Sinter3D is a platform company focused on industrial polymer SLS 3D printing systems, material processes and application validation. Based on selective laser sintering (SLS / LPBS, Laser Powder Bed Sinter), Sinter3D provides polymer SLS systems, material-process development, sample validation and low- to mid-volume production support for service bureaus, industrial users, research teams and regional distribution/service partners.
Sinter3D's core R&D team is mainly composed of graduates from Dalian University of Technology, Huazhong University of Science and Technology and other well-known 985 universities in China. With PhD-level technical leadership and master-level engineers as the backbone, the team covers the full R&D and delivery chain. Sinter3D is not a simple equipment assembly team; it builds system capability around the polymer SLS forming process, including model data processing, slicing algorithms, scan-path and energy strategy, motion control, hardware control systems, laser-powder-thermal-field process development, machine structure design and production automation integration.
Sinter3D is not positioned around generic prototyping. It focuses on industrial applications that require material performance, structural complexity, validation speed and production-cycle planning. Current material directions include PA12, PA11, PA6, PP, TPU, PEBA, PPS, PEEK, PEKK and reinforced composites. Application directions include powder-bed elastomer functional parts, complex functional parts, low-volume production, high-temperature flame-retardant material validation, complex insulation structures in new energy / energy storage / high-voltage electrical fields, and capability upgrades for service bureaus and regional partners.
SLS is suitable for complex structures, support-free forming, high-mix low-volume parts, functional-part production, material-process validation and selected end-use parts. For special structures and defined volume requirements, Sinter3D can customize system configuration and production-cell solutions according to part size, material system, build cycle, post-processing route and production takt. SLS is more relevant to complex structures, multiple variants, low- to mid-volume production, functional-part production and material-process validation. For simple large parts or very high-volume commodity plastic parts, customers can compare injection molding, machining, composite forming and SLS by total cost, delivery cycle and process maturity. Sinter3D helps customers evaluate material, structure, process, capacity and application conditions before final system selection, quotation and delivery.