UK-based Fieldwork Robotics has raised £3 million in funding as it prepares to shift its autonomous harvesting robots from technology validation into the hands of growers themselves. The funding includes a £2.2 million investment round led by Elbow Beach Capital, alongside grants designed to accelerate on-farm adoption and commercial readiness.
For Fieldwork, the transition now underway is less about robotics performance in isolation and more about embedding automation into real harvesting workflows, where growers take operational control and judge success on cost, reliability and scalability.
“Fieldwork is now entering its scale-up phase, moving from technology validation to full commercial adoption,” said CEO David Fulton. The focus is on demonstrating value in real farm conditions and building a credible pathway to multi-robot deployment, he told AgTechNavigator.
Why harvesting automation is moving up the agenda
The timing is no accident. Berry growers globally are under pressure from rising labour costs, shortages of seasonal pickers and supply chain volatility that continue to push wages higher. Those pressures are contributing to food waste, higher consumer prices and increased emissions from disrupted harvesting schedules.
Fieldwork’s autonomous harvesting robots are designed to reduce reliance on seasonal labour while maintaining quality and operating consistently at scale. Unlike many earlier robotics concepts, the company is now aiming to show that its system can work reliably across entire farms, not just in tightly managed demonstrations.
“The starting value is labour assurance,” Fulton said. “From there, performance on harvest coverage, speed, and quality drives the cost advantage.
A two‑year test of real-world adoption
The latest funding will enable Fieldwork to manufacture its new production robots and deploy them in a two‑year harvesting‑as‑a‑service programme with Place UK in Norfolk and Littywood Farm in Staffordshire.
Crucially, these are structured not as short pilots but as extended adoption trials. Growers will assess logistics, infrastructure changes, cleaning regimes and operational workflows alongside harvesting performance, with the intention of understanding what full‑scale deployment would really involve.
According to Fieldwork, subject to these trials, multi‑robot fleets could be operating on farms from 2027. International trials are also planned in Portugal and Australia as part of the company’s expansion strategy.
What “farm adoption” actually means
For Fulton, the distinction between an extended pilot and true adoption hinges on who owns the system and who captures the value.
“Farm adoption is about moving beyond technical validation into real‑world use where the innovation is being integrated into farm operations,” he said. “The shift is from a managed trial led by Fieldwork to the grower taking operational ownership of the robots.”
In practical terms, adoption means the grower understands the true costs of scaling, operates the system independently, and directly realises the commercial efficiencies. At that point, Fulton argues, farms can make informed decisions about investing in larger fleets.
Building something repeatable, not bespoke
A common concern with agricultural robotics deployments is that early success depends heavily on unusually engaged or technically confident partners. Fulton insists Fieldwork’s current work is aimed at creating a repeatable model.
Place UK, where early trials began in 2025, is now extending deployments under the Innovate UK Farm ADOPT programme. Littywood Farm, meanwhile, is being treated as a fresh deployment designed to stress‑test onboarding, training and setup from scratch.
“These farms are helping us build a playbook for new sites,” Fulton said. “Upcoming trials in Australia across multiple farms will further test whether this really transfers across conditions.”
When does the robot beat labour on cost?
Fieldwork is modelling competitiveness across a range of real‑world operating conditions, factoring in utilisation, uptime, picking speed and fruit quality.
“The key starting value is already improved labour assurance and reduced reliance on scarce seasonal workers,” he explained. “From there, performance on harvest coverage, speed, and quality drives the cost advantage. Lower utilisation or uptime simply feeds into the model as part of a realistic operating range, helping us build a robust and reliable case for adoption.”
The argument is not just about headline cost but about resilience, he said. In an environment where labour availability is uncertain, predictable automated harvesting increasingly has value in its own right.
What farms have to change – and why that matters
Adopting autonomous harvesting is not passive. Farms are making adjustments to lane widths, string spacing and crop uniformity to support robotic operation.
For example, in Portugal, Fieldwork is working with the Research Centre for Sustainability on the Lusomorango project to redesign polytunnel lanes for optimal robotic performance and improved quality scores.
“These changes are increasingly seen as part of improving overall farm standardisation and long-term efficiency rather than additional cost burdens,” said Fulton.
Through Innovate UK ADOPT, Fieldwork is also formalising cleaning, support and operational routines so they can be absorbed into normal farm workflows over time.
Reducing reliance on Fieldwork engineers
Today, Fieldwork deployments still rely heavily on the company’s own engineers. That is by design but not by intention long‑term.
Over the next deployment cycles, Fieldwork expects one engineer to support multiple robots across several farms, gradually shifting operational responsibility to growers themselves. By 2027-2028, Fulton expects most farms to run systems largely independently, supported by training, service partners and maintenance arrangements.
Grower skill requirements, he says, are more practical than technical. The harvesting payload is designed to sit on top of existing robotic platforms already entering agriculture, reducing the learning curve.
Why growers would come back for a second season
Perhaps the most telling test of adoption is whether a grower would re‑sign without grant support.
“A grower would choose to sign up again because our technology tackles a real and growing challenge in berry production: rising labour costs and a shortage of seasonal pickers, driven by wider pressures in food supply chains,” Fulton said. “A system that reliably provides labour, maintains and improves fruit quality, and delivers the same or lower cost per kg becomes very compelling. When those outcomes are demonstrated over a season in real farm conditions, continuing to use the system becomes a straightforward and positive commercial decision.”
Investor confidence in the path to scale
Elbow Beach Capital contributed £1.45 million in follow‑on funding, building on a £1.5 million seed investment in 2023 that supported Fieldwork’s early robotics and AI development.
“This round reflects our confidence in the team and their pathway to commercial impact,” said Jon Pollock, CEO of Elbow Beach Capital. “Fieldwork is tackling labour shortages, reducing waste and building technology that can scale internationally.”
With grants of £1.6 million secured alongside the Innovate UK Farm ADOPT programme, Fieldwork now has both the capital and the runway to answer the hardest question facing agricultural robotics: not whether the technology works, but whether farms will truly adopt it.
