Inkbit, a Medford, Massachusetts-based developer of vision-controlled jetting technology, has integrated its TEPU 30A and TEPU 50A elastomers into the Stratasys Direct manufacturing service portfolio. This partnership allows industrial customers to access Inkbit's proprietary additive manufacturing process for functional elastomeric parts without requiring in-house hardware investment. The TEPU materials, characterized by their high durability and specific Shore A hardness ratings, are processed using Inkbit's closed-loop, vision-based jetting system which utilizes real-time monitoring to ensure dimensional accuracy and part consistency. Stratasys Direct will manage the production workflow, providing a scalable service bureau route for end-use components that require the mechanical properties of traditional thermoset elastomers.

This integration addresses a critical gap in the polymer additive manufacturing market, where achieving the mechanical performance of injection-molded elastomers has historically been limited by the resolution and material properties of standard DLP or SLA systems. By leveraging Stratasys Direct, Inkbit gains immediate access to a broad industrial customer base, bypassing the capital expenditure hurdles typically associated with adopting new hardware platforms. This move positions Inkbit to compete more effectively against established powder-based elastomer technologies like MJF or SLS, specifically in applications requiring high-fidelity surface finish and complex internal geometries that are difficult to achieve with traditional casting or molding methods.

For industrial users, this partnership provides a low-risk pathway to evaluate Inkbit's TEPU materials for production-grade applications such as seals, gaskets, and vibration dampeners. The success of this offering will depend on Stratasys Direct's ability to maintain consistent lead times and quality control standards across their service network. Prospective buyers should focus on validating the long-term fatigue performance of these printed elastomers against existing thermoplastic polyurethane benchmarks to determine suitability for specific end-use environments.