Medical components require more than accurate dimensions. We machine surgical instruments, implant components and diagnostic hardware with burr control, biocompatible material discipline, traceability and documentation planned around your drawing and quality requirements.
Medical device manufacturing is a discipline of documentation as much as precision. Material identity, edge condition, dimensional verification, cleaning requirements and release records all affect whether a component can move through a regulated supply chain.
We support device OEMs, contract manufacturers and development teams from prototype through production, including surgical instruments, orthopedic trial components, implantable-part programs where specified, endoscopic parts, fluid-path hardware and diagnostic equipment components.
Final regulatory responsibility remains with the device manufacturer. Send applicable drawings, material specifications, inspection plans, cleaning requirements and quality clauses with the RFQ so our manufacturing scope can be confirmed in writing.
Medical components are manufactured to drawing-controlled requirements, with edge condition, material traceability, surface finish and documentation reviewed before release.
Handles, shafts, jaws and linkage components for reusable and single-use instruments, with edge and finish requirements planned to the drawing.
Bone screws, plates, spinal fixation components and selected joint hardware in specified medical materials with traceability requirements confirmed before production.
Implant bodies, abutments and prosthetic hardware with small threaded, cannulated or closely fitted geometries.
Thin-walled tubes, instrument tips and small precision components whose features require careful tool access and magnified review.
Non-implantable trial instruments and guide bodies, often in medical-grade polymers and built around fast development cycles.
Precision housings, gantry components, motion-system parts and fixtures for equipment used around the patient.
Valve bodies, manifolds and pump components where fluid path surfaces, edges and cleanliness requirements are reviewed together.
Production-intent material builds for verification and design iteration before production release.
Medical parts fail scrutiny in ways that general machining may never encounter: burrs, undocumented material, unverified edges and incomplete records can all stop release.
Each program is reviewed around the drawing, material specification, intended documentation package and supplied quality clauses.
Deburring is planned into the machining route with toolpath strategy, edge breaks and magnified verification where required.
Material heat lot, certificates, machining lot and finished-part release records are linked according to the agreed purchase-order requirements.
Titanium, 316LVM, cobalt chrome, implantable PEEK and UHMWPE require careful tooling, coolant, heat and handling control.
Bone screw threads, cannulated shafts, instrument teeth and micro features are reviewed for machining feasibility and inspection method.
Passivation, electropolishing, polishing, marking and cleaning are treated as controlled process steps with records when required.
Inspection data, material certificates, finish records and certificates of conformance are assembled to the agreed documentation scope.
Our medical component manufacturing processes include Swiss machining, CNC milling, CNC turning and mill-turn machining. The chosen route follows the drawing, material, feature geometry and inspection requirements.
Machine small, slender components such as screws, pins, instrument shafts and dental hardware with guide-bushing support, live tooling and back-working operations. Tool access and burr inspection are planned for fine features.
Use 3-axis and 5-axis milling for instrument bodies, orthopedic trials, housings and contoured components. Setup planning protects datum relationships while providing access to angled holes and multiple faces.
Turn cannulated parts, threaded connectors, sleeves and other rotational components. Diameters, bores, threads and sealing surfaces are machined and inspected against the released drawing.
Machine valve bodies, connectors and instrument components that combine turned profiles with milled flats, ports and cross-holes. Coordinated turning, live tooling and rear-side operations reduce transfers between setups.
The process begins with drawing, material and quality-clause review, then moves through process planning, lot-controlled material procurement, first article inspection, production, finishing and documented release.
Provide the STEP model and dimensioned drawing with the current revision, material grade, quantity, surface finish, required delivery date and inspection requirements. Where required, an NDA is signed before drawings and models are exchanged.
Review geometry, dimensional and geometric tolerances, stock condition, tool access, workholding and measurement access. Identify features that affect machining feasibility, dimensional stability or inspection, and resolve proposed drawing changes with your engineering team.
Confirm the drawing revision, material specification, datum scheme, critical dimensions, surface finish and inspection requirements. Resolve drawing queries and document approved changes. Prepare the quotation from the confirmed part requirements, quantity and delivery schedule.
Define the operation sequence, machining datums, fixtures, cutting tools and cutting parameters. Prepare the NC program and inspection plan, review toolpaths through machine simulation, and establish the setup instructions for the first-article machining trial.
Specified material grades and stock forms are purchased exclusively from approved or qualified suppliers, matched to the requirements of your drawing and purchase order.
Check stock identification, dimensions, surface condition and material certificates against the specified grade, condition and purchase order. Record the heat or batch number and link the accepted material to the production work order.
Machine the first article using the planned NC program, fixtures and tools. Inspect drawing characteristics with the specified measurement methods, record the results and correct setup or program deviations before batch production begins.
Run the approved Medical Device CNC machining program with the documented fixture setup, tooling and cutting parameters. Maintain the specified datums and machining sequence, and record approved changes to programs, tool offsets or setup instructions.
Measure critical dimensions and geometric characteristics at the intervals defined in the inspection plan. Monitor tool wear and dimensional trends, adjust offsets where appropriate, and recheck affected features after adjustment.
Check the completed machining operations against the drawing and review the in-process inspection results. Record dimensional conformity and segregate nonconforming parts before the batch proceeds to finishing or other subsequent operations.
Complete the specified deburring, grinding, polishing, surface treatment or heat treatment. Check treatment records and reinspect features affected by material removal, coating thickness or heat-treatment distortion.
Inspect finished parts against the drawing and final inspection plan, including dimensions, surface condition and finish requirements. Compile the required material certificates and inspection reports, verify quantity and identification, then pack parts to prevent damage during shipment.
