Move a part to a nearby supplier only when the process, tooling and inspection plan move with it. We quote, DFM and machine so the first article and the 10,000th part measure the same.
The decision is easy. The follow-through is where money and weeks disappear.
A low piece price means nothing if tooling, fixtures and inspection get quoted separately later. Add freight, duty and the engineering hours spent chasing status updates, and the landed cost can climb above the original offshore number. Ask for the full picture before you commit.
Heavy, low-value brackets rarely justify a supplier change. Thin-wall housings and tight-tolerance bores do, because freight and packaging damage cost more than the machining. Sort your BOM by value density and tolerance before you pick a new source.
A new supplier runs a clean first article, then drifts on run three when a fixture wears or a different operator sets up. Without in-process monitoring and documented setup sheets, you find out at final assembly. That is an expensive place to learn.
If the incoming inspection report is a checkbox, you own the risk. Dimensional reports, material certificates and traceability need to travel with the shipment. Otherwise a single out-of-tolerance feature turns into a full recall of assembled units.
Four things decide whether the move holds: part selection, process routing, inspection, and how fast you can react.
The first filter is economic. A part earns a near-shore move when its tolerance band is tight, its geometry is complex, or its freight cost is high relative to unit price. Aluminum housings with ±0.05 mm bores, stainless manifolds with cross-drilled passages, and titanium brackets all qualify. Plain steel plates usually do not.
The second filter is technical. If the part needs a second op on a lathe, a heat treat step, or a specific surface finish, the new supplier has to own that whole route. Splitting the route across two vendors is how position tolerances get lost between operations.
DFM review is where the cost is set. We check wall thickness, tool reach, thread depth and datum choice while the part is still a model. A 0.5 mm corner radius that needs a 3 mm cutter becomes a 0.5 mm radius that needs a 1 mm cutter, and the cycle time doubles. Catching that on screen takes minutes.
Setup sheets travel with the job. Fixture number, work offset, tool list, spindle speed and inspection points are recorded, so run two uses the same numbers as run one. On a ±0.005 mm feature, that record is the difference between repeatable and lucky.
Use this as a starting sort, then confirm with a DFM review.
| Part profile | Near-shore move | Reason |
|---|---|---|
| Complex housing, tight bores | Yes | High rework cost offshore |
| Titanium or Inconel bracket | Yes | Material value and lead time |
| Medical manifold, 316L | Yes | Traceability and inspection load |
| Large weldment, loose tolerance | No | Freight is not the driver |
| Plain steel plate, ±0.2 mm | No | Any shop can hold it |
| High-volume simple spacer | Case by case | Compare landed cost first |
One supplier for the full route keeps datums and inspection consistent.
16 simultaneous 5-axis centers handle contoured surfaces and angled holes in one setup. Fewer setups means tighter position tolerance.
12 four-axis mills for cylindrical parts with cross features. Good fit for manifolds, shafts and rotary housings.
27 three-axis machines for prismatic work, plates and fixture plates. Efficient when the geometry is straightforward.
16 mill-turn centers combine turning and milling, so a part does not lose concentricity between operations.
Short-run parts before tooling is cut. Useful for fit checks and for validating a new near-shore source.
Anodizing, plating, powder coating, bead blasting and laser marking, coordinated with the machining schedule.
| Item | Range | Notes |
|---|---|---|
| Maximum part size | 4,000 mm | Largest travel 4,000 × 400 × 150 mm |
| Standard tolerