Medical Devices
Small precision parts, fluid pieces, and laboratory hardware.
CNC Machining
For small parts, tiny bores, narrow grooves, thin walls, and precision features where tooling, fixturing, and inspection matter just as much as cutting.
Overview
Micro machining depends heavily on workholding, tool selection, heat control, and inspection. At quote time we review the smallest tool diameter, aspect ratio, tolerance stack-up, and fixturing needs.
Micro holes, narrow slots, sharp corners, and thin walls.
Focus on the dimensions that drive fit, function, and assembly.
We identify chip clearance, fixturing, burr control, and tool access early.
Good for samples, pilots, lab hardware, and precision components.
Capabilities
| Capability | Description | What to share in your RFQ |
|---|---|---|
| Micro Milling | Tiny pockets, narrow grooves, and fine surface features | Smallest radius, slot width, depth, and finish requirement |
| Micro Drilling | Small bores, arrays, fluid holes, and alignment holes | Hole diameter, depth ratio, location tolerance, through or blind |
| Precision Turning | Small shafts, sleeves, connector bodies, and round features | Diameter, concentricity, runout, and batch size |
| Secondary Operations | Tapping, chamfering, deburring, and local polishing | Thread type, edge condition, and cosmetic requirement |
Materials
Material selection has a big effect on burrs, tool wear, distortion, and final surface finish. If the part is critical, share the intended application and key dimensions.
Applications
Small precision parts, fluid pieces, and laboratory hardware.
Connectors, thermal parts, probe fixtures, and alignment hardware.
Lightweight brackets, sensor bodies, and precision connectors.
Miniature mechanisms, end-effectors, and motion subassemblies.
Inspection
Inspection for tiny parts can be just as difficult as machining. Mark your key dimensions, functional faces, and reference datums so we can choose the right inspection method.
Design Notes
Reserve the strictest tolerances for only the dimensions that truly drive function.
Deep narrow features increase tool deflection and breakage risk.
Good datums reduce setup ambiguity and help with inspection planning.
Edge condition matters in tiny parts and can affect both fit and appearance.
FAQ
It helps a lot. The 3D model defines geometry, while the drawing can define critical tolerances, datums, and finish requirements.
Very small holes, deep narrow grooves, thin walls, hard materials, and strict tolerance requirements all add cost and risk.
Yes. Small sample quantities are often the best way to validate geometry before moving into a larger run.
Start RFQ
Upload your CAD model and drawings so we can review manufacturability, inspection needs, and lead time.