High-Precision 3D Printing Services

Trusted by manufacturers for low-volume production and rapid prototyping

What is 3D Printing

3D printing is an additive manufacturing process that creates three-dimensional parts layer by layer from digital CAD models.

A 3D printer builds the part by depositing or solidifying material—typically plastic or metal—according to the design’s exact specifications.

Unlock design freedom and accelerate product development with our advanced 3D printing services. We offer end-to-end additive manufacturing solutions tailored for functional prototyping, complex geometries, and low-volume production of end-use parts.

SLA
(Stereolithography)

Smooth, high-detail plastic prints for visual models and prototypes.

SLS
(Selective Laser Sintering)

Durable, support-free plastic parts with complex geometries.

DMLS
(Direct Metal Laser Sintering)

Functional metal components for industrial-grade applications.

Why Choose 3D Printing?

Faster Product Development

3D printing shortens design-to-production cycles, enabling rapid prototyping and quicker time-to-market.

Lower Development Costs

It reduces tooling, labor, and material costs—ideal for validating designs before full-scale production.

Complex Geometry with Ease

Create intricate part geometries and internal features that are difficult or impossible with traditional methods.

No Tooling Required

Eliminates the need for molds or fixtures, saving upfront investment and speeding up early-stage development.

Flexible Volume Production

Whether you need one prototype or a short-run batch, 3D printing offers unmatched scalability.

Wide Material Options

Supports both plastic and metal materials to meet functional, cosmetic, and mechanical requirements.

Not sure which 3D printing service
is right for your project?

Our Capabilities with 3D Printing

Multi-Process Expertise

We offer SLA, SLS, and DMLS to suit different materials and part requirements.

Wide Material Selection

Choose from resins, nylons, and metals like aluminum, stainless steel, and titanium.

High Precision & Complex Shapes

We produce parts with tight tolerances and complex geometries, including internal features.

Fast Turnaround

Standard lead times range from 1 to 7 days, depending on the process.

Flexible Production Volumes

Ideal for single prototypes or low-volume production—no tooling required.

Surface Finishing Options

We offer painting, polishing, plating, anodizing, and more for functional or cosmetic finishes.

3D Printing Spec

Get this quick reference to learn about materials, finishes, considerations and technology options for our 3D printing technologies.

Exhibition Snapshot - Shared with Client's Approval (3D Printing)

Our 3D printing has helped clients cut design iteration time by up to 50%, enabling faster product launches and timely trade show presentations.

Why Choose Us

Expert Engineering Support

20+ years of manufacturing experience

Reliable Production

Advanced machines & strict quality control

Certified Quality Assurance

ISO 9001 & IATF 16949

One-Stop Solution

Design to finished product

Eco-Friendly Materials

Compliant with RoHS & REACH

Responsive Support

Dedicated project tracking and global delivery

Surface Finish Options fo 3D Printing

To meet your functional and aesthetic needs, we offer a wide range of post-processing services for plastic and metal parts:

Coating &
Decoration

Painting, silk screening, hot stamping, soft-touch coating

Surface Texture & Appearance

Polishing, sandblasting, brushing, leather texturing, transfer printing

Functional Finishes

Electroplating, anodizing, UV coating , overmolding

Precision Marking

Laser engraving, pad printing

Our finishing services ensure your parts not only function perfectly—but look and feel just right for your market.

Important Notes for 3D Printing

Minimum Wall Thickness:
  1. Recommended minimum wall thickness for plastic/resin parts: ≥ 0.8 mm;
  2. Recommended minimum wall thickness for metal parts (SLM): ≥ 0.3–0.5 mm;
  3. Walls thinner than recommended might fail during printing or deform easily. Please confirm in advance.
  1. Triangle Face Normals
    Please make sure that the normals of all triangle faces are correctly oriented — the front and back faces should not be reversed. All face normals should point outward to define a closed, solid model. Incorrect normals may cause errors in printing or mold analysis.
  2. No Holes or Gaps
    The STL file must represent a watertight, fully closed solid. There should be no missing faces or holes in the geometry. Non-manifold edges or open surfaces may result in processing or printing failures.

If possible, please run a mesh check or repair in your modeling software before exporting the STL file.

  1. Our standard tolerance ranges are:
    Resin (SLA/DLP): ±0.05–0.1 mm;
    Nylon (SLS): ±0.1–0.2 mm;
    Metal (SLM): ±0.1–0.2 mm;
    CNC Machined Parts: ±0.1 mm
  2. If higher precision or special tolerances are required, please clearly specify in advance.
  1. For parts requiring assembly, please provide clear assembly drawings and instructions. We will assemble and inspect the parts before shipment.
  2. If no assembly request or assembly drawings are provided by the customer, we will not assemble by default and will not be responsible for any resulting issues.
  3. Recommended assembly clearance: at least 0.15 mm per side.
  1. If painting is required, please provide a clear Pantone color code or standard color sample.
  2. If no color code or sample is provided, we will not be responsible for any color deviation.
  1. For CNC machined parts, please provide 2D engineering drawings clearly indicating tolerances, thread specifications, and any special machining requirements.
  2. Without provided 2D drawings, we will manufacture according to the supplied 3D data and standard international tolerances. Areas without special instructions will be processed according to general standards.
  1. Small threads are recommended to be machined or inserted separately; direct 3D printing of small threads is generally not advised.
  2. Please inform us in advance regarding specific mechanical requirements (strength, toughness, heat resistance, etc.) to confirm suitable materials and processes.
  3. Long, thin, unsupported, or thin-walled structures may deform; structural optimization during the design stage is highly recommended.

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