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Custom 316L stainless steel orthopaedic component for hydraulics – parts up to 500 mm, ±0.02 mm

Custom 316L stainless steel orthopaedic component for hydraulics – parts up to 500 mm, ±0.02 mm. 316L stainless steel, parts up to 500 mm, supplied to drawing with ±0.02 mm tolerance and as machined o

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Custom 316L stainless steel orthopaedic component for hydraulics – parts up to 500 mm, ±0.02 mm
Custom 316L stainless steel orthopaedic component for hydraulics – parts up to 500 mm, ±0.02 mm

Custom 316L stainless steel orthopaedic component for hydraulics – parts up to 500 mm, ±0.02 mm

Custom 316L stainless steel orthopaedic component for hydraulics – parts up to 500 mm, ±0.02 mm. 316L stainless steel, parts up to 500 mm, supplied to drawing with ±0.02 mm tolerance and as machined o

Contact Number: 18681062885
Product Details

Custom 316L stainless steel orthopaedic component for hydraulics – parts up to 500 mm, ±0.02 mm

A 316L stainless steel orthopaedic component is completed in fewer setups, which is the real advantage: feature relationships improve because the part is not re-fixtured between faces. Below is the practical detail on 316L stainless steel orthopaedic component supplied for hydraulics: simultaneous five-axis machining with simulation and verified toolpaths, the tolerance that is held, the finish applied and the documents issued with the parts.

Tolerance is applied where it does work rather than across the whole drawing. Critical features are held to ±0.02 mm, non-critical dimensions follow the general machining tolerance, and the difference is stated in the quotation rather than discovered later.

Specification

ProcessSimultaneous five-axis machining with simulation and verified toolpaths
Material / configuration316L stainless steel
Size / capacityparts up to 500 mm
Tolerance±0.02 mm
Surface finishas machined or polished, Ra 0.8 µm
Applicationorthopaedic component for hydraulics
InspectionDimensional report, material certificate, first article report on request
Lead time7–15 working days for samples, 3–4 weeks for production
Minimum order1 piece for prototypes, from 50 pieces for production pricing

Custom 316L stainless steel orthopaedic component for hydraulics – parts up to 500 mm, ±0.02 mm manufacturing detail

Manufacturing process

Work is carried out with simultaneous five-axis machining with simulation and verified toolpaths. Tooling, speeds and fixturing are recorded with the part number, so a repeat order starts from a proven process instead of a fresh setup.

Material is purchased against a certificate and checked on receipt, so the composition is known before any cutting starts. Work in progress is identified by part number and operation, and the finished parts are deburred, cleaned and protected before they leave the machine area.

Typical applications

Most of the work supplied in this category falls into the following examples.

  • Aerospace structural fittings.
  • Impellers and bladed components.
  • Surgical instrument bodies.
  • Robot wrist and joint housings.
  • Optical and camera mounts.

Custom 316L stainless steel orthopaedic component for hydraulics – parts up to 500 mm, ±0.02 mm finished parts

Quality control and documentation

Critical features are measured on calibrated equipment in a controlled room, and the results are filed with the job so that a repeat order can be compared with the first.

Material certificates to EN 10204 3.1, dimensional reports and first article inspection reports are issued with the shipment where the application requires them. Calibration dates and measurement uncertainty are recorded alongside every result.

Ordering, lead time and packaging

Packaging is specified by the part: individual protection for finished surfaces, separation for assemblies, and export crating with a packing list for shipment.

Custom 316L stainless steel orthopaedic component for hydraulics – parts up to 500 mm, ±0.02 mm inspection and packing

Frequently asked questions

When is five-axis worth the extra cost?

When a part needs three or more setups in three-axis work, or when a compound angle cannot be reached otherwise. Fewer setups also means fewer places for tolerance to accumulate.

How are toolpaths verified before cutting?

Every programme is simulated against the solid model, checking for collisions, holder clearance and gouges, then run with a reduced feed on the first part under a dry run.

Do you keep tooling and programmes for repeat orders?

Fixtures, tool lists and verified CAM programmes are retained for the life of the part number, so a repeat release runs on the same setup as the first batch without a new proving run.

Drawings are reviewed for manufacturability before quotation, and any feature that adds cost without adding function is pointed out at that stage rather than after the parts are made.