UK SME engineering titanium and high-entropy alloy composites for aerospace, transport, and space propulsion applications.
TISICS is a UK-based SME specialising in the engineering and fabrication of advanced metal and ceramic matrix composites, with a particular focus on titanium-based composites (TMC) for high-performance structural and thermal applications. Their work spans the full chain from material design through to manufactured components, applying techniques such as selective laser melting and cold spray to produce parts that must perform under extreme mechanical or thermal loads. They started in aerospace transport — developing titanium composite brake parts to cut weight and fuel burn — and have since moved into space-grade material systems, including high entropy alloys and ceramic matrix composites designed for the extreme temperatures of rocket propulsion. As an SME, they operate as a specialist manufacturing and materials engineering partner within larger research consortia, bringing hands-on fabrication capability that academic groups typically lack.
The TMC Brake project directly produced a titanium composite brake part for aerospace weight reduction, and ATLAS further builds on metal matrix composite expertise for space propulsion.
The ATLAS project (2021–2023) focused specifically on high entropy alloy-based materials for space propulsion systems operating at extreme temperatures.
Ceramic matrix composites are listed as a core topic in the ATLAS project alongside metal matrix composites, indicating dual-material capability for thermal protection applications.
ATLAS keywords include selective laser melting and cold spray, identifying TISICS as a practitioner of additive and kinetic deposition manufacturing for advanced alloy systems.
TMC Brake (2015–2016, coordinator role) targeted a composite brake part specifically to reduce aircraft weight, fuel consumption, and emissions.
In their earliest H2020 work (2015–2016), TISICS focused on applied aerospace transport engineering — specifically a titanium composite brake part aimed at reducing weight and fuel burn, a commercially straightforward problem with a defined industrial buyer. By their most recent project (2021–2023), the focus had shifted substantially toward frontier materials science: high entropy alloys, ceramic matrix composites, and integrated computational materials engineering, all in the context of space propulsion — a far more demanding and research-intensive environment. The trajectory suggests TISICS is moving up the technology readiness ladder in reverse: having demonstrated fabrication competence in transport applications, they are now repositioning as a research-and-development partner for next-generation space materials, where they bring manufacturing know-how to bridge the gap between computational design and physical parts.
TISICS is moving from applied transport components toward frontier space materials research, making them an increasingly relevant partner for consortia working on next-generation propulsion, re-entry systems, or extreme-environment structural materials.
TISICS has taken on both the coordinator role (leading the SME-1 phase 1 feasibility study for TMC Brake) and the participant role (joining the larger ATLAS research consortium), suggesting they are comfortable in either position depending on project scope. With only 7 unique partners across 2 projects, their consortia have been small and focused rather than broad networks, which is typical for specialist SMEs that bring a narrow but critical capability. This points to a working style built around being a go-to fabrication and materials expert within a small, technically tight team rather than a generalist coordinator managing large multi-partner programmes.
TISICS has collaborated with 7 unique partners across 5 countries, a modest but genuinely international footprint for a two-project SME. Their network spans both the transport and space research communities, though no single country dominates — consistent with joining well-matched consortia rather than cultivating a fixed partner base.
TISICS occupies a rare position as an SME that combines proprietary titanium matrix composite manufacturing with the ability to engage in frontier materials research — most companies of this size can do one or the other, not both. Based in Farnborough (the heart of UK aerospace), they are physically embedded in the aerospace and defence supply chain, giving them direct access to end-users for the components they develop. For a consortium needing someone who can take a novel alloy from computational design to a real fabricated sample, TISICS is one of very few small companies in Europe with that full-stack capability.
