Why Choose wemake for Your CNC Machining Projects?
wemake’s Machining Capabilities
Leveraging over 400 CNC machines across our six strategically located facilities, wemake offers a comprehensive suite of machining solutions. We excel at crafting high-precision parts, handling both small-batch orders and high-volume production runs. Our dedicated team manages a robust supply chain, ensuring we have the resources to meet the diverse needs of various industries.
Superior Flexibility & Speed
From rapid prototyping to full-scale production, our 3, 4, and 5-axis machining capabilities empower you to bring your ideas to life quickly and efficiently. We offer competitive pricing and lead times through our user-friendly Instant Quote system. Simply upload your CAD files or technical drawings for a fast and accurate quote on various metals and plastics.
Industry-Leading Cost Savings
Our CNC Milling service is 50% lower than that of European and American competitors. This translates to significant savings on your high-precision parts without compromising on quality.
Quality You Can Trust
Our ISO 9001:2015, ISO 13485, and AS9100D certified quality management system guarantees parts that meet your exact specifications.
What is CNC Machining?
CNC machining, or Computer Numerical Control machining, is a subtractive manufacturing process widely used across various industries. It excels at creating high-precision and complex parts from a solid block of material, ideal for applications requiring high accuracy, such as aerospace components, medical devices, and intricate molds.
CNC programs guarantee consistent part production across batches. This minimizes human error and ensures every component meets your exact specifications, crucial for high-volume manufacturing and maintaining quality control.
CNC machines can handle a wide range of materials, from traditional metals like aluminum, steel, and titanium to engineering plastics, composites, and even wood. This allows you to select the material that best suits your project's needs in terms of strength, weight, and functionality.

wemake CNC Machining Options: Milling, Turning and More
CNC Milling Services
Fast, Precise Prototypes & Parts | ISO-Certified Quality | Instant Quotes in Minutes
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CNC Turning Services
High-accuracy & Fast Turnaround | ISO-Certified Quality | Instant Quotes in Minutes
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One-Stop Shop for CNC Machining
We Machine It All: Routing, Grinding, Drilling, EDM, Wire EDM & Multi-Axis CNC | ISO-Certified Quality | Instant Quotes in Minutes
View Productswemake CNC Machining Tolerance Considerations
| Feature | Standard | Advanced Option | Notes |
|---|---|---|---|
|
Tolerance |
±0.005" (±0.127mm) |
±0.0005" (±0.0127mm) |
Tolerances will be held to +/-.005"(+/-.127mm) in accordance with ISO 2768 unless otherwise specified. |
|
Surface Roughness (Ra) |
125uin (3.2μm) |
Up to 16uin (0.4μm) |
Surface roughness will be held to 125uin/3.2um Ra unless otherwise specified. |
|
Lead Time |
7-12 days |
Contact us for advanced options. | Get an instant quoteto see the lead time. |
|
Accepted File Formats |
3D: STEP, STP, IGS 2D drawings: DWG, DXF, PDF |
Contact us for specifics. |
Delivery time may be 2-3 days longer if only 2D drawings are provided. |
|
Machining Techniques |
Milling, Turning, Routing, Drilling, Grinding, EDM, Wire EDM |
3 aixs, 4 axis, 5 axis machining |
Wide range of capabilities, inquire for specifics. |
|
Inspection |
Standard Report (Free) |
CMM Inspection or Third Party Inspection (Fee Required) |
Free standard report, additional options available. |
wemake CNC Material Options
AISI 1018 Steel
AISI 1045 Steel
AISI 1066 Steel
AISI 1140 Steel
AISI 4140 Steel
A2 Tool Steel
D2 Tool Steel
P20 Tool Steel
H13 Tool Steel
M2 Tool Steel
YT15 Tungsten Steel
YT20 Tungsten Steel
wemake CNC Machining Finishes
Anodizing, primarily used on aluminum, employs electrochemical principles to create a layer of Al2O3 (aluminum oxide) film on the surface of aluminum and its alloys. This oxide film offers unique properties such as protection, decoration, insulation, and wear resistance.
wemake CNC Machining Design Guidelines
| Feature | Recommendation | Reason |
|---|---|---|
|
Tolerances |
Use tight tolerances only when necessary |
Engineers often specify stricter tolerances than necessary. Stricter tolerances increase machining time and cost. |
|
Text |
Avoid small or raised text |
Adding text increases costs, especially if it's small. Opting for recessed rather than raised text. |
|
Walls |
Avoid tall and thin walls |
Thin walls are prone to breaking and warping. Use 3:1 width-to-height ratio and add draft angles. |
|
Internal Corners |
Minimize sharp corners, use radii |
CNC tools are cylindrical, so radii ensure proper machining. Make sure radius size > tool diameter. |
|
Tool Sizes |
Design with standard tool sizes |
Custom tools are expensive and increase lead time. |
|
Feature Alignment |
Maximize alignment with machine axes |
Features aligned with X, Y, Z axes require fewer tool changes and setups, reducing cost. |
wemake CNC Machining FAQs
CNC machining, or Computer Numerical Control machining, is a manufacturing process where a computer controls automated machinery to remove material from a solid block of metal, plastic, wood, or foam. This subtractive process precisely sculpts the material into a desired final shape.
CNC Machining: Pros and Cons
Rapid Prototyping: CNC machining is ideal for creating rapid prototypes, allowing for quick design iterations and testing before mass production. This reduces development time and costs. High Precision and Repeatability: CNC machines achieve exceptional accuracy and consistency, essential for complex parts and tight tolerances. This translates to reliable performance and efficient assembly in the final product. Wide Range of Materials: CNC machining can handle a vast array of materials, from soft plastics to high-strength steels and exotic alloys. This versatility allows for the creation of parts with the optimal properties for each application. Complex Geometry Manufacturing: CNC machining excels at creating intricate shapes and features that would be difficult or impossible with traditional machining methods. This opens up design possibilities and allows for more functional and innovative parts. Automation and Efficiency: CNC machines are computer-controlled, enabling unattended operation and reducing human error. This leads to increased production speed, lower labor costs, and consistent quality output.
High Initial Investment: CNC machines can be expensive, especially for high-precision models with advanced capabilities. This initial investment cost can be a barrier for smaller companies. Programming Complexity: Programming CNC machines requires specialized knowledge and expertise. This can lead to challenges for companies without skilled personnel or the resources to acquire training. Material Waste: The machining process often generates scrap material, especially when creating complex shapes. This can be a concern for both material costs and environmental impact. Limited Production Volume: While CNC machining can be automated, it's not always suitable for high-volume production due to potential setup times and limitations on machining speed compared to high-speed stamping or injection molding for simpler parts. Tooling Costs: Depending on the complexity of the part, specialized tooling might be required for CNC machining. These tools can add to the overall production cost.
CNC Machining Applications

Automotive Industry
From high-performance engine components like pistons and valves crafted from lightweight yet robust materials, to intricate transmission parts, CNC machining delivers exceptional precision and repeatability..

Electronics
From intricate heat sinks for cooling to precise connectors and circuit board prototypes, CNC machining empowers miniaturization, functionality, and performance in electronics.

Robotics
CNC machining enables the creation of lightweight yet strong robotic arms, grippers, and high-precision components, driving the development of next-generation robots.


