Inside JEPCO’s sustainable shift to indoor leafy salad production

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

JEPCO is blending decades of growing expertise with cutting-edge indoor systems to drive resilient, high-quality salad production all year round.

The loss of tools to combat pests, weeds and diseases in the salad sector, combined with changes in market dynamics, has encouraged Lincolnshire-based third-generation leafy salad producer JEPCO who grow 800 Ha of outdoor leafy salads to increase its glasshouse production capacity. They see controlled environments as providing an opportunity to adopt new technologies to boost output whilst improving produce quality and consistency.

As part of that programme, Jepco has been preparing production strategies with an in-house development team and research facility.

“Our goal with indoor production is to be carbon neutral, produce 52 weeks of the year and mitigate a lot of the risks we take outdoors with climate change,” says Richard Pett, development manager at JEPCO. “Producers are getting more and more extremes, with dry times, wet times, or hail. Since the middle of August, the sector have also had difficulty controlling aphids in the field.

“We’re just not getting the tools to control field pests anymore. Weed control is another example where fewer herbicides are available to us. We have been using camera guided and GPS hoes for 20 plus years, and we’re looking at robotic and laser weeders. There aren’t those options with pest control.”

Moving some production into greenhouses will allow JEPCO to remove aphids, other insect pests and foreign contaminants from their growing equation, says Richard.  They have also seen that indoor production gives them much more control over the quality needed for specific catering markets, such as sandwich production.

“Soil from outdoor lettuce is a huge problem. If we get heavy rain just before harvest, soil splashes onto the leaves. It must then be washed vigorously before being sent to customers, which affects its shelf life.

“Since moving our lettuce production destined for sandwiches indoors, we have almost eliminated non-conformities,” he adds.

The obvious challenge to increasing indoor production is the capital investment required to build the facility. That is why Richard and JEPCO’s assistant development manager, Hannah Greensmith, have been examining the latest glasshouse technology to maximise output. “There is so much technology and innovation out there at the moment. It’s about identifying it and seeing how it can help us,” says Richard.

One innovation JEPCO has been trialling is Zayndu’s ActivatedAir plasma seed priming. Based in Loughborough, Zayndu sells its on-site seed-priming system globally to vertical farms and glasshouses. Nathanael Dannenberg, UK and North America business development manager for Zayndu, introduced Richard to ActivatedAir, having previously collaborated on other technologies.

“We deploy machines into growers’ facilities that are capable of priming seeds using Zayndu’s cold plasma technology,” says Nathanael. “The process is pesticide and residue-free, and being based on-site, it gives growers control over when they prime seeds.

“The priming creates microfissures in the seed surface, which increases water absorption. It also kick-starts the seed’s biochemical pathways, stimulating germination. This makes seeds germinate quicker and more evenly.”

In short-cycle crops, the impact on output can be astonishing, states Nathanael. In JEPCO’s case, a yield increase would manifest as a shorter time to harvest. This would increase output from the same capital investment in the glasshouse, as Richard explains: “A key driver for working with Zayndu is that if we reduce the number of days to harvest by three days per cycle, then we can get another crop cycle in per year.”

The trials on ActivatedAir were conducted in JEPCO’s dedicated research greenhouse. Smaller than a commercial greenhouse, Richard says that they can accurately replicate a production situation. In this case, he observed an average 11% increase in spinach yields and 13% in rocket across multiple replicates over a nine-month period.

“There does seem to be a definite difference, and we have done quite a few trials now across rocket and spinach. The results are reliable; we are seeing a difference every time, which is exciting.”

Richard sees all the technologies they are testing as building a cumulative effect, which supports the justification for a significant capital outlay to build more glasshouse capacity.

“You take 11-13% from priming the seed, perhaps another 3% from adding a biome to the water in the hydroponic system, plus other measures, and it all adds up. We most definitely see a role for technologies like Zayndu’s seed priming,” he concludes.

Zayndu was established in 2019, harnessing cold plasma to create the powerful plant stimulant, ActivatedAir™. Now, a world leader in the industry, the business supports growers worldwide in generating stronger, healthier plants with increased disease resistance. The seed dry priming process is simple, uses no artificial chemicals and leaves no residue.

Get in touch

Want to know more about how you can increase your yields up to 25%? Find out more on our website or book a discussion with one of our experts.

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LettUs Grow joins QuBOOSTR Consortium to pioneer UK glasshouse rubber production

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

Bristol, UK – LettUs Grow is proud to announce its participation in QuBOOSTR. This £2.4m precision breeding project is a collaboration between lead partner QuberTech, the John Innes Centre and LettUs Grow. The initiative is funded by the UK Government Defra’s Farming Innovation Programme and delivered in partnership with Innovate UK.

