CNC Milling

We review your CAD drawings to see if CNC milling is the best manufacturing option.

We help you choose the right material for your performance and cost goals.

The raw material will be clamped onto the machine and the cutting tools will begin to carve out the details in your design.

Your component(s) are then fully inspected and sent to you with a CoC.

Choose CNC milling when a component requires complex, non-cylindrical geometry such as pockets, slots, holes, contours, or features across multiple faces. It is particularly suitable for prototypes and low-to-medium production volumes where tight tolerances, material flexibility, and avoiding mould-tooling costs are important.

Here are components that are CNC Milled:

• Manifolds and valve blocks
  
• Mounting brackets
  
• Wear plates and guide plates
  
• Electrical insulators
  
• Machine guards
  
• Pump and valve components
  
• Housings and enclosures
  
• Jigs, fixtures and tooling plates
  
• Gears and sprockets
  
• Slide rails and linear guides
  
• Sealing plates and gaskets
  
• Semiconductor handling components
  
• Medical-device components
  
• Custom prototypes
  
• Parts with pockets, slots, holes or complex profiles

CNC milling is often chosen for engineering-plastic components with complex, non-cylindrical geometries, including flat surfaces, pockets, slots, contours, drilled holes and features positioned across multiple faces. Multi-axis milling can produce intricate components to tight tolerances while providing considerable flexibility during prototyping and design development.

Compared with CNC turning, milling is better suited to square, rectangular, irregular or three-dimensional parts. Turning is generally faster and more efficient for rotationally symmetrical components such as bushes, sleeves, rollers and sealing rings, whereas milling provides greater freedom when a component cannot be produced by rotating the workpiece around a central axis.

• Complex geometries: Produces pockets, slots, contours, threads, holes, and features across multiple faces.
  
• Tight tolerances: Delivers accurate dimensions and consistent results for demanding applications.
  
• No mould tooling: Eliminates the cost and lead time associated with injection or compression moulds.
  
• Ideal for smaller quantities: Cost-effective for prototypes, one-off components and low-to-medium production runs.
  
• Design flexibility: CAD designs can be modified quickly without replacing dedicated tooling.
  
• Wide material selection: Suitable for numerous engineering plastics, including PEEK, POM, nylon, PTFE, PEI and PPS.
  
• High-quality finishes: Creates clean surfaces and accurately finished features, often requiring minimal secondary processing.
  
• Repeatable production: Computer-controlled machining produces consistent components from one batch to the next.
  
• Rapid lead times: Parts can be manufactured directly from stock material once the design and machining program are approved.
  
• Reduced material risk: Components can be produced from certified stock shapes with full material traceability.
  
• Multi-axis capability: Advanced machines can manufacture intricate features from several angles with fewer setups.
  
• Scalable production: Suitable for initial prototypes, replacement parts, and ongoing production batches.