MedCNCParts machines micro medical components to your drawing: instrument tips, endoscope parts, fluidic micro features, pins and small screws. Device OEMs and contract manufacturers get one routing from samples to repeat lots.
MedCNCParts, the medical division of DEK, machines micro medical components to your drawing, cut from bar or plate on CNC lathes, mills and EDM. Device OEMs and contract manufacturers get the same routing and inspection plan from samples to repeat lots, under an ISO 13485 quality system.
For implantable parts, the OEM owns design validation, ISO 10993 biological evaluation, sterilization validation and regulatory clearance; we machine to the drawing and material specification.
Miniature medical components are hard for one reason: the critical feature is often smaller than the tool that would normally measure it.
Endoscope device components and instrument tips with small bores, fine threads, thin walls, jaw and hinge details.
Diagnostic and fluidic micro parts with micro channels, small ports, nozzle bores and sensor seats.
Cannula tubes and laser-cut hypotubes with thin walls, side ports and slotted patterns.
Micro pins, shafts and small screws with long slender diameters, fine threads and drive features.
Dental micro parts, such as prosthetic screws, with fine threads and small hex or hexalobular drives.
Pacemaker components as an additional capability: thin-wall housings and small feedthrough features.
Electropolishing medical metals produces smooth, clean, corrosion-resistant surfaces, removing burrs and impurities to ensure biocompatibility, sterility, and reliable device performance.
MedCNCParts provides medical CNC parts with precision passivation, removing contaminants and restoring stainless steel’s oxide layer for corrosion-resistant, implant-ready components.
Precision electroplating for medical devices strengthens surfaces, maintains biocompatibility, and ensures clinical-grade, ISO-compliant, traceable finishes for implants and surgical instrumentation.
MedCNCParts provides precise, compliant laser marking and UDI on medical components, ensuring traceability, regulatory adherence, and long-lasting surface quality.
Anodizing components for medical use strengthens surface protection, cleanliness, and biocompatibility, ensuring durable, traceable, and implantable-grade finishes for precision-machined parts.
With MedCNCParts’ titanium coloring, medical devices gain validated biocompatibility, precise differentiation, and assured compliance with stringent implantable certification standards.
Biocompatible powder coating creates corrosion-resistant, uniform finishes on medical parts, maintaining micro-precision, cleanliness, and validation-ready surfaces for surgical devices.
MedCNCParts offers precise, fast-turnaround CNC machining titanium with implant-grade quality, ultra-clean operations, and reliable small-batch medical part production.
MedCNCParts’ machining services deliver precision-shaped components with refined finish, durability, and consistent optical performance for healthcare use.
MedCNCParts offers advanced CNC machining for medical components, producing stainless steel parts for surgical and implantable applications to exacting ISO tolerances with fast turnaround.
MedCNCParts’ CNC machining Copper ensures ISO 13485-certified cleanliness, precise tolerances, and consistent quality across surgical, diagnostic, and implantable copper components.
MedCNCParts focus on traceability, process compliance, and rapid-response production makes us a trusted partner.
MedCNCParts machines PEEK components using validated processes, micro-precision, and complete inspection for advanced medical devices.
MedCNCParts ensures consistent quality and fast turnaround for complex, small-batch medical applications.
| 316L / 316 stainless | 316LVM per ASTM F138 when called for; sharp tools and steady chip load against burrs |
| 17-4PH stainless | Condition stated on drawing; stable for small instrument parts after heat treatment |
| Titanium | Ti-6Al-4V; ELI per ASTM F136 when called for; coolant and tool wear watched on fine features |
| PEEK | Machining grade; ASTM F2026 when called for; sharp tools and light cuts against soft burrs |
| PPSU | Per drawing; same care as PEEK on thin walls |
Drawing, tolerances, material and finish checked before the quote.
Grade bought to the drawing; certificates kept with the lot, on request.
Critical features checked, parts finished, marked and shipped with lot traceability.
First parts measured against the full drawing; report on request.
The approved routing, programs and fixtures on every lot.
Each feature goes to the process that holds it best. Swiss-type turning cuts pins, shafts and screws close to the guide bushing, so a slender part does not deflect. High-speed micro milling cuts small pockets, slots and flats with tool runout checked; multi-face parts go to 5-axis machining. Micro drilling works in pecks at a high L/D ratio, with chip evacuation planned per material. Wire EDM cuts narrow slots, fine profiles and sharp internal corners without cutting force.
What we can hold depends on the material, the feature and its depth, so it is confirmed on your drawing at DFM review, never quoted as one number for the shop. Holes are limited by drill rigidity, L/D ratio and chip evacuation; walls by material stiffness and cutting force; threads by tool size and thread form.
Slender diameters get in-process checks and SPC on critical features; FAI follows (report on request). Design rules: our design guide for small precision medical parts.
Features too small for calipers are measured optically: profiles, small bores and thread forms are checked against the drawing, and burrs and edge condition are checked under magnification. Thread size is confirmed by thread gauge or optical check.
First article inspection (FAI) covers the full drawing, read to ASME Y14.5, then critical dimensions are recorded for each lot; FAI reports and inspection records are available on request.
A burr that is harmless on a large part can block a micro bore. Deburring is planned with the routing, then checked under magnification. Electropolishing per ASTM B912 rounds micro edges and removes fine burrs on stainless parts; passivation per ASTM A967 follows where the drawing calls for it.
Parts are cleaned, then packed in trays with separators so small features are not damaged in transit.
"We had a delay with drawings on our side that could have slowed the whole project, but you stayed flexible. You kept communication clear the entire time. And you still delivered the micro-machined parts quickly, and the quality was solid. Your level of support and reliability really meant a lot to us.”
"The first batch of parts needed some small adjustments, but you listened, took our feedback seriously, and made the changes right away. The second run came back perfectly, exactly as we needed, and ready for our testing. I appreciate how responsive you were; you answered all our questions fast and kept us updated until delivery. It showed us we could trust you with everything moving forward.”
"The parts were perfectly accurate and ready to integrate into our assemblies. You kept the process smooth from the start until it was done, providing clear updates and handling every detail with care. I admire your team’s commitment and professionalism.”
Send your 3D model and 2D drawing, with the material, quantities and the documentation you need.
MedCNCParts manufactures components to customer specifications; it does not design or market medical devices.
We machine them, by CNC turning, milling, drilling and EDM. We do not injection-mold parts.
It depends on material, depth and feature type, so we confirm it on your drawing at DFM review.
With vision measuring systems, optical comparators and microscopes, plus FAI and critical-dimension records for each lot, with the reports available on request.
Titanium, 316L / 316LVM, 17-4PH and PEEK are common; the material follows the OEM's specification.
Yes, from engineering samples to repeat lots with the same routing and inspection plan. Lead time is confirmed per quote; the site currently states 4 to 7 days. For early-stage prototypes and design iteration, see MedRapidProto.
