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Assess a funded project with its evidence attached.

Search the selected validated snapshot by the fields carried from the official import. This preview helps manual account planning; it does not make claims about freshness, future purchasing, or procurement intent.

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15 records

Validated Innovate UK snapshot — selected company-candidate records

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15 matching demo records

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Advanced Manufacturing Lvl3
BN postcode area
Description present

DROPFORM: Data-Reinforced Rapid Optimization Platform for Formulation Manufacturing (DROPFORM)

NATURAL NEGATIVE LTD

Natural Negative is scaling DropForm(tm), an AI-powered platform designed to help manufacturers adopt sustainable bioplastic materials with confidence and at industrial scale. Across manufacturing industries, organisations are increasingly seeking alternatives to fossil-based plastics as part of long-term sustainability and materials innovation strategies. While a growing range of bioplastic materials is now commercially available, widespread adoption in real manufacturing environments remains limited. The primary barrier is manufacturing uncertainty. When manufacturers attempt to replace conventional plastics with bioplastics such as polyhydroxyalkanoates (PHA), they frequently encounter prolonged trial-and-error testing with no guarantee of success. Materials that appear promising in laboratory testing can behave unpredictably on production equipment, leading to processing instability, quality issues, and abandoned reformulation efforts. As a result, many initiatives fail to progress beyond early-stage trials. This uncertainty arises because material selection decisions are often based on generic datasheets and laboratory characterisation, which do not reflect the realities of industrial manufacturing. Differences in equipment design, processing conditions, and operational tolerances mean that material behaviour can vary significantly between sites. Without reliable, equipment-aware insight, manufacturers face high technical risk when introducing new materials into established production lines. DropForm(tm) addresses this challenge by using artificial intelligence to predict manufacturing performance and processing feasibility for bioplastic formulations. Rather than evaluating material properties in isolation, the platform integrates formulation behaviour with manufacturing context, enabling more informed decision-making earlier in development. This reduces uncertainty, shortens development cycles, and supports more reliable transitions from material selection to stable production. This 18-month project expands DropForm(tm) into a broader platform spanning multiple biopolymer systems and manufacturing processes. Through structured experimental validation across representative production routes, the project builds a manufacturing intelligence capability that supports confident, repeatable adoption of sustainable materials across different equipment configurations and supply chains. Natural Negative currently works with commercial manufacturing partners. Grant funding enables the development of shared manufacturing validation infrastructure that reduces duplication of effort across the industry. Rather than individual organizations independently absorbing the cost and risk of reformulation, the platform supports more efficient adoption by providing evidence-based confidence in both material performance and processing feasibility. By lowering technical barriers to adoption, the project supports faster and more reliable transitions to sustainable materials across manufacturing sectors. It strengthens UK advanced materials development, supports supply-chain resilience, and contributes to long-term industrial competitiveness. If successful, this project positions the UK as a hub for scalable, manufacturing-ready sustainable materials innovation with global relevance.

Award

£249,900

Project start

1 Jul 2026

Data status

Official snapshot

MANUFACTURING hypothesis · low confidence

Advanced Manufacturing Lvl3
S postcode area
Description present

Sustainable and Microplastic-Free PHA-based Materials for the Next Generation of Dental Appliances

PHAST LIMITED

This project will explore and demonstrate new sustainable materials for use in removable dental appliances (aligners, retainers, bleaching trays, and sleep-apnea splints), an essential set of products used daily by millions of people in the UK and worldwide. Current dental appliances are made from multiple petrochemical-based plastics such as polyethylene and polyurethane. These materials provide the necessary flexibility, comfort and wear resistance, but generate significant environmental impacts with no sustainable end-of-life options, and release microplastic in the body. The aim of this project is to create the first tailored medical-grade polyhydroxyalkanoate (PHA) formulations suitable for use in dental appliances. PHAs are an emerging family of biopolymers produced from renewable resources through bacterial fermentation, offering significantly lower life-cycle carbon emissions than conventional plastics. They also have the potential for improved end-of-life performance, including home and industrial compostability. The project will focus on developing and testing bespoke PHA materials with adequate mechanical, thermal, clarity, and stability properties for the proposed applications. Moreover, the project will ensure validation of medical safety and environmental claims through testing according to industrial standards (ISOs, ENs, ASTMs). To achieve this, PHAsT Ltd. will collaborate with NAMSA, a CRO specialized in medical device testing and regulatory pathways, and the Polymer Micro and Nano Technology centre at the University of Bradford, which brings expertise in medical polymer compounding and processing. Together, the partners will evaluate how these new materials can be processed, extruded and thermoformed into prototypes that meet real performance requirements. The outcomes of the industrial research project will include end products material formulation R&D, testing, pilot-scale end products manufacturing, safety and environmental certifications, processing guidelines and an LCA assessment of environmental benefits. These results will help determine whether sustainable PHA-based materials can replace fossil-derived plastics in removable dental appliances and support commercial adoption. If successful, this innovation could contribute to reducing the carbon footprint of dental products up to 80%, support the UK's transition to more sustainable materials, and provide new opportunities for environmentally responsible manufacturing in the healthcare sector. This aligns with national and NHS goals for net-zero emissions and resource efficiency, while supporting improved medical product sustainability without compromising patient comfort or safety.

Award

£494,721

Project start

1 Jul 2026

Data status

Official snapshot

SOFTWARE DEVELOPMENT hypothesis · low confidence

Advanced Manufacturing Lvl3
SE postcode area
Description present

Investigating and developing a roll-to-roll production method for a sustainable leather-like material made from waste beer/whisky grain proteins

ARDA BIOMATERIALS LTD

The leather we consume today is the net result of a long chain of carbon intensive steps associated with animal agriculture, including animal rearing, leather harvesting, tanning, and processing. Current alternatives, faux leather 'pleather', are riddled with plastic, and are neither recyclable or biodegradable. A sustainable leather alternative that removes the need for animal agriculture and any plastics would make a significant contribution to climate change and the environment. Arda Biomaterials (Arda) are a start-up working on commercialising exciting research that has shown that it is possible to produce a leather-like material from the extracted proteins from waste grain produced after beer brewing, a by-product that is typically used as low value animal feed. This in effect takes a waste material from an existing and ubiquitous industrial process (i.e., the brewer's spent grain), omits the animal and chemical tanning processes, and produces a leather-like material. By omitting the need for animal agriculture, the material is estimated to have only 3% of the carbon footprint than conventional leathers have. Furthermore, unlike many common synthetic leather alternatives, Arda does not use any petrochemical derived additives or any plastics in their formulations, ensuring that the material is biodegradable at the end of life. While the material has been created in panel sheets and the extraction of the protein has been proven at scale, the critical step towards commercialisation is to prove a path to scaled-up, roll-to-roll material production. The path towards scale-up has prevented other technologies from progressing to enter the market. Fortunately, the method of production for Arda's materials resemble those used in the production of plastic materials. Arda intends to utilise the equipment used in the mass production of plastic materials for their own material. This project focuses on the research, translation, and implementation of Arda's formulations to produce using a continuous roll-to-roll production.

Award

£684,946

Project start

1 Jul 2026

Data status

Official snapshot

MANUFACTURING hypothesis · low confidence

Advanced Manufacturing Lvl3
OX postcode area
Description present

CAPTURE – Feasibility of Next Generation Sustainable Composite Adsorbents to Capture and Remove Short-Chain PFAS (Forever Chemicals) from Drinking Water

PURE CAPTURE INNOVATIONS LTD

Pure Capture Innovations Ltd is developing the next generation of sustainable adsorbents to capture and destroy Micro Pollutants (per- and polyfluoroalkyl substances (PFAS), pesticides, micro-plastics, hormones & pharmaceuticals) in drinking water. Today, coal-derived Granular Activated Carbon (GAC) is used to improve the colour and taste of our water. Carbon filtration has been used for centuries. Meanwhile, over the past few decades, ever more potent, robust, and active chemicals have been developed for modern applications, including pesticides, pharmaceuticals, dyes, and fire retardants. These materials have entered our water from users and through the dilution of waste during manufacturing. We, as a society, are now beginning to understand how low concentrations of these persistent micro-pollutants affect our health. The water industry is becoming increasingly regulated to protect societies from micropollutants, and there are calls for industries to develop and publish water-impact case studies for new projects. This project addresses the urgent need to develop new classes of advanced composite materials to tackle increasingly complex pollutants and keep our water safe. This feasibility study is designed to demonstrate the commercial viability of new sustainable composite materials that will remove 10 MtCO2e/Yr from waste biomass during manufacturing, whilst removing and destroying micropollutants from our water during use. The approach offers the option to valorise sewerage sludge within the water industry to avoid its effects on our food chain; access to low-temperature catalytic PFAS destruction to avoid high-temperature incineration; and, when materials are spent, repurposing them in the built environment to avoid landfill. Alternative and existing technologies lack commercial viability for the scale of the problem the water industry faces. Existing materials require lower flows or increased capacity to meet regulatory limits, but are hampered by available footprint at treatment works, capital investment, and access to high-temperature recycling facilities. Other technologies lack sustainability because they have high energy costs during use or disposal, generate hazardous waste streams, or simply return pollutants to the environment. Other technologies developed for polishing clean water for industries such as pharmaceuticals and electronics lack scalability, are prone to fouling, and are expensive. This project will demonstrate the feasibility of a new class of advanced composite materials that offers a scalable, commercially viable solution for the global water industry. Materials that can be licensed, manufactured from local supply chains and used as drop-in replacements for existing filtration media with targeted selectivity for the most problematic micropollutants in each water catchment.

Award

£92,366

Project start

1 Jul 2026

Data status

Official snapshot

SOFTWARE DEVELOPMENT hypothesis · low confidence

Creative Industries Lvl3
NP postcode area
Description present

AI-Native Authoring for Real-Time Gameplay Systems

BREAKING CHANGE LTD

This project develops new AI-native tools to help game developers build and maintain complex gameplay systems under real-time constraints. Modern games increasingly rely on interconnected systems such as vehicles, weapons, and in-game economies, but these are still created using custom code that's difficult to change and maintain as projects grow. Breaking Change is researching new ways for AI to assist developers in authoring and refining these systems by working directly with simulation models rather than just generating more code and faking behaviour. The project focuses on making complex gameplay systems easier to design and evolve, while ensuring performance in real-time game engines. The work combines research into AI-assisted authoring, and in-engine previews of deep gameplay systems. While the initial application is in games, the underlying technology is relevant to other real-time simulation contexts, such as medical device and defence simulation, and energy digital twins. The project aims to reduce risk for developers, improve productivity, and support more sustainable production of modern games.

Award

£290,942

Project start

1 Jul 2026

Data status

Official snapshot

SOFTWARE DEVELOPMENT hypothesis · low confidence

Clean Growth & Energy Lvl3
NW postcode area
Description present

ThermalCyclones’ Next-Generation Industrial Steam Boiler Replacement – an Industrial Revolution

THERMALCYCLONES LTD

Industrial heat is one of the largest contributors to global emissions, consuming 22% of global energy and producing 20% of CO2_e,_ more than aviation and shipping combined. Most of this heat is generated by fossil-fuel steam boilers, which remain the backbone of manufacturing processes. However, current industrial heat pump (IHP) technologies cannot easily replace steam boilers, leaving a large and critical gap in decarbonization efforts. ThermalCyclones addresses this challenge with a breakthrough industrial heat pump system designed as a direct, drop-in replacement for steam boilers. Our technology enables up to 75% reduction in energy consumption and 70% reduction in CO2_e_ emissions, delivering rapid decarbonisation at low cost. The system is suitable for a wide range of sectors, including pulp and paper, food and beverage, pharmaceuticals, brewing, textiles, chemicals, and district heating. The innovation lies in our ability to upgrade ambient-temperature air directly to high-quality steam at 120C to 250C in a single, highly efficient step - a capability previously unattainable in industry, yet only now possible due to our novel approach. The system combines a high-efficiency compressor, a transcritical cycle, and a benign, non-flammable, non-PFAS working fluid, ensuring both performance and environmental safety. Housed in a compact 20ft container or skid-mounted unit, the system is modular and scalable from 500kWt to 5MWt, requiring only water and electrical connections for plug-and-play installation. Beyond steam generation, the system's large temperature lift enables simultaneous cooling and heating, including refrigeration down to -10C and steam up to 200C. For food and beverage industries, this means replacing chillers and boilers with a single integrated solution, cutting energy use dramatically. In sectors like pulp and paper, where heat accounts for up to 70% of operating costs, our system can halve OpEx, transforming competitiveness. With payback periods under two years, 2-4x faster than near-peers, ThermalCyclones offers a compelling business case alongside environmental benefits. The system supports variable steam rates and source temperatures without performance loss, future-proofing industrial operations for green electricity and net-zero compliance. This project positions the UK at the forefront of global industrial heat pump innovation, strengthening high-tech manufacturing, boosting exports, and enabling rapid decarbonization of heavy industry. By delivering a scalable, cost-effective solution, ThermalCyclones will help UK industry meet Net Zero targets while enhancing global competitiveness.

Award

£676,960

Project start

1 Jul 2026

Data status

Official snapshot

MANUFACTURING hypothesis · low confidence

Advanced Manufacturing Lvl3
LE postcode area
Description present

RobusTE - 'Thermoelectric Materials for Scalable, Robust Devices through Algorithm-Accelerated Hot Extrusion'

EUROPEAN THERMODYNAMICS LIMITED

Molecular testing is becoming more prevalent in clinical diagnostics with a £15 billion global market, growing at 9.6%. Innovation including next generation sequencing technology is leading to such testing equipment becoming more compact and mobile, with many instruments depending on rapid, precise and reliable temperature control. With healthcare moving toward preventative diagnostics, early detection, and decentralised testing, there is growing demand for compact, high-performance thermoelectric modules, that can be used to control temperature reliably under intensive conditions. Thermoelectric (TE) modules are a reversible solid state heat pump, essential for this precise thermal control. However, current TE devices often fail under repeated thermal cycling, experiencing cracking, delamination, and material fatigue. These failures reduce performance, compromise accuracy, and shorten the operational lifetime of critical diagnostic instruments. The interface between the TE material and surface coatings is a particular weak point, where poor adhesion limits durability. The RobusTE project tackles these challenges by developing a new generation of mechanically robust, surface-engineered TE materials. Using controlled hot-extrusion combined with algorithm-driven process optimisation, the project creates materials with aligned crystal structures, tailored surface textures, and optimised microstructures. These innovations strengthen interfaces, reduce brittleness, improve thermal stability, and maintain high energy efficiency. Surface engineering is central to the project, enhancing adhesion and protecting against the primary failure modes of TE modules. RobusTE will also establish a predictive, scalable manufacturing framework, enabling rapid adaptation to new materials and applications while supporting UK-based production of high value TE devices. By producing longer lasting, more reliable TE modules, RobusTE will improve device uptime, reduce maintenance, and support advanced diagnostic tools and high-performance electronic systems. RobusTE delivers wide-ranging impacts across biotech, healthcare, net zero, digital infrastructure, space, and advanced manufacturing, enhancing UK industrial competitiveness, resilience, innovation, and sustainability, creating high-value jobs, strengthening domestic supply chains, and enabling durable, high-performance materials for demanding real-world applications.

Award

£84,880

Project start

1 Jun 2026

Data status

Official snapshot

SOFTWARE DEVELOPMENT hypothesis · low confidence

Innovation as a Service lvl3
EX postcode area
Description present

HeatLoop: Waste Heat Integration from Anaerobic Digestion for Insect Farming

MANA BIOSYSTEMS LIMITED

This project will demonstrate a new way for farms to use surplus heat from anaerobic digestion (AD) to support insect farming. Working with Menchine Farm in Devon, Flybox will install and trial a Black Soldier Fly (BSF) rearing system inside a heated polytunnel connected to the farm's existing AD plant. BSF larvae convert farm by-products into high-value protein and organic fertiliser, but their production currently relies on expensive heating. By using low-grade renewable heat that the farm already generates, the project aims to cut energy costs, improve heat utilisation, and create a more sustainable circular farming model.

Award

£62,642

Project start

1 Jun 2026

Data status

Official snapshot

MANUFACTURING hypothesis · low confidence

Advanced Manufacturing Lvl3
L postcode area
Description present

StrucLock: Circular Structural Wall System Validation Through Independent LCA and Demonstrator Performance Testing

STRUCLOCK LIMITED

StrucLock is developing a modular construction system that transforms recycled plastic and textile waste into high-performance building blocks. Designed for disassembly, reuse and low-impact construction, the blocks combine structural strength with built-in insulation and service channels, removing the need for separate framing, plasterboard or insulation materials. This reduces construction waste, simplifies assembly, and allows buildings to be dismantled and relocated rather than demolished. To support future industrial adoption, StrucLock is carrying out a feasibility study that includes: • a demonstrator fitted with sensors to record real-time thermal performance • an independent life-cycle assessment evaluating environmental and resource factors The project will generate evidence on material efficiency, environmental impact and practical build processes, helping organisations seeking lower-carbon, circular alternatives to traditional construction materials.

Award

£27,362

Project start

1 May 2026

Data status

Official snapshot

PROTOTYPING hypothesis · low confidence

Advanced Manufacturing Lvl3
SN postcode area
Description present

CUNEX: Surface modified copper powders for next generation additive electronic materials

DYCOTEC MATERIALS LTD

CUNEX will develop and optimise new metallic powders that can be used as an alternative to ubiquitous silver powders in additive electronics inks used in mass production of high volume devices including solar cells, medical devices and batteries.

Award

£99,961

Project start

1 May 2026

Data status

Official snapshot

MANUFACTURING hypothesis · low confidence

Advanced Manufacturing Lvl3
OX postcode area
Description present

Physics-AI Driven Industrialisation of a High-Performance, Rare-Earth-Free Light Alloy from Recycled Feedstock for Additive Manufacturing

METALNX LTD

We are advancing sustainable, high‑scrap‑content metal component manufacturing by combining physics‑based modelling with artificial intelligence, transforming how lightweight metal components are designed, developed and industrialised. This project will accelerate the industrialisation of a high‑performance, rare‑earth‑free light alloy derived from recycled feedstock for additive manufacturing by optimising its chemical composition, establishing robust processing and heat‑treatment parameters, and producing a comprehensive alloy datasheet. The objective is to deliver a market‑ready light alloy with superior mechanical performance, lower cost and reduced embodied CO₂ compared with existing alternatives. This materials innovation will enable the additive manufacture of critical structural and functional components for civil aerospace, electronics and motorsport, overcoming current material limitations that prevent these parts from achieving the performance of legacy alloys using traditional manufacturing methods.

Award

£49,000

Project start

1 May 2026

Data status

Official snapshot

MANUFACTURING hypothesis · low confidence

Advanced Manufacturing Lvl3
OX postcode area
Description present

Feasibility testing of bouncy bioglass osteochondral implants in pilot in vitro and in vivo studies

BOUNCE BIOMEDICAL LIMITED

Our project aims to create a new type of medical implant that can help people with serious damage to the cartilage and bone in their knee. These injuries often lead to arthritis, pain, difficulty walking, and eventually major surgery such as a total knee replacement. Many people - especially younger adults - have few good treatment options today. Current methods often do not repair the damage well, require long recovery times, or are too expensive for routine use. Bounce-Biomedical is developing a new implant made from a material called Bouncy-Bioglass, which is strong enough to support weight and movement but is also designed to slowly disappear as the body heals. As it dissolves, it encourages the body to grow new, healthy cartilage and bone in the damaged area. The goal is to help patients recover more quickly, avoid or delay major surgery such as total knee replacement, and return to normal activities, like work and exercising, sooner. In this project, the team will design and make improved versions of the Bouncy-Bioglass implants and test them in safe and controlled laboratory studies. This testing is essential before any clinical trial in humans can take place. Collaborators at Imperial College London and expert subcontractors will help carry out the laboratory assessments, while experts in surgery, materials science, and medical regulation will guide the design of the Bouncy-Bioglass implants to make sure they meets standards required for the project and for future clinical trials in humans after the project has finished. The project is supported by JRI Orthopaedics, a UK company that makes medical implants used in hospitals across the country. They will advise on how the new implant could be manufactured at scale and used by surgeons in real operations. Their involvement shows that the technology has a clear future route into the healthcare system. By the end of the project, the team expects to have an implant design that: 1. Surgeons, scientists, manufacturers and medical regulation experts believe has a good chance of working in humans 2. Works safely in tests, and 3. Has a clear plan for progressing to human trials. If successful, this new technology could reduce the need for knee replacements, cut NHS waiting lists, and help people stay active and independent for longer. Because the materials used are fully biodegradable and the manufacturing process produces very little waste, the technology may also help reduce the environmental impact of orthopaedic surgery.

Award

£99,947

Project start

1 May 2026

Data status

Official snapshot

MANUFACTURING hypothesis · low confidence

Advanced Manufacturing Lvl3
W postcode area
Description present

CHROMASKIN: Minimally-Invasive Interstitial Fluid Sensing Materials for Semi-Permanent Dermal Readouts

CIPHERX TECHNOLOGIES LTD

CHROMASKIN is an innovative dermal biosensing technology that enables people to monitor key health markers using a small, painless microneedle patch. When placed on the skin, the microneedle penetrate the skin dissolve and deposit tiny colour-changing particles into the dermis. These particles interact with the body's interstitial fluid and change colour in response to important metabolic indicators such as acidity (pH), glucose or others. The colour change is visible on the skin for several days and can be measured using an ordinary smartphone camera. This allows users to track changes in their metabolic health without finger-pricks, electronics, wearables, or implants. CHROMASKIN represents a completely new approach to health monitoring, using materials-based sensing rather than electronic hardware. The project will develop and test new sensing materials, integrate them into dissolving microneedle patches, and evaluate their performance using laboratory skin models. It will also begin the development of a simple phone-based tool to read and interpret the colour signals. By the end of the project, the team aims to have a functional prototype suitable for further development and regulatory planning. CHROMASKIN is being developed by CipherX Technologies, a UK company specialising in microneedle devices and advanced polymer materials. The project aligns with national priorities in preventive healthcare, diagnostics innovation, and high-value manufacturing. If successful, this technology could transform access to low-cost metabolic monitoring for individuals, healthcare providers, and researchers. It could support early identification of health risks, reduce reliance on invasive tests, and provide a minimally intrusive alternative for metabolic sensing.

