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FOR HARDWARE BRANDS

Custom engineering plastics,
at startup speed.

48 hours to three material recommendations. 4-6 weeksto your custom material. Built for hardware brands the majors aren't.

48
HOURS

from your spec to three honest recommendations

4-6
WEEKS

from intake to your custom material in trial

FASTER

than the majors' typical timeline

HOW WE'RE BUILT DIFFERENTLY

Most plastics suppliers won't engage on a single part.

We pick partners based on the problem, not the order size. The part where material choice meaningfully moves your product is the conversation we want to have — and you get three honest recommendations within 48 hours.

By the time a major's sales rep schedules a first call, you have material from us in trial.

WHERE THIS WORK PAYS BACK

Mature brands aren't buying painkillers — they're buying competitive advantage.

Each card below pairs a documented pain with an upside custom plastics can deliver, with precedent from teams that already captured it. Use cases span consumer electronics and robotics.

Consumer Electronics · Sustainability

Pushing the recycled-content ceiling

Pain

Most brands stop at 30% recycled content. Past that, color drift and surface defects show up — the product starts looking recycled.

Upside

Push past 30% recycled while keeping the surface and impact spec your design demands — a sustainability story competitors can't match yet.

Precedent: Dell + Covestro held engineering properties from 30% up to 72% recycled across three reuse cycles. Fairphone 5 ships 100%.

Robotics · Field Life

Cable jackets that don't fail in 18 months

Pain

Robot arms and humanoids flex cables millions of times. Field data shows standard cables failing at the 18-month mark.

Upside

5× typical service life on cables that fail at the 18-month mark today. Reliability becomes a warranty claim, not a field risk.

Precedent: igus and other industrial cable engineers have validated TPU jacket formulations to 15M+ flex cycles in accelerated testing — 50% beyond the typical 10M-cycle industry spec.

Consumer Electronics · AI Compute

Heat-conducting plastics

Pain

AI chips in compact devices run hot. Metal heatsinks add weight, occupy space, and dictate where everything else has to go.

Upside

Engineered within a few degrees of aluminum's thermal performance at half the weight. Opens up integrating thermal management into the housing instead of bolting it on — design freedom your engineers get back.

Precedent: Sabic and Covestro both ship commercial reference grades — used in EV battery enclosures, LED housings, and premium electronics.

Robotics · Mechanical

Gears that last without the metal weight

Pain

Industrial joints and humanoid actuators wear out their gears. Metal solves durability but adds weight; standard plastic degrades fast.

Upside

Longer gear cycle life at substantially lower weight. Formulation tuning between PEEK, CF-PEEK, and engineered POM grades depending on the cycle and temperature envelope.

Precedent: Tesla Optimus uses PEEK in the harmonic reducer rigid wheel — published 38% mass reduction and 69% lower stress on the flex spline. Aerospace has used CF-PEEK in high-cycle drives for decades.

Consumer Electronics · Cost + Environmental

Eliminating the paint step

Pain

Painting plastic parts is 15-30% of total part cost. Plus rising environmental rules on paint chemicals, plus paint chipping in the field.

Upside

Cut 15-30% of finished part cost by eliminating the paint step. Same look, no VOC compliance headache, no field chipping.

Precedent: Acer + Teijin shipped unpainted recycled-content notebooks at scale. Case studies report up to 40% paint-step cost cut.

Robotics · Optical Precision

LiDAR housings that hold tolerance

Pain

LiDAR and stereo camera housings need micron-level precision. Standard plastic warps with temperature — enough to throw off calibration.

Upside

Sensors hold calibration through temperature, humidity, and drops. Tighter reliability story, fewer returns from miscalibration.

Precedent: Automotive ADAS pioneered this for radar and camera housings. The playbook ports cleanly to robotics LiDAR.

Consumer Electronics · Manufacturing Economics

More parts per shot in nylon connectors

Pain

USB-C and similar miniaturized connectors push against how thin nylon can flow. Wall thickness and parts-per-shot both capped.

Upside

15-25% more parts per machine cycle from cycle compression on thin walls. Tooling amortization compounds — direct margin gain on every high-volume connector.

Precedent: DuPont, BASF, and Solvay all sell high-flow nylon grades for exactly this use. The differentiator is specialized polymer chemistry.

Robotics · Weight + Performance

Metal replacement at half the weight

Pain

Humanoid and mobile robots need to be light to move fast, but structural parts traditionally need metal for strength.

Upside

A lighter robot moves faster and runs longer on the same battery. Speed and uptime become product features, not engineering compromises.

Precedent: Tesla Optimus uses these materials for its skeletal frame — published 10 kg lighter and 30% faster walking speed. Aerospace has used CF-PA and LGF-PA for decades in high-cycle, weight-constrained applications.

ALSO ENGAGING ON: fire-safe plastics for ultra-thin walls (EU-compliant) · EMI-shielding grade selection & integration · soft-touch rubberized surfaces · precision gear compounds · static-dissipating housings. Ask about your specific part.

WHY SPEED MATTERS

The materials decision happens in the design room, not the factory.

Apple's “Materials Engineer — Polymers” role sits in Cupertino. Tesla's polymer choices for Optimus are made in California. In both cases, the spec is decided by the design team, not the factory.

The supplier that shows up while the design is still open gets invited into the conversation — and tends to own the part for its lifecycle. By the time a major's sales rep schedules a first call, that window has closed.

HOW IT WORKS

From your spec to material in trial. Four phases.

01 · Discovery

Spec intake and alternatives surfaced

Day 1-3

02 · Formulation

Three directions with honest tradeoffs

Day 3-10

03 · Iteration

Custom-make, test, refine the formulation

Day 10-28

04 · Delivery

Production-ready sample and sign-off

Day 28-42

WHAT WORKING WITH US LOOKS LIKE

Direct technical access. Weekly iteration. Production-ready supply.

01

Direct line to engineering

Your single point of contact has direct access to the formulators — not a sales rep relaying questions back through layers.

02

Same-day turnaround on questions

Spec questions, color targets, regulatory hurdles — answered the same day you raise them, through the entire iteration phase.

03

Weekly check-ins through compounding

Test results, formulation tweaks, and next-trial scope reviewed together every week — with new iterations launched as test data justifies them.

04

Production sign-off and ongoing supply

Once you sign off the spec, we handle ongoing supply — shipped to your OEM, warehouse, or wherever your supply chain requires.

THE PILOT PROGRAM

One part at a time. No commitment.

Show us the part giving you the most material trouble — what it is, your current spec, what's broken about it. We come back in 48 hours with three material recommendations and an honest tradeoff assessment. If they hold up, we iterate with you on the actual formulation. If they don't, you've spent nothing.

Brand fit

Hardware brand — Consumer Electronics, robotics, or scaling startup with a real product

Material fit

Pain in nylon, polycarbonate, ABS, acetal, TPU, or recycled-content plastics

Engagement fit

Materials or product team available for 2-3 working sessions in Q3

APPLY FOR THE PILOT

Tell us about your problem part.

Every application reaches the founder directly. You'll hear back within 48 hours with an initial read on your spec and pilot fit.

We respond within 48 hours with an initial read on your spec.