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Project record · 10185411
RobusTE - 'Thermoelectric Materials for Scalable, Robust Devices through Algorithm-Accelerated Hot Extrusion'
Recipient: EUROPEAN THERMODYNAMICS LIMITED
Verified official record
SOURCE FACTS
Imported fields from the dated official snapshot. The displayed source does not establish a procurement plan or unrestricted spending.
- Recipient organisation
- EUROPEAN THERMODYNAMICS LIMITED
- Project reference
- 10185411
- Funder
- Innovate UK
- Programme
- National Materials Innovation Programme: Feasibility Studies
- Award value
- £84,880
- Project dates
- 1 Jun 2026 – 28 Feb 2027
- Imported sector
- Advanced Manufacturing Lvl3
- Postcode area
- LE (LE8 0RX)
- Project status
- Live
- Source data quality
- Description present in snapshot
Derived analysis
GRANTSIGNAL INFERENCES
Commercial inference — not stated procurement intention.
Possible supplier-fit category: SOFTWARE DEVELOPMENT
Evidence from description: “algorithm”
The project description mentions this activity; it does not state an intent to buy from a supplier.
This is a categorisation of wording in the project description, not a claim that the recipient intends to buy, tender, appoint, or contact any supplier.
Official project description
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.
Provenance & data availability
- Snapshot imported
- 10 Aug 2026, 07:53 UTC
- Source publication/snapshot date
- 2026-07-06
- Source
- Innovate UK funded-project workbook via UKRI
- Company matching
- Not assessed in this demo. A supplied company number may exist in the source, but it has not been independently verified against Companies House.
The validation found that the snapshot first-seen time followed project starts in the reviewed sample. This demo is therefore historical research only, not a new-award, current-status, or project-timing service.