Award

£99,780

Project start

1 May 2026

Data status

Official snapshot

PROTOTYPING hypothesis · low confidence

Advanced Manufacturing Lvl3
RM postcode area
Description present

Advanced Ceramic and Graphene-Enhanced Liners to Enable Efficient, Low-Emission Hydrogen and Ammonia Engines

H2CHP LIMITED

This project will explore new materials to support efficient, low-emission power generation using hydrogen and ammonia fuels. Led by H2CHP, the study will assess advanced ceramic liner and coating concepts, including the use of graphene, for application in free-piston engine generators designed for distributed energy systems. Hydrogen and ammonia offer significant potential as low-carbon fuels, but their use in combustion engines places demanding requirements on materials. To achieve high efficiency and low emissions, engines must minimise heat losses while maintaining durability under repeated thermal cycling. Cylinder liners and surface technologies play an important role in determining efficiency, reliability and maintenance requirements. The project will investigate whether advanced ceramic and graphene-enhanced materials could improve performance under these conditions. The work will focus on feasibility, including defining performance requirements, producing small-scale material samples, and testing them under representative conditions. An energy infrastructure owner and operator will provide input on operational requirements and adoption considerations to ensure the work is aligned with real-world deployment needs. The project will identify promising material concepts, key technical challenges and next steps toward future demonstration. By addressing materials barriers to efficient hydrogen and ammonia power generation, the project aims to support the transition to lower-carbon energy systems and contribute to the UK's net zero ambitions.

Award

£57,358

Project start

1 May 2026

Data status

Official snapshot

SOFTWARE DEVELOPMENT hypothesis · low confidence

Advanced Manufacturing Lvl3
BT postcode area
Description present

Interoperable Materials Passport Infrastructure for UK Circular Economy (Materials 4.0 Focus)

HELIX8 LTD

Making Recycled Materials Traceable Across UK Supply Chains When plastic is recycled in the UK, valuable information about its composition and origin is often lost. A recycler may verify that incoming material is high-quality polyethylene, but that verification data stays locked in their system. The manufacturer who buys the recycled pellets must test again. The brand using the final product cannot easily prove their packaging contains genuine recycled content. This fragmentation creates real problems. Testing is duplicated at every stage of the supply chain. Recycled content claims cannot be independently verified. As European regulations begin requiring Digital Product Passports for packaging from 2027, UK businesses face a compliance challenge with no clear solution. This feasibility study develops the missing infrastructure: open standards and tools enabling materials passport data to flow between organisations across the circular economy. What we will deliver: A materials passport is a digital record documenting a material's composition, origin, processing history, and environmental footprint. Our project creates the technical specifications allowing these passports to be created, shared, and verified across different computer systems---regardless of which software each company uses. Specifically, we will develop: * An open data format for UK materials passports, building on European frameworks but adapted for practical UK use * Technical specifications for exchanging passport data between business systems * Working demonstration software that organisations can freely use and adapt * An assessment of how this approach could extend beyond plastics to batteries, textiles, and construction materials Who benefits: UK recyclers gain the ability to provide verified material documentation that commands premium pricing. Manufacturers can demonstrate supply chain transparency to increasingly demanding brand customers. Brands can substantiate recycled content claims to regulators and consumers. The entire UK circular economy gains interoperability infrastructure that reduces duplication and builds trust in recycled materials. Our approach: Helix8 operates materials traceability software already deployed at UK polymer recyclers. This real-world experience has revealed the interoperability gap this project addresses. We will work with recycling and manufacturing partners to develop and test standards that work in practice, not just in theory. All technical outputs will be released as open-source resources, freely available for any UK organisation to adopt. Our goal is ecosystem benefit, not proprietary advantage. This project supports the National Materials Innovation Strategy's call for trusted materials data infrastructure underpinning the UK circular economy.

Award

£66,325

Project start

1 May 2026

Data status

Official snapshot

SOFTWARE DEVELOPMENT hypothesis · low confidence

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