Alloys designed for the job, not picked from a catalogue.

Trumet Alloys Technologies uses a computer-implemented, multi-criteria design platform to find high-entropy alloys that meet your requirements, then fabricates and characterizes them to prove it.

Screening the Cu–Al–Fe–Mn–Ni composition space700 candidates
CuAlFeMnNi
  1. High entropy–
  2. Ductile structure–
  3. Low density–
  4. Stable solid solution–
Tap a point to see its composition.
Illustrative screen using published high-entropy alloy rules, not Trumet's production model.

What we do

Most engineering alloys were developed decades ago around one or two base metals. Trumet works in the much larger space of high-entropy alloys, where five or more elements share the lattice, and narrows it down with software before anything is melted.

Design

We translate your mechanical, thermal, weight and manufacturing requirements into design criteria and search candidate compositions against all of them at once.

Develop

Promising candidates are fabricated and characterized so their properties are measured, not just predicted.

Deploy

Validated materials move toward use in aerospace, defense, marine and additive manufacturing applications, with partners who need them.

How it works

From a list of requirements to a validated material, in four stages.

  1. Define requirements

    Strength, density, corrosion resistance, operating temperature, cost and printability are captured as measurable targets.

  2. Explore candidates

    The platform generates and evaluates candidate compositions across the full multi-element design space.

  3. Rank the trade-offs

    Candidates are scored against every criterion together, so gains in one property aren't bought with hidden losses in another.

  4. Validate

    The strongest candidates are fabricated and characterized in the lab before they're recommended for use.

CuAlFeMnNi, our first alloy

A five-element high-entropy alloy taken from computational screening through fabrication and characterization.

It uses the same elements found in marine-grade nickel-aluminium bronzes, explored across a far wider range of proportions than conventional alloy design allows.

Industries served

Where demanding environments make off-the-shelf alloys a compromise.

Aerospace

Lighter components that hold strength under heat, load and vibration.

Defense

Materials matched to mission requirements and sovereign supply needs.

Marine

Resistance to seawater corrosion, cavitation and biofouling.

Additive manufacturing

Alloys screened for printability from the start, not adapted afterwards.

Case studies

Material development

Developing CuAlFeMnNi

From composition screening to a fabricated and characterized high-entropy alloy.

Read the case study
Aerospace

DAIR Green Fund project with Aeroflux Contactless Brakes

Applying Trumet's alloy design to an aerospace braking application.

Read the case study
Technology

Building the alloy design platform

How multi-criteria design replaces trial-and-error alloy development.

Read the case study

Partners and funding

Trumet works with industry, research and funding partners to move new materials toward real applications.

Partners, credentials and acknowledgements
DAIR Green FundFunding partner, aerospace project
Aeroflux Contactless BrakesIndustry partner, aerospace

Frequently asked questions

Something else on your mind? Ask us directly.

What is a high-entropy alloy?

An alloy built from five or more principal elements in roughly comparable amounts, rather than one base metal with small additions. This opens up combinations of properties that conventional alloys can't reach.

Can Trumet design an alloy for my specific application?

Yes. That's the core of what we do. Start with a consultation and we'll work through your requirements, constraints and timeline.

Do you only work with CuAlFeMnNi?

No. CuAlFeMnNi is our first developed alloy, but the platform can explore other element systems when an application calls for it.

Are your alloys suitable for 3D printing?

Manufacturability, including for additive manufacturing, is one of the criteria we screen for from the start rather than an afterthought.

How do you validate a new alloy?

Candidates are fabricated and characterized to measure their structure and properties against the original targets before we recommend them.

How do research collaborations work?

We work with universities, labs and industry on joint projects and funded programs. Use the contact form and choose "Research collaboration".

Have a material problem that standard alloys don't solve?

Tell us what the part needs to do. We'll tell you how we'd approach it.