Material grade, source, certificate requirements and substitution rules are confirmed before procurement. For implant programs, customer-approved specifications and acceptance criteria must be supplied with the RFQ.
Showing 7 Materials: Metals.
A common implant alloy valued for strength, corrosion resistance and biocompatibility, with machining heat and tooling controlled carefully.
Orthopedic and dental implant components where specified
Used where corrosion resistance and biocompatibility are prioritized and lower strength is acceptable.
Implantable and instrument components specified by the drawing
Vacuum-melted stainless with controlled cleanliness for surgical and implant applications where specified.
Surgical instruments and selected implant components
A precipitation-hardening stainless for stronger surgical instrument jaws, drivers and articulated components.
Instrument jaws, drivers, pins and high-strength hardware
Hardenable stainless for cutting edges and wear-resistant instrument features.
Scissor blades, osteotomes and cutting instrument details
A wear-resistant alloy for demanding implant and bearing-surface applications, requiring rigid setups and disciplined tooling.
Joint components and high-wear medical hardware
Medical-grade PEEK combines radiolucency, strength and a bone-like modulus for specified implant applications.
Spinal cages, dental components and implant hardware
A tough, low-friction polymer used in bearing surfaces and selected instrument components, machined with sharp tooling and heat control.
Joint bearing surfaces and low-friction parts
A sterilizable medical-grade polymer for reusable instrument components, trays and housings.
Instrument handles, trays and sterilizable housings
A rigid, sterilizable polymer for instrument components and equipment hardware.
Instrument parts and diagnostic equipment details
Dimensionally stable and low-friction for non-implantable mechanisms, fixtures and pump components.
Fixtures, pump parts and instrument mechanisms
A shape-memory alloy for specialized device components, quoted with process and lead-time review because of machining difficulty.
Specialized device components and wire-adjacent hardware
Medical finishes are quoted to supplied specifications. Edge condition, passivation, cleaning, marking and documentation requirements should be defined before production release.
ASTM A967 or AMS 2700 when specified
Chemical treatment removes free iron from stainless surfaces and supports corrosion resistance after machining.
Stainless surgical instruments and medical hardware
Customer-specified surface acceptance
Electrochemical surface refinement can smooth stainless surfaces and reduce micro-burrs when coordinated with a qualified source.
Stainless instruments and fluid-path components
Treatment and color per titanium specification
The titanium anodizing route is selected to the supplied specification and functional requirement. Color identification and any wear requirement are confirmed for the specified titanium treatment.
Implants, trials and instrument identification
Dedicated media when required
A controlled matte finish can be applied where the drawing specifies texture or preparation requirements.
Instrument bodies and selected implant surfaces
Controlled media and cycle time
Mechanical finishing can refine edges and surfaces when allowed by the drawing and acceptance criteria.
Instrument components and non-critical edge radiusing
Mechanical finish per drawing
Polishing supports smoother bearing, working or contact surfaces where roughness is functional.
Instrument working ends and bearing surfaces
Permanent part and lot identification
Part numbers, lot codes and UDI-related markings can be applied without inks or labels when specified.
Traceable medical components and instruments
Medical QA is built around proof: material identity, dimensional conformity, edge condition, surface treatment and release records must match the agreed requirements.
Our documentation practices can support medical quality systems, while final validation and regulatory release remain controlled by the device manufacturer.
Material heat lot, certificates, work order and finished batch records are linked for medical orders according to the agreed documentation scope.
New part numbers can receive complete dimensional verification and reports formatted to your requirements when specified at RFQ.
Critical edges and features are reviewed under magnification where required, with acceptance criteria defined by the drawing or supplied specification.
Passivation, electropolishing, anodizing, marking and cleaning records can be collected with the shipment when required by the purchase order.
Material certificates, FAI reports, dimensional reports, finish certifications, cleaning records and certificates of conformance are assembled to the agreed scope.
We connect medical material machining, burr-aware process planning, traceability, finishing coordination and documentation support from development quantities through production.
Titanium ELI, 316LVM, cobalt chrome and medical polymers are reviewed with tooling, heat and handling requirements in mind.
Edge quality is planned through machining strategy and verified where required instead of treated as a late correction.
Development and production builds can remain on the same controlled manufacturing route as the design matures.
Traceability, FAI reports and finish records are organized to fit your device history and supplier-quality requirements.
Tolerance, material, edge and inspection risks are reviewed before production release.
Complete RFQs receive an initial engineering response within one working day. Material, inspection and delivery questions are clarified before the quotation is issued.
Practical answers about medical-grade materials, traceability, burr control, documentation and development quantities.
Yes, subject to drawing and material specification review. Ti-6Al-4V ELI, commercially pure titanium, 316LVM, cobalt chrome and implantable PEEK can be quoted with traceability requirements defined at RFQ.
Our recorded systems are AS9100D, IATF 16949:2016, ISO 10012:2003. ISO 13485 certification is not listed in the confirmed factory records. Customer-specific medical documentation and process controls are reviewed during quotation.
Implant and instrument tolerances are reviewed drawing by drawing. Grinding or specialized inspection can be included where the geometry and specification require it.
Deburring access, toolpath strategy and edge breaks are planned before machining, then critical features can be checked under magnification where required.
Yes. Development runs in production-intent materials can be quoted and then carried forward into pilot or recurring production.
Material certificates, FAI reports, dimensional inspection records, finish certificates, cleaning records and certificates of conformance can be provided when specified.
Yes. An NDA can be completed before drawing exchange.