The QuBOOSTR project aims to domesticate dandelions, a plant that naturally produces latex in its root system, as a sustainable source of rubber for the UK. Historically, dandelion latex levels were too low to be commercially viable. However, this consortium is leveraging gene editing and analytical tools to optimise the plants for higher-grade production at scale. By combining the John Innes Centre’s world-leading plant science with QuberTech’s gene-editing expertise and LettUs Grow’s Advanced Aeroponics™ technology, the partnership will optimise the crop for high-density, soil-less indoor farming.

For LettUs Grow, this project represents a significant expansion of aeroponic applications into “opportunity crops”. Our Aeroponic Rolling Bench™ technology provides the precise, soil-free environment necessary to enhance root growth and allow for the clean and easy access required to harvest and study latex-producing roots. By proving the efficacy of aeroponics for industrial crops, we are opening new doors for commercial growers to diversify beyond food into high-value industrial commodities.

“LettUs Grow are very excited to commence this Innovate UK project, using our unique Aeroponic Rolling Bench technology to support Qubertech in their mission to boost resilience of the global rubber supply. By boosting crop performance and enabling clean and easy access to the crop roots, we believe this exciting R&D could further expand the market for high-tech glasshouse operators worldwide.” – Jack Farmer, Co-Founder and CSO of LettUs Grow.

Airponix Awarded £830K Innovate UK DEFRA Grant

The views expressed in this Member News article are the author's own and do not necessarily represent those of Agri-TechE.
Airponix’s technology and ambition to transform global seed potato production and sustainable agriculture has been recognised with the award of an £830K Innovate UK DEFRA Investor Partnership grant, subject to securing £1.7 million in match funding and finalising heads of terms with a lead investor by 3 December.

The Innovate UK grant and part of the investment will fund the construction of a 2,300 m² high-tech seed potato production facility in Scotland, designed to supply up to 25% of the Scottish G0 seed potato market. This facility will act as a scalable model for sustainable, high-yield, and water-efficient production using Airponix’s proprietary aeroponic technology.

As an alternative route, Airponix has also reached an in-principle partnership agreement with a major UK grower, which would involve applying for a smaller grant requiring only 30% project funding but with significant upside in market reach.

Global Expansion and Strategic Engagements

Airponix continues to build international presence and partnerships across multiple key regions and events:

World Agri-TechE Innovation Summit (London): In September, Michael and Matt attended the World Agri-TechE Innovation Summit, engaging with investors, innovators, and policymakers from across the agricultural technology sector. The summit offered valuable opportunities to connect with international stakeholders and explore partnerships aligned with Airponix’s mission.

Algeria: CEO Michael Ruggier joined the first-ever UK Agri-TechE delegation organised by the British Embassy and ABBC, meeting Ambassador H.E. James Downer, MADAR Holding, and senior officials from the Ministry of Agriculture. Discussions are progressing toward a partnership to enable Algerian growers to produce their own seed potato tubers domestically.

Australia: Airponix was selected for the Farmers2Founders “Land x Launch” Australia Cohort, under the Innovate UK Global Incubator Program – Agri-Tech. Following two years of mentorship from Farmers2Founders, Michael has just returned to Australia to build on existing partnerships and explore new opportunities for growth.

Saudi Arabia: Later this month, Michael will attend the UK Department for Business and Trade (DBT) AgriTech Mission during the Saudi Agriculture Show (19–23 October 2025). He will be speaking at the event and pursuing new investor and collaboration opportunities across the region.

Investment Opportunity

With £350K already secured from a cornerstone investor at an £8 million valuation, Airponix is now entering a major growth phase. We invite investors and strategic partners to participate in this unique opportunity to scale sustainable agriculture globally.

Access Investment Documents: http://bit.ly/APXDocuments

Investment enquiries: CEO@airponix.com

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From space science to dinner plates: the future of farming indoors

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

Extreme weather events, from heavy rainfall to heatwaves and droughts, are increasingly threatening crop yields globally, so new solutions are needed for agriculture.

An international team from the University of Cambridge, University of Adelaide, University of Western Australia and NASA have reimagined how we grow food into the future.

The paper was published in the journal ‘Trends in Plant Science’ and has been chosen for inclusion in an upcoming 30th anniversary special issue titled ‘Big concepts – shaping the future of plant science’.

The work highlights how new developments in controlled environment agriculture (CEA) offer a powerful opportunity to accelerate the translation of fundamental plant science discoveries into real-world agricultural impact.

“With the right investment, these innovations could redefine what it means to grow, eat, and share food in the 21st Century,” said co-author Professor Alex Webb, Head of the Circadian Signal Transduction group at the Department of Plant Sciences.

