infrastructure. So, it’s not just the pipework, treatment works, drinking water works, and surface water abstraction; it’s also the fields and the catchments around them,” says Rob.

“They actively support farmers to plant cover crops and implement interventions more than the government does, because they recognise that cover crops play an important role.”

Working alongside Rob Simmons, Toby Waine, academic lead of the Applied Remote Sensing Group at Cranfield University, has been involved in a number of projects to question how we use remote sensing and data to monitor a more complex and diverse landscape.

“Remote sensing techniques we use to look at large areas to access regional production can be focused down to different scales with new high-resolution satellites or drones. So, we can assess what’s in what field, right through to what’s happening within a field, a specific plant, or even an individual leaf, so it’s truly precision agriculture. This becomes more important as we introduce mixed cropping systems, that promote biodiversity to improve sustainability.”

Now, with the uptake of remote sensing and soil sampling tools and data-led decision-making, there is an opportunity to share findings that could benefit all, Rob states.

 

How sharing data could lead to financial benefits for farmers

Usually, data collected on a specific farm is used solely to inform that farm’s decisions, based on soil type, area, and crop selection.

“Farm businesses conduct soil sampling every single year, covering >100,000 hectares of land annually. This is supported by companies such as Agrii, Hutchinsons (Omnia Terramap), and Frontier (MyFarm). Soil sampling and analysis are often repeated on 4-5-year cycles. That data is utilised by the companies and farms that use it for their own decision-making. However, it could be used for national-scale decision-making”.

 

Toby Waine
Toby Waine
Academic lead of the Applied Remote Sensing Group, Cranfield University

“All this data could be compiled and, with modern machine learning and AI approaches, mapping approaches, et cetera, if it were combined and made available to farmers, we would have soil maps on a field-by-field basis and even within-field variability.

I’ve seen these maps generated by Omnia Terramap and Frontier MyFarm, and it’s absolutely remarkable.”

Understandably, releasing data might seem like losing a competitive edge; however, Rob sees broader benefits, including potential financial incentives for farmers through sharing data.

“Essentially, if combined with input and yield data, we would have a ‘National Scale Rotational Field Trial’. This would be invaluable for developing climate-change resilience and assessing the effectiveness of soil-health management options. We would also have a continuously updating ‘live’ national soils database.

“It could be used, for example, to evaluate the efficacy of soil management options under SFI or by water companies, looking at reducing phosphorus in rivers, because they would know which fields within their catchments were associated with high levels of phosphorus and hence target management options more cost-effectively.

“There’s so much competition among growers because what they do gives them an advantage over others. However, if data were shared on cross-cutting themes important to everybody, everyone would benefit,” he adds.

 

Data sharing on a national scale

Looking ahead, Toby is part of the Cranfield University Team launching the new open access soil platform to enable data sharing and research collaboration within the farming community.

Using what was previously the National Soil Resources Institute’s soil information for England and Wales, the team at Cranfield University is making the data available to farmers and land managers free of charge.

“On larger farms, which may use contractors or people who have never been in that farm’s fields, data sharing and technology could provide instant insights into the quality of the land, which crops grow best, and its yield,” says Toby.

“With enough data sets and knowledge and historic patterns, you could start to model what you think would be the best strategy for that field, even if you hadn’t ever been in there,” he adds.

NDVI satellite image of tea estate in Kenya. Darker green indicates ready to harvest, yellow or orange recently pruned.
National Soil Map of England and Wales (Data originated from the Cranfield University, Land Information System LandIS® Portal

 

Drawing on his past experiences, Rob Simmons highlights the potential for open data sharing and its role in supporting sustainable food security.

“I worked overseas for 10 years, all over South Asia and Southeast Asia. They used to have what they called lighthouse farms, where you’d have a farm showcasing best practices. That information would be shared, and all the funding would focus on sharing best practices. AHDB runs the Monitor Farm Initiative to highlight best practice in arable farming systems.

 

The LandIS soil data platform will be available spring 2026, where anyone can access free of charge.

Fertiliser Price Spike 2026: Practical Fertiliser Alternatives to Cut Nitrogen Risk

Member News
The views expressed in this Member News article are the author's own and do not necessarily represent those of Agri-TechE.

