From ultra-high-resolution SLA prototypes to industrial-grade vacuum casting and liquid silicone rubber (LSR). Complex geometries realized without tooling limits.
Industrial-grade additive manufacturing, vacuum casting and precision molding for plastics and rubbers.
Unlock design freedom without tooling limits. We operate industrial-grade stereolithography and selective laser sintering systems for high-resolution visual prototypes and tough functional nylon parts.
The low-volume bridge between prototype and tooling. From 3D-printed master patterns and precision silicone molds, we cast high-fidelity polyurethane parts that closely mimic injection-molded properties.
Complete elastomer manufacturing for industrial valve seals, gaskets and custom rubber components. Plate vulcanizing presses handle solid silicone and rubber; precision injection lines handle liquid silicone rubber.
Bridge the gap between prototyping and mass production. Rapid aluminum and steel tooling on professional injection molding machines delivers parts in real, production-grade engineering thermoplastics.
Hover or tap a material to see which process it runs on. Grayed-out elements are handled by our CNC and casting lines.
Each colored element is a material we print, cast or mold in-house.
Technology
—Key feature
—From strict dimensional tolerances to aggressive industrial environments, our polymer processes are specified for zero-compromise applications.
Expected dimensional accuracy by process.
Bands drawn to scale. Full track = ±0.25 mm.
General geometric limits for reliable additive manufacturing.
Polymers that keep their structure and dimensions under continuous high-heat exposure.
Chemically inert elastomers and rigid plastics that resist swelling or degradation from oils, fuels and industrial solvents.
High-toughness formulations that withstand severe impact, snap-fit cycling and heavy loads without fracturing.
Transparency is our policy. While additive manufacturing is unparalleled for rapid form and fit validation, 3D-printed polymers simulate, but do not identically replicate, the molecular structure of injection-molded thermoplastics.
Before moving to functional testing, please consider the inherent material gaps.
3D printing builds parts layer by layer, making them up to 20% weaker along the Z-axis. Injection-molded parts have uniform strength in all directions.
Standard SLA resins are thermosets that can become brittle over time and degrade under UV light. They lack the cyclic fatigue endurance of genuine molded PA66 or POM.
If your functional testing requires real engineering pellets (glass-filled nylon, PC/ABS, Ultem), skip 3D printing and use our rapid aluminum tooling. Get injection-molded parts in as little as 7 days.
Explore rapid injection moldingWhether you are validating a consumer enclosure or a medical-grade silicone seal, your proprietary CAD data is encrypted and strictly isolated from day one.
