Custom Medical Machining Services

Medical implants commonly use commercially pure titanium such as Grade 2 and titanium alloys such as Ti-6Al-4V, often Grade 5 or implant-focused Grade 23. The right grade depends on the application, required strength, corrosion resistance, and biocompatibility standards. Machining partners should follow the customer’s specified material callout, certification, and traceability requirements throughout production.

Yes, titanium alloys are generally more difficult to machine than many steels or aluminum because they retain heat, resist cutting, and can accelerate tool wear. Successful machining depends on proper speeds, feeds, tooling, workholding, and process control. Capabilities such as Swiss machining, CNC turning, and EDM help produce titanium parts accurately while protecting critical dimensions and surface quality.

Custom medical machining can support pins, shafts, bushings, sleeves, threaded components, miniature connectors, spacers, and other precision-turned or ground parts. It is especially useful for components with tight tolerances, fine finishes, small diameters, or complex features. Processes like Swiss machining and EDM are well suited for miniature geometries and intricate profiles used in medical devices.

M.A.R.'s Engineering supports extremely close tolerances, with certain machining and grinding operations capable of holding up to ±0.0001 inches depending on part geometry, material, and process. Tolerance capability varies by feature and manufacturing method. Early review of drawings, critical dimensions, and inspection requirements helps determine the most reliable process plan for each medical component.

Yes. The shop supports prototype quantities as well as short, medium, and high-volume production runs. This flexibility allows customers to move from early development into repeat manufacturing with fewer supplier changes. Integrated capabilities including CNC turning, Swiss machining, multi-spindle production, grinding, and finishing help maintain continuity as part volumes and complexity increase.

Supported materials include titanium, stainless steel, aluminum, brass, nickel alloys, carbon steel, copper, and engineering-grade plastics, depending on the process and part requirements. For medical work, material selection should align with the application’s mechanical, corrosion, and regulatory needs. Customers typically specify exact grades, certifications, and any traceability documentation required for production acceptance.

Yes. In-house services include plating, polishing, deburring, finishing, and light assembly, which can reduce outside processing delays and simplify project management. Keeping more operations under one roof helps preserve scheduling control and part accountability. It also supports more efficient delivery of ready-to-use components for customers who want fewer vendors involved in the manufacturing process.

Quality is supported through ISO compliant systems, documented production controls, and traceability-focused workflows. M.A.R.'s Engineering emphasizes dimensional consistency across prototype and production runs, with process selection based on part geometry and tolerance demands. In-house capabilities such as Wire EDM, centerless grinding, and consolidated finishing also help maintain tighter control over critical features and final part quality.