A fertiliser price spike always triggers the same question on farm: what are my alternatives right now? Most farmers do not mean “zero fertiliser tomorrow”. They mean “how do I rely on it less, without losing yield”.

This post shares a calm playbook for spring 2026. It starts with efficiency and uptake. Then it adds biology as a measured support tool that complements fertiliser, not a full replacement.

What’s driving the fertiliser price spike

Disruption around the Strait of Hormuz has slowed shipping and increased risk across fertiliser supply chains. That matters because large volumes of fertiliser raw materials and finished product move through that route.

The immediate knock-on looks like this:

  • Urea and ammonia availability turns patchy

  • Quotes jump quickly

  • Delivery dates drift

  • Buying becomes reactive

Why farmers are searching for fertiliser alternatives

A fertiliser price spike does not just raise costs. It squeezes decisions and timing. It can also push farms into “insurance nitrogen”, bought under pressure.

So the goal is not to guess the market. The goal is to reduce exposure:

  • Make every unit of N work harder

  • Improve uptake so response stays reliable

  • Add biology to smooth performance when timing matters

The most realistic fertiliser alternatives focus on efficiency first. Next, they fix uptake blockers like cold roots, compaction, and residue tie-up. After that, they use biology to support steadier rooting and nitrogen response alongside fertiliser. A simple strip trial keeps it honest.

A calm 3-step nitrogen plan during a fertiliser price spike

Step 1 – Efficiency
Start with a clear base plan. Then tighten timing. Split where it makes sense. Cut waste first.

Step 2 – Uptake
Nitrogen only pays when roots work. Check rooting depth, root hairs, moisture at depth, and soil structure. Solve the limiter before you chase leaf colour.

Step 3 – Biology (as a complement)
Biology fits best when it helps you rely less on perfect deliveries and perfect weather. It should support steadier uptake and response. It should not replace nutrient planning.

Two biological tools we use for nitrogen resilience

BactoStym Nitro (foliar)
Use it when timing matters but response feels patchy. Think: cold starts, dry spells, and “N went on but the crop did not move”.
What it contains: Paenarthrobacter (formerly Arthrobacter) nicotinovorans.
How it’s been tested: in a nitrogen-free lab medium, with weekly sampling and external lab analysis under ISO/IEC 17025 quality standards. Results showed a strong rise in ammonium nitrogen across the test period.

BactoRol Nitrogen (soil / rhizosphere)
Use it when nitrogen feels “leaky” and response varies by zone or season. It fits well as a base tool before key growth periods.
What it contains: Azotobacter vinelandii plus Bacillus partners (B. subtilis, B. amyloliquefaciens, B. licheniformis).
What we’ve seen in controlled trials: in maize grown with no mineral nitrogen (P+K only), treated plants reached 179 cm vs 166 cm at week 12, with improved growth traits. Cob performance also improved in the same trial set (fresh mass, dry mass, and grains per cob).

When to apply (simple on-farm calendar)

Autumn (post-harvest to pre-drilling)

  • Best for: building a steadier base and reducing next-season exposure

  • Consider: BactoRol Nitrogen

Drilling to early emergence

  • Best for: setting up uniformity so N pays later

  • Consider: BactoRol Nitrogen in the soil zone

Early spring restart

  • Best for: stabilising response when nitrogen feels unreliable

  • Consider: BactoRol Nitrogen

In-season foliar windows

  • Best for: “N is on, but the crop is flat”

  • Consider: BactoStym Nitro during active growth

Stress and recovery periods

  • Best for: helping crops pick up after cold or dry checks

  • Consider: BactoStym Nitro when leaves can take up product

How to trial any “fertiliser alternative” properly

Keep it simple:

  • Run one treated strip and one control strip

  • Measure plants/m² and tillers/plant at fixed points

  • Do quick root digs (depth + root hairs)

  • Track growth stage spread across the drill width

  • Compare at harvest (yield map or weighed loads)

Final thought

We can’t control global events. However, we can build nitrogen plans that stay calm when supply tightens. Efficiency and uptake come first. Biology comes next. Proof keeps it honest. READ MORE HERE.

