04How it works

Four steps from load case to sample.

Every project follows the same path. Find the step you are on; that is where we start.

Step 1 of 4

Set your targets.

Tell us the load case: impact energy or drop height, vibration, peak force or g limit, temperature range and the envelope the part must fit. Those numbers drive everything after.

You’re here if

You know what your part has to survive, but not which material to use.

Start a part spec

Step 2 of 4

We tune the material.

We set density, additives and additive loading to your targets and send you a material spec and a custom data sheet. The formulation for your part is yours.

You’re here if

You have targets and want to know what the material can do for them.

Request a data sheet

Step 3 of 4

Check it in FEA before tooling.

Our design team runs finite element analysis (FEA) on your part under the drops, strikes and vibration it will face. It is an inexpensive way to check behavior in conditions the material has not been tested in yet, before any tooling is cut.

You’re here if

You have a part design and want to know whether it will hold up.

Try the impact test

Step 4 of 4

Test a sample on your hardware.

We cast a sample of your part on our own patent-pending automated machine, the same machine built to run your production orders, so you can test it on your hardware before you commit.

You’re here if

The simulation looks right and you are ready to test it in hand.

Talk to an engineer

01Tested additives

Starting points for your formulation.

These additives have been tested with our base elastomer. We choose which ones your part needs and how much of each, to hit your targets.

Base material

Base elastomer

Our microcellular polyurea elastomer.

With or without an additive

Each additive has been tested with our base elastomer, so your formulation starts from known behavior.

Your starting formula

Preview the material

Need a property these do not cover?

Describe what your part has to do. Our assistant answers from our test data and published research, and our team follows up.

04Behind step 4

Your sample comes off a machine we invented.

We designed our own automated production machine to cast your formulation into your part. Its patent application is filed and pending.

Automated cold-pour overmoldingThe machine pours your formulation into a closed mold, so every part matches the tooling, with no hand-mixing variation.
From sample to productionThe machine that makes your sample is built to run your production orders, so what you approve is what you get at volume.
Invented in-houseDesigned by our CTO, Jatomis Stevenson, an inventor of production machines.

Patent pending

Geometry / In development

Geometry tunes how the part fits and behaves

Cored sections, lattices and surface features change stiffness and vibration response without changing the formula. This work is running in our lab and moving toward production tooling.

Formulation is available for production today. Geometry tuning is offered case by case while it is in development.

Formulation: Available
Geometry tuning: In development
Starting point: Your load case

For hardware teams

Built for hardware teams.

Impact and vibration parts tuned to your load case, without the cost of a traditional custom-material program. Your formulation and shape combination is your IP, not ours.

Start a part spec

What to bring

What we need to spec your part

The hardware

The part, its mass, mounting points and the envelope it has to fit. CAD helps if you have it.

The environment

Impact energy, vibration, temperature range, charge, flame and contact requirements.

The targets

Peak force or g limit, stroke, weight budget, or the standard you need to pass. Rough numbers are fine.

The timeline

Exploring, prototyping, planning production or already in production.

Next step

Send the load case. We will spec the part.

No chemistry vocabulary required. Share what you know today and we come back with a material spec and a simulation plan.

Start a part spec Talk to an engineer