“Controlled environment agriculture allows crops to be grown indoors under the precise control of light, temperature, humidity, carbon dioxide, and nutrients, while reducing pest risks,” says Dr Alison Gill, postdoctoral researcher at the ARC Centre of Excellence in Plants for Space, the University of Adelaide, and first author of the paper.

“The result is food that can be produced anywhere, year-round, with yields up to 20 times greater than traditional agriculture, with much less arable land and water required.

“By combining decades of plant science with new technologies to track crop health and fine-tune plant growth, we can grow food that is more consistent, nutritious and tailored to our needs. CEA is not a platform that will replace traditional farming, but it is a powerful supplement.”

While the work was inspired by research focused on growing plants in controlled environments in space as part of a UK and Australian Space Agency funded collaboration, the greatest impacts will be here on Earth.

“What began as space science, with experiments designed to grow food beyond Earth, has enabled us to create a blueprint to deliver big impacts back home. In Australia, container farms could bring fresh produce to remote outback communities, cut food miles, and help supplement farmers’ incomes during drought using recycled water,” says Dr Gill.

“We also envisage indoor plant-based pharmaceuticals and other high value bioproducts as a massive economic opportunity for CEA.”

To date, successful CEA production has been limited to small, pick-and-eat crops like lettuce, herbs, cucumbers, and microgreens, with considerable challenges in building and running the high-tech farms efficiently.

“We have identified specific targets that plant scientists must address, and the routes by which this could be achieved, as a pre-requisite for controlled environment agriculture to form a viable production platform going forward,” says Plants for Space Director and the paper’s senior author Professor Matthew Gilliham.

“This includes a pre-breeding pipeline for traditional horticulture, broadacre agriculture and even forestry, increasing opportunities beyond pick-and-eat crops.”

Professor Webb said creative minds are needed to adapt crops to indoor environments, in combination with the latest technologies.

“It is only now that we have these tools, so by combining precise environmental control with cutting-edge plant science, we can begin to grow plants that are best suited to meet the challenges ahead,” he said.

“If implemented to its potential it would secure fresh food supplies locally all year round, even under extreme weather, from inner cities to the most remote corners of the planet and beyond.”


Reference: Gill, A. R. et al., ‘Turbocharging fundamental science translation through controlled environment agriculture’, Trends in Plant Science, 2025, DOI: 10.1016/j.tplants.2025.08.014.

Image: Dr Alison Gill from the University of Adelaide looks over a crop grown in a controlled environment. Photo credit: Lieke Van Der Hulst.

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Revolutionising British strawberries: Dyson Farming’s new growing system

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

Dyson Farming is proud to unveil its latest breakthrough in sustainable agriculture: the Hybrid Vertical Growing System (HVGS), a pioneering innovation that’s transforming how strawberries are grown in Britain.

Located in our 26-acre glasshouse in Carrington, Lincolnshire, the HVGS boosts strawberry yields by an astonishing 250%. Instead of traditional rows, strawberries are cultivated on towering, Ferris wheel-like rigs, reaching over 5.5 metres tall, that rotate to ensure optimal exposure to sunlight and LED lighting. This vertical approach maximises space, enhances fruit quality, and allows for year-round production, even in the depths of winter.

The system is powered by renewable energy and surplus heat from our adjacent anaerobic digesters, which also supply CO₂ to enrich plant growth. Rainwater harvested from the glasshouse roof irrigates the crops, while advanced climate control systems maintain ideal growing conditions.

Robotic technology plays a key role too: vision-guided machines pick only the ripest fruit, while UV-emitting bots protect plants from mould. Insect predators are deployed instead of pesticides, ensuring a healthier, more natural crop.

This innovation marks a bold step toward food security, sustainability, and self-sufficiency in the UK.

How Earth’s earliest photosynthesizers could offer farmers a new commercial – net zero – opportunity

Meet the Network
Agri-TechE

Member Spotlight on: Tattva, with Founder Prantar Mahanta Tamuli

With the rising demand for a more sustainable economy, researchers have discovered a new method to harness the world’s oldest plants, cyanobacteria, to help reduce global carbon emissions.

Prantar Mahanta Tamuli, the founder of Tattva – recent recipient of the Innovate UK Smart Grant – discusses his discovery and the opportunities it presents for the farming sector.

Cyanobacteria, over 3.5 billion years old, are recognised as the first organisms to develop photosynthesis and contribute oxygen to the Earth’s atmosphere. In their rock formations, known as stromatolites, these structures can sequester carbon, but until now, they have taken thousands of years to grow.

However, through his research, Prantar has discovered a method to artificially grow the bacteria in days, producing a new material that is poised to be instrumental for both the architectural and agricultural landscape.

“Growing the bacteria allows us to harness their ability to sequester these minerals in the form of calcium carbonate in just ten days.

Using the organism cyanobacteria to create a new building material, Tattva aims to replace the four primary conventional materials — brick, foam, wood, and glass.

Prantar Mahanta Tamuli
Prantar Mahanta Tamuli
Tattva Founder & CEO

“These four materials are some of the most used with a market size of about $1.11 trillion.

“They contribute about seven gigatons of materials of CO2 in the atmosphere, so even if you’re replacing an extremely small percentage, you’re looking at a massive global impact,” Prantar adds.

“The estimates show us that about one ton of carbon can be sequestered in about four cubic meters of this material when we grow it.

How does this stack up against traditional materials?

In comparison to conventional materials, the new cyanobacteria structure has both practical and sustainable properties.

“It’s like a brick, but extremely insulating and fire resistant, so it has very valuable, functional properties that we use in the current construction industry. But the main difference is that it sequesters carbon dioxide rather than emitting it,” says Prantar.

Initial prototypes and pilot projects have demonstrated the material’s application in the construction industry, but Tattva plans to expand into the agricultural sector.

What could this mean for farming?

The farming industry is facing challenges in reaching net-zero targets. Working with his co-founder Andy Grey, chairman of Devon Agriculture Association, Prantar is exploring ways to incorporate their discovery into farming systems to create commercial opportunities, aid in reducing carbon emissions, and achieve sustainability targets.

It could also unlock an enormous market for farm diversification, utilising a vertical farming production approach. We discussed vertical farming and biological production as potential future farm diversifications in our recent online event.

In the future, could farmers be growing construction materials and sequestering carbon at the same time?

“The process is essentially seeding, growing, and harvesting. We grow the bacteria in a solid-state reactor — a bed where the material is grown. This bed can be stacked vertically, which means that the principles of vertical farming we use today, and the principles of scaling food production, can also be applied to scale this new material technology.

“Therefore, the model we are approaching or developing is one of growing this material and supplying it to cities in much the same way our food is grown on farms and supplied to cities, within the same network,” he states.

“The estimates show us that about one ton of carbon can be sequestered in about four cubic meters of this material when we grow it.”


Big news for Tattva

Tattva have recently been awarded the Innovate UK Smart Grant of £650,000 (for an overall project award of £925,000) to scale the business and their bioengineered material, Stromate.

“With this grant, we hope to unlock its true potential to transform our world and usher in a new future that is regenerative, safe, and carbon negative,” Prantar states.

 


Join the conversation

You can stay up to date and learn more about the latest innovations by being a member of Agri-TechE . Tattva has found it to be a valuable asset for their business development.

“There are very few who know about something like this development, and that is where knowledge transfer is absolutely essential,” Prantar says.

“[Agri-TechE ] has helped us with this, exploring the dimensions of what would work in the agricultural domain, scaling and how it can help and those kinds of aspects.

How ActivatedAir® is 80 Acres Farms’ Secret Weapon

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

ActivatedAir® is being used by some of the largest growers in the world, and it doesn’t get much bigger than 80 Acres Farms.

They discovered ActivatedAir® at an industry exhibition. After thoroughly examining the science behind cold plasma, 80 Acres began a free trial, producing remarkable results.

It unlocked incredible outcomes for their business. Higher and more consistent seed germination delivers crops that achieve their target specification quicker, maximising their growing space.

See for yourself

Megan Gambrill, 80 Acres Farms senior manager of growing, explains how they began trialling ActivatedAir® and the results they saw on the crops they tried. She also discusses how ActivatedAir® seed priming is practically incorporated into their growing process.

How does 80 Acres maximise its output from its facility?

Noah Zelkind, 80 Acres head of operations, explains the role getting their crops off to the best start with ActivatedAir® plays in increasing output using the same growing space.

Read the full case study

To read the full blog, or follow along with other case studies, head to www.zayndu.com.

Full case study: https://zayndu.com/case-study/80-acres-farms/

Gardin Raises $4.5M with Breakthrough Photosynthesis Sensor & AI Platform

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

Gardin Raises $4.5M to Advance Precision Agriculture with Breakthrough Photosynthesis Sensor & AI Platform to Monitor Greenhouse Crop Health at Scale, in Real Time

Gardin Agritech has raised a $4.5M Seed 2 financing round led by Navus Ventures with participation from new investor Oxford Innovation Finance as well as existing investors LDV Capital, MMC Ventures, Seedcamp, Alchimia Investments and angel investors.

Gardin is growing their list of customers leveraging their novel optical photosynthesis sensor & AI that measures crop photosynthesis in real time, giving growers early insight into plant health and development. This allows for faster, more targeted interventions, resulting in improved yields, better crop quality and more efficient use of resources such as water, light and energy. Clients have reported up to 10x return on investment.

Since commercial launch in June 2023, Gardin’s sensors have been deployed across a wide range of environments – from polytunnels in Spain and Morocco to greenhouses in the Netherlands and Canada – and used successfully on more than 20 crop species, from algae to tomatoes. In 2025, the company is doubling down on light optimisation and energy efficiency enabling growers to make informed decisions, with trials already showing growers can achieve 20-30% in energy savings. Gardin’s technology also aids research into hardier seed varieties, contributing to a more sustainable and secure food supply.

The news comes at a critical time for the $200 billion global Controlled Environment Agriculture (CEA) market, which is expanding rapidly due to rising demand for reliable food supplies and decreasing setup costs.

Yet the sector faces mounting pressures: energy and labour costs have surged, emissions regulations are tightening and there’s a shortage of skilled growers to operate indoor farms, greenhouses and seed breeding businesses. Existing tools lack the sophistication to process vast amounts of data and deliver timely insights, leaving many operations struggling to adapt efficiently. This underscores a pressing need for AI-powered solutions capable of analysing large swathes of data in real time – enabling smarter, automated decisions and unlocking the full potential of precision agriculture.

Agriculture Investments Limited, one of the UK’s most progressive fruit producers, adopted Gardin’s technology after seeing its potential to deliver scalable, confident decision-making for more resilient, high-quality crops.

“We have been long believers that to truly optimise food production we need to be able to change the greenhouse climate to adapt to the crop’s needs but there was no solution on the market that could solve this with high confidence and scaleably…. Until we met Gardin. Gardin’s unique sensor + AI is able to detect changes in crop photosynthesis and provide clear, actionable insights based on that. As a result, within a couple of months of trialling Gardin’s product we decided to sign a multi-year contract,”

said David Moore, Director of Agriculture at Agriculture Investments.

Fromboer reports a 5% yield increase per square meter thanks to more uniform, high-quality production and improved cost control. “The sensor contributes to homogeneous production with high quality and cost control. Overall, I estimate yield is at least 5% higher per square meter,” said Leonard Boer, Owner & Head Grower at Fromboer.

Ridder highlights Gardin’s ability to drive profitability boosts of up to 30%, yield gains of 15%, and early detection of crop stress weeks in advance – marking a shift from traditional climate control to data-driven “crop control.” “For many years now we have been able to effectively automate climate control around the crop, the next phase is to incorporate real time feedback from the crop and move from ‘climate control’ towards ‘crop control’. Gardin has developed the key technology to enable this,” said Sander Baraké, CTO at Ridder. “Results include profitability boosts of up to 30% by optimizing winter LED efficiency and maximising summer light. Yield increases of up to 15% and early detection of biotic and abiotic stresses by up to 4 weeks before crop walking,” he continued.

With this new round of funding, Gardin will enhance its platform and grow their commercial team to expand its customer base across continents.

Led by serial entrepreneur Sumanta Talukdar, who previously co-founded and exited WaveOptics for over $500 million, brings decades of experience across optics, photonics, sensors and computer science,

“Navus Ventures are in my opinion the best Ag focussed investor in Europe with a deep knowledge and network in this ecosystem. The whole Gardin team is very pleased to partner with Navus,” said Sumanta Talukdar, Founder & CEO of Gardin.

“Gardin has developed a unique affordable technology that gives growers an actual pulse on their plants and therefore business. A great addition to our portfolio and fit with our strategy and background, we are looking forward to helping Sumanta and the Gardin team through the next phase of commercial scaling,” said Jaap Zijlstra, director at Navus.

Phase two for Farm Diversification

Agri-TechE Article
Agri-TechE

Farm diversification has become more critical than ever for farm profitability. Beyond the offerings of their natural capital, like glamping, ag-tech provides future diversification opportunities to innovative farms. This involves creating a closed loop where farmers can, for example, process their own waste, create biological fertilisers, or high-value out-of-season plants.

Could farms become mini manufacturers for insect protein, fermentation products, or high-value produce grown in a controlled environment?

Modular insect farms are a ground-breaking and profitable waste management solution to help solve challenges like water pollution from excess poultry manure, simultaneously reducing our reliance on imported protein, says Larry Kotch, CEO of Flybox.

Flybox is developing smaller-scale insect farms. Larry says insect farms can be more efficient than an AD system while boasting greener credentials. The two technologies are also highly complementary.

“If you’re a farmer, you can diversify into the new protein source,” says Larry.

“You could convert an old poultry shed into an insect protein factory and have a guaranteed end market. We are trying to make it much more accessible with a lower requirement for capital.

“Previously, insect protein production was based around large factories with teams of entomologists and ingredients experts, which had a high amount of risk.”

Black-soldier-Fly-close-up-2@0
flybox

As agriculture moves from the chemical to the biological age, there’s also potential for farmers to manufacture their own inputs, believes Joanne Neary, Senior Technical Lead at the Centre for Process Innovation (CPI).

For years, CPI has had queries from farmers, mainly in America, asking for advice on how to culture certain bacteria, explains Joanne.

“You would get questions from a farmer with an IBC container trying to grow microbes which they have tested on plots of tomatoes, asking us to help them refine the process.  These days, the majority of enquiries are for non-farming businesses that have fermentors, but it’s an interesting concept to move this onto farms.”

Farmers making compost teas are already carrying out a process similar to a lab fermenter, so it is only a small step to a more formalised process, believes Jo. If the biologicals are produced correctly, it is cheaper than buying them because they do not need the sophisticated formulation to keep the organisms alive.

She says: “Much of the R&D budgets for commercial biological production is looking at the formulation. It is key to ensure the microbes are still viable when the product is stored, however it is packaged. You need the cells to stay in dormancy but still be viable.

“The cheaper approach is to make something on farm and use it immediately. You won’t have something that is stable, but if you can make it when you need it, why would you care?

“Another nice aspect of DIY biologicals is if you understand your soil microbial population, or if there’s a particular problem, you could tailor it to your needs.”

Centre-for-process-innovation_asset
Mark Horler

Mark Horler, Chairman of UK Urban Agri-TechE (UKUAT), believes that controlled environment growing technologies could be a viable proposition for arable and livestock farmers, providing they have the infrastructure. They would also link ideally with the quintessential farm diversification – a farm shop.

“UKUAT has identified a great deal of interest in controlled environment growing technologies as a form of diversification for farmers and landowners,” says Mark. “However, significant challenges and barriers remain. That might be in practical terms, for example, the capital cost, integration with renewable energy, or simply knowing where to get started and how to make appropriate choices.”

Firms like Grow Dynamics offer modular growing solutions more suited to the scale and cost farmers seek, but advice is still needed to navigate a complex landscape.

He adds: “Protected and controlled environment horticulture encompasses a wide range of technologies and approaches – from low tech/ low cost/ low control, for example, polytunnels, right the way through to Totally Controlled Environment Agriculture (TCEA) such as vertical farming. UKUAT tries to help bust some of the myths that have arisen around this topic and help farmers find the right advice.”

 

JOIN TODAY ONLINE! Future Farms Agri-TechE webinar – April 24th

Larry, Joanne and Mark will discuss the opportunities of future farm diversification in a webinar on April 24th, hosted by Agri-TechE .  It’s a chance to delve into the technology, with information on how to get started and the opportunity to ask the speakers questions.

To register to attend or find out more: Future Farms: Vertical Growing, Insect Cultivation & DIY Biologicals

Protecting IP in vertical farming stacks up

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

What do cars and vertical farms have in common? Plenty, it turns out, as showcased in the Hyundai Motor Group Innovation Center Singapore (HMGICS). Operational since late 2023, the seven-storey centre spanning 935,384 square feet (about 86,900 square meters) of floor space contains two smart farms which make use of robotics and automation (technology commonly used in car production), to produce various greens. There is a 5-meter tall vertical farm with automated rotating conveyors and robots that take care of processes from seeding through to harvesting.

Vertical farming is the practice of intensively growing plants in vertical stacks within a highly controlled environment. The super low footprint of a vertical farm is perfectly suited for producing fresh, high quality fruit and vegetables in an urban setting, especially in land-scarce, highly populated areas.

Although the concept has been around for decades, many regard Sky Greens’ facility in Singapore as the world’s first commercialised vertical farm. Set up in 2012, rotating, multi-layer troughs in a nine-metre-high vertical A-frame are used to grow plants hydroponically, or in soil. Natural lighting and water-powered rotation means the entire system is low energy, as well as low footprint. The inventor of the Sky Greens system, Mr Jack Ng, filed a patent application in Singapore in 2010, then made use of the Patent Cooperation Treaty (PCT) system to obtain protection for his invention in a range of countries around the world.

Market research firm MarketsandMarkets has predicted that the global market for vertical farming will be worth $13.7 billion by 2029, growing at a compound annual growth rate (CAGR) of 19.7% from 2024 to 2029. As awareness for the need for food security increases, government funding support in the agritech area has also been increasing globally, thus encouraging increased innovative activity.