  • *I have permission from the copyright holder to publish this content and images.

Chief Scientist of the Environment Agency to open Agri-TechE’s New ‘NatureTech’ Conference

Agri-TechE Article
Agri-TechE

A new generation of “NatureTech” is emerging – tools that can track water movement through a catchment, verify habitat improvements, and model thousands of landscape scenarios in seconds using AI.

These technologies are reshaping how environmental benefits are measured and valued, and they will be the focus of Agri‑TechE’s upcoming new conference, The Productive Landscape: NatureTech for Profit and Planet, on 28 April at Rothamsted Enterprises.

 

 

How can nature recovery be measured in ways that fairly reward the farmers and landowners delivering it? What evidence is needed to demonstrate the environmental value of restored habitats? And how can land managers be recognised for their role in protecting one of the 21st century’s most critical resources – water?

These questions will be explored at the event which brings together innovators, researchers, policymakers, and land managers to examine how emerging NatureTech is enabling the delivery, measurement, and monetisation of ecosystem services across the UK’s productive landscapes.

Agri‑TechE is pleased to welcome Dr Robert Bradburne, Chief Scientist at the Environment Agency, as keynote speaker. Ahead of the event, Dr Bradburne shared his thoughts on the opportunities he sees for nature‑based innovation and the technologies that could create diversified income streams for farmers looking to sell environmental benefits.

 

Dr Robert Bradburne
Dr Robert Bradburne
Chief Scientist for the Environment Agency

What is the opportunity for nature technology?

Ecosystem services. I have been developing our understanding of these since 2007, and if you read the recent update to the Government’s Environment Improvement Plan, you can see that these are now firmly embedded in government thinking. We also now have a system for funding farmers that is built around delivering public goods, which can incorporate private finance, giving us a real opportunity to help farmers recognise this potential income source.

If farmers are selling their services growing wheat for millers, can they also sell their services managing water for people in the catchment? Farmers have advisors who tell them how to grow high quality wheat. Do we have enough advisors to tell them how to produce high quality water? Frameworks like the Catchment Sensitive Farming Partnership exist, and we have some good data showing how much impact you can have across a catchment if farmers act on really tailored advice.

Around 70% of our land is farmed, and it’s not just providing the country with food. For example, farmers also own the water filtration system for everyone downstream of them, but at the moment, it can be really hard to give them any credit for it.

Some smart farmer cooperatives are already capitalising on this. They have worked directly with water companies to show they can prevent the need to strip nitrate from water themselves if farmers go the extra mile to stop nutrients from getting into the water in the first place.  The Environment Agency doesn’t need to be involved in that transaction, nor does the Government; it can be a private market.  But it only works if the farmers can demonstrate that they have done the work that benefits the company paying them. That is where new technology can come in.

 

Which nature technology developments are you most excited about?

The big thing for unlocking markets for ecosystem services is cheap, reliable information.  Some of that will be due to incredible advances in earth observation, including satellites and drones. The development that goes along with this is the ability to extract information from it. New modelling, which might use artificial intelligence, will be able to identify ancient river channels or high erosion sites from earth observations, for example.

The amount of information available to the farmers who want to make this part of their business will grow enormously. That’s really exciting because to get a grip on some of these more complex physical processes, like identifying where water is moving, or denitrification is happening, you do need to think ahead and plan using technology.

If farmers know how to generate positive environmental outcomes and have access to sensors that reliably send data back to demonstrate the services they provide in exchange for the payments they receive, suddenly this becomes mainstream. Once this happens, investment follows, including in a range of other technologies, from precision farming to robotics, and of course, technology-enabled nature-based solutions.

 

How is the Environment Agency using nature technology?

We’ve done a lot of science to better understand how catchments work at all scales.  We’ve developed free applications, such as the ALERT tool, to help farmers analyse their landscapes and reduce pollution.

We are also partnering with water companies on projects funded by the Ofwat innovation fund to investigate how artificial intelligence can make the impossible possible. Water catchments are so complex that it has previously been nearly impossible for a human to work out how to manage them in detail, but this “big data” problem is exactly the sort of thing that artificial intelligence is good at.

