If your project requires fast iteration, complex geometries, low tooling cost, or short lead times, 3D printing is often an ideal solution.
Our engineers can evaluate your design and recommend whether 3D printing, CNC machining, or molding is the most suitable manufacturing method.

Lead times depend on part size, complexity, material, and quantity.
Prototypes can often be delivered within a few days, while batch production timelines are defined based on project scope and finishing requirements.

We accept common 3D file formats including STL, STEP, IGES, and OBJ.
Our engineering team can also review and optimize files for printability, strength, and cost efficiency before production.

Yes. 3D printing is often used alongside CNC machining for hybrid parts or as a bridge to injection molding.
We support design validation, prototype iterations, and tooling development within a single integrated manufacturing workflow.

We offer a full range of post-processing services, including support removal, UV curing, sanding, bead blasting, dyeing, painting, vapor smoothing, and CNC secondary machining.
Post-processing methods are selected based on printing technology and functional or cosmetic requirements.

Our quality control process includes material verification, print parameter validation, in-process inspection, and post-print dimensional checks.
For batch production, standardized process settings and inspection plans are used to ensure repeatable quality across all parts.

Yes. Many 3D printed parts are used directly as functional components, especially in jigs, fixtures, housings, enclosures, and custom mechanical parts.
For higher durability or appearance requirements, post-processing and surface finishing options are available.

Typical tolerances range from ±0.2 mm to ±0.3 mm, depending on printing technology, material, and part geometry.
For critical features, secondary CNC machining or post-processing can be applied to achieve tighter tolerances where required.

We support a wide range of engineering plastics and composite materials, such as ABS, PLA, Nylon (PA6 / PA12), TPU, PETG, carbon fiber–reinforced polymers, and high-performance resins.
Material selection is guided by mechanical strength, heat resistance, chemical stability, and end-use conditions.

We provide multiple industrial-grade 3D printing technologies, including FDM, SLA, SLS, and MJF.
Each process is selected based on material requirements, dimensional accuracy, surface quality, and intended application—from rapid prototyping to low- and medium-volume production.