In Singapore, there is a 30 by 30 initiative, which is a goal to increase the amount of Singapore’s nutritional needs that are produced locally and sustainably by 2030. A S$60 million (about US$44 million) Agri-food Cluster Transformation (ACT) Fund was set up in 2021, to encourage local farmers to upgrade their capabilities to raise productivity, resource efficiency, and reduce pollution and waste, and upscale their technologies.

In Korea, during the 3rd Agriculture, Forestry and Fisheries Future Technology Forum conducted in March 2024 by the President’s Special Committee on Agriculture, Fisheries and Rural Affairs, 243 billion won (about US$167.8 million) worth of funds were planned for supporting investments in green food technology, smart agriculture, among others.

According to a report from LexisNexis, there have been nearly 200 patent applications filed for documents that expressly use the phrase “vertical farming” in either their title, abstract, or claims with the top ten global patent authorities (Canada, China, France, Germany, Japan, Republic of Korea, Russia, the United States, the European Patent Office, and World Intellectual Property Organization). This does not account for any of the patent applications with applications in vertical farming that do not name it explicitly.

IP associated with vertical farming has also expanded in recent times to cover – amongst other things – sensors which monitor the plants, robots to tend to their needs, specialised lighting to ensure perfect all-year-round growth, and AI technology to manage it all. This “growing” trend is not limited to vertical farming, but encompasses many other Agritech sectors. In particular, the WIPO Patent Landscape Report on Agrifood shows substantial growth in the number of Agritech international patent families in the past 10 years. The sub-domain of connectivity/sensors/smart farming is among the top three sub-domain for patenting in Agritech, and has steadily grown over the years.

Innovation in the vertical farming sector is provided by an exciting mix of established agri-companies, global market leaders in non-agritech sectors, and new start-ups.

For example, Malaysian start-up BoomGrow, developed a system using repurposed shipping containers to grow pesticide-free produce grown in a controlled hydroponic environment. BoomGrow currently has pending patent applications in various Asia-Pacific countries, and received pre-Series A funding in 2023 to expand in Southeast Asia.

Urban Crop Solutions, a Belgian indoor vertical farming solutions provider, collaborated with global giant BASF SE in 2023 on a project to cultivate weed species for scientific research and develop innovative solutions to modern agricultural challenges. The company also recently partnered with Inagro and Ghent University to launch and validate the first of three vertical farming towers at Agrotopia, a research centre for urban food production in Belgium. Urban Crop Solutions currently holds several pending patent applications covering their vertical farming systems and facilities.

Danish start-up Nordetect, founded in 2016, produces portable lab-on-a-chip devices that enable vertical farmers to quickly identify and correct nutrient deficiencies in their crops, thereby obtaining optimum yield. Nordetect obtained a US patent grant in 2023 relating to their microfluidic device and method and system for performing inorganic determinations and has raised more than US$1.5 million in funding to-date.

As agritech companies continue to innovate, this emerging area of vertical farming presents an opportunity for growing intangible assets, whether it is to secure first-mover advantage, or to unlock licensing prospects for alternative revenue streams and/or collaborations. Whether you are a start-up or a multi-national, protecting your technology is paramount. Marks & Clerk’s Agri-tech team brings together years of expertise in biochemistry, engineering, AI, electronics and software. With our branches in the UK, Europe, Canada, Singapore, Malaysia and China, we are ideally placed to help grow your IP – around the world.

Article written by Nikki Lai, Associate Marks & Clerk

 

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Introducing ActivatedAir™

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

Zayndu recently produced a video explaining its groundbreaking ActivatedAirTM seed priming technology, which we wanted to share to help growers understand its benefits.

Shot on location at its UK headquarters at the Advanced Technology Innovation Centre in Loughborough, the video features members of the Zayndu team discussing every aspect of ActivatedAirTM.

Zayndu CEO Ralph Weir introduces ActivatedAirTM by saying it helps produce bigger, stronger and healthier plants without artificial chemicals by encouraging the seed to utilise its resources better.

At the heart of the Z-Series plasma seed treatment machine is a plasma generator using high-voltage electricity to expose seeds to an environment similar to a lightning strike, said James Seaman, director of engineering at Zayndu.

One of the key features of the machine is its simple user interface. 

“We don’t want our customers spending lots of time upskilling and training their operators. We want the machines to be used out of the box with minimal skill required,” said James.

The plasma treatment removes the external waxes on the seed surface, increasing the water permeability of the seeds and enabling them to absorb water more efficiently, explained Dr Alberto Campanaro, head of plant science at Zayndu.

This produces faster germination, which, so far, Zayndu’s plant science team has tested around 130 varieties spanning 50 plant species.

“Generally speaking, what we see in terms of yield increase from using the ActivatedAirTM technology is somewhere in the region of 20%, up to 30%,” Alberto added.

What does this mean for a grower in practical terms?

“Vertical farmers find ActivatedAirTM particularly attractive because of the decreased (crop) cycle time,” said Nathanael Dannenberg, sales manager at Zayndu. “It means their crop under lights for less time, which makes their operational costs lower per cycle.”

Similarly, greenhouse growers can increase output by running more crop cycles per year, maximising their growing space, continued Nathanael.

In conclusion, Ralph added that ActivatedAirTM enables growers to lower their cost of production, increase their output, and deliver better crops without using artificial chemicals.

“It’s a very exciting proposition for a grower.”

Contact the Zayndu team via LinkedIn or the Zayndu website to learn more.

Germinating seeds, lightning-fast

Meet the Network
Agri-TechE

Zayndu joined Agri-TechE at the start of 2021, having commercialised the world’s first application of cold plasma on seeds. Sophie Butler, Content Manager at Agri-TechE , caught up with Zayndu’s CEO, Ralph Weir, to check out their progress.

Ask any grower, and they will say establishing crops swiftly and evenly sets it up for success. This is especially true if a crop grows for only a few weeks before it is harvested, such as leafy salads grown in controlled environment conditions in a glasshouse or vertical farm.

This is where Ralph Weir, CEO of Zayndu, says cold plasma seed priming can transform crop production.

“Cold plasma seed priming is an amazing new technology that gives farmers a welcome boost in productivity, and if we’re honest, we are still learning its potential,” he explains. The process uses ionised gas containing reactive oxygen and nitrogen to modify the seed surface, enhancing its physiological and biochemical properties to promote germination, growth, and stress resilience.

The scientific concept was developed by Dr Felipe Iza’s research group at Loughborough University, where Zayndu is based, at the Advanced Technology Innovation Centre.

Zayndu first joined the Agri-TechE community in January 2021 when they were an early-stage start-up looking to build connections in the industry.

Ralph says Dr Belinda Clarke and the Agri-TechE team have introduced Zayndu to large-scale leafy salad growers and specialist marketing service providers in the membership community.

Ralph Weir Zayndu
zayndu sq 500px

From making it work “in the real world” to global expansion

Zayndu has been on a mission to get the technology into the hands of as many growers as possible.

“Looking back a couple of years, all our internal conversations were about making cold plasma actually work in the real world,” explains Ralph. “Team meetings were dominated by discussion about plasma stability: how do we make it work better when we have damp seeds, dusty seeds, or weird seeds?

“These topics don’t come up any more. The discussion has moved on. It is all about what we need to do for machine certification in a new region, how to make systems easier to use, shorten treatment times, and translate the signage into Spanish or Arabic.”

Asking farmers to embrace an entirely new technology and undertake a new process has led the Zayndu team to drill down into the return on investment. Its plant science team, led by Dr Alberto Campanaro, has been trialling cold plasma on an increasing range of plant species and varieties. This work has been done in-house and with research partners like Niab, another Agri-TechE member.

Zayndu has been running a popular free trial programme to help growers gain experience with cold plasma before committing to the technology.

Ralph also explains that they have established systems to assist customers worldwide. “We can support all users from our offices in the UK, giving them access to the best possible technical support.”

“This task is considerably eased by our remote monitoring system SeedCloud, which allows us to monitor systems, support and coach users, and even offer an audit trail of seeds processed, dosages delivered, etc.”

The Agri-TechE Back to the Future report highlighted that growers are seeking solutions that work effectively from the start and considering the return on investment as major barriers to adopting new agri-tech on farms. In light of this, Zayndu has directed its focus toward the appropriate priorities.

“We have a pricing structure specifically designed to ensure that every user enjoys a significant profit boost – from the first crop after installation onwards,” adds Ralph.

What will another three years as an Agri-TechE member look like?

Despite the opportunities, there remain challenges in the controlled environment (CEA) sector, which Zayndu has weathered along with many other firms. The end of ‘cheap money’ transformed the fortunes of some growers with massive infrastructure. 2024 ended with Bowery being the latest large-scale grower to cease operating.

Ralph believes that the adaptability of cold-plasma seed priming has enabled Zayndu to pivot its offer according to market and grower demands. The overall opportunity means that its ambitions are boundless at this stage, he says.

“The controlled environment market size was estimated at $51.9 billion in 2023, so the potential for Zayndu is tremendous.”

“A positive sign for Zayndu’s future is the global nature of demand for our systems.

Most of our installations are currently in the UK and the US, but an exciting new region for us is the Gulf, where there is so much emphasis on improving food security.”

“In three years, I expect many more growers will be using cold-plasma seed priming. It will be well on its way to becoming an accepted crop input technology across the CEA sector,” he concludes.


For more information, you can visit Zayndu’s member page or follow them on LinkedIn.