We can achieve standard tolerances of ±0.01 mm, with high-precision capabilities up to ±0.001 mm depending on part geometry and manufacturing process.
Tighter tolerances are available upon request.
The main difference is corrosion resistance.
Stainless Steel 316 contains molybdenum, which provides better resistance to chemicals and saltwater environments compared to 304.
316 is ideal for marine and medical applications, while 304 is more cost-effective for general use.
Stainless Steel 303 is typically the easiest to machine due to its improved machinability.
However, Stainless Steel 304 and 316 are more commonly used because they offer better corrosion resistance and overall performance.
Our engineers can recommend the best material based on your specific requirements.
Simply upload your drawings or 3D files and provide basic requirements such as material, quantity, and surface finish. Our engineering team will review and provide a quotation within 12–24 hours.
Tip: Providing clear tolerances and application details helps speed up the quoting process.
We accept STEP, STP, IGES, X_T, and STL files. 2D drawings (PDF/DWG) are also recommended for tolerance and technical requirements.
We utilize advanced CNC equipment, optimized tooling strategies, and precision inspection methods to ensure complex geometries and tight tolerances are achieved consistently.
Yes. We provide design for manufacturability (DFM) feedback to help reduce cost, improve machinability, and minimize production risks before manufacturing begins.
Lead time depends on part complexity and quantity. Prototypes can be delivered in as fast as 3–7 days, while production orders typically range from 1–3 weeks.
We offer a variety of finishes including anodizing, powder coating, polishing, sandblasting, plating, and passivation. Surface treatments improve corrosion resistance, durability, and visual appearance.
Yes. We can provide full dimensional inspection reports, CMM reports, and material certifications upon request. Documentation ensures transparency and traceability for every order.
We implement standardized machining processes, first article inspection (FAI), in-process quality monitoring, and final inspection. This ensures stable quality and repeatability across all production batches.
We offer CNC machining (3-axis, 4-axis, and 5-axis), CNC turning, sheet metal fabrication, and limited 3D printing for prototyping. Processes are selected based on part complexity, tolerance, and production volume.
Yes. We support everything from rapid prototyping (as fast as 3–7 days) to low- and mid-volume production. Our processes are optimized to ensure consistency when scaling from prototype to batch manufacturing.
We support a wide range of automotive-grade materials, including aluminum alloys (6061, 7075), stainless steel (303, 304, 316), alloy steels, brass, and engineering plastics such as PEEK and nylon. Material selection depends on strength, weight, corrosion resistance, and application requirements.
We typically achieve tolerances up to ±0.01 mm depending on part geometry, material, and manufacturing process. For critical components, tighter tolerances can be evaluated based on drawings and technical requirements.
Both CNC machining and 3D printing are widely used in medical manufacturing, and the best choice depends on your project requirements.
In general:
Not sure which process is right? Upload your design and we’ll recommend the best manufacturing solution.
The best material depends on your specific application requirements, including strength, biocompatibility, weight, and sterilization conditions.
Choosing the right material requires balancing performance, environment, and manufacturing feasibility.
Simply upload your CAD file or send us your project requirements. Our team will review your design and provide a quotation along with manufacturing recommendations.
We support a wide range of medical-related applications, including surgical instruments, medical device components, implants, and precision equipment parts.
Yes, our engineering team provides design for manufacturability (DFM) feedback to help optimize your design, reduce risks, and improve production efficiency.