AI can create multiple versions of a catchment and try many different approaches until it produces a viable plan that could improve how water is managed in that area, which will make an observable difference. Usually, this would take a planner years of effort.  And if we want to use more nature-based solutions across catchments, which we are investigating, the level of complexity will go up again, so we will need all the help we can get.

So technology like this could be quite game-changing for people working across catchments, because people are much more likely to buy things when they know what they are getting. It can unlock new markets and opportunities, delivering positive results for farm businesses and nature alike.

Dr Bradburne is speaking at The Productive Landscape: NatureTech for Profit and Planet on 28th April at Rothamsted Enterprises. He will be joined at the conference by Diane Mitchell, Chief Environment Adviser at the National Farmers’ Union, and David Webster, CEO of LEAF, alongside innovators and practitioners working at the intersection of agriculture, ecology, and technology.

For more information and to purchase tickets, visit The Productive Landscape: NatureTech for Profit and Planet.

Agri-TechE and Society of Agriculture continue to strengthen their early-career communities

Agri-TechE Article
Agri-TechE

Agri-TechE and the Society of Agriculture (SocAg) have announced a second year of collaboration, building on the original partnership established with IAgrM. While SocAg is newly launched, this continued collaboration reflects the strong foundations of that earlier relationship and a shared commitment to creating new opportunities for early-career individuals and professionals across both communities.

The agreement includes joint promotion of the Early Career Innovators’ Forum (ECIF) programme through both organisations’ networks, alongside reciprocal opportunities for members to attend Agri-TechE and Society of Agriculture events.

Most notably, ECIF members will be offered the opportunity to apply for two fully funded places on the Society of Agriculture’s Farm Management Skills Programme (FMSP).

Luke Brignall was one of the ECIF participants selected for a fully funded place on the FMSP in 2025, highlighting the practical value of the partnership in supporting professional development.  Luke says:

“The Farm Management Skills Programme” has been a fantastic experience. It’s strengthened my confidence in business planning and strategic farm management, developed my leadership and people management skills, and introduced me to friends for life. Learning alongside other forward-thinking professionals has been hugely valuable.”

ECIF is a platform that brings together early-career individuals with an interest in agri-tech through a diverse programme of virtual and in-person activities, sponsored by the Morley Agricultural Foundation. Agri-TechE has delivered ECIF since its inception twelve years ago and will now continue the programme with the support of the Society of Agriculture.

Kate Brunswick, Business Development Associate at Agri-TechE, recognises the strength of the collaboration in enabling opportunities for individuals from a wide range of professional backgrounds to participate in ECIF.

“The opportunity gives Society of Agriculture members the chance to better understand the agri-tech world and the exciting innovations currently in development,” says Kate. “It also offers researchers, those considering a move into an agri-tech role, and technology developers valuable insight into the realities of practical farm management.”

Victoria Bywater, Director of the Society of Agriculture, says:

“The Society of Agriculture is passionate about supporting the next generation of professionals who will shape the future of agriculture. As the UK’s independent professional body for agricultural leadership, we are committed to raising professional standards and strengthening strategic thinking across the sector.

“This collaboration with Agri-TechE allows us to connect emerging talent with the practical knowledge, networks and professional development opportunities they need to thrive. We are offering ECIF participants the chance to apply for two fully funded places on the Farm Management Skills Programme this year, hosted at Harper Adams University.”

With the annual ECIF conference scheduled for 23 April 2026, now is an ideal time to join the programme.

Kate Brunswick
Kate Brunswick
Business Development Associate at Agri-TechE

“This year’s conference, titled ‘Protecting Agriculture on the Digital Frontier – from Soil to Cloud’, is open to new and existing ECIF members,” explains Kate.

“The ECIF conference gives attendees a clear view of technologies and research they may not yet have encountered. It’s an excellent opportunity to explore new ideas, ask questions, meet others on the programme and build enthusiasm for the sector.”

Visit the Agri-TechE website for more information, to join ECIF or to register for the ECIF conference.

Details about the Farm Management Skills Programme are available on the Society of Agriculture website: www.soc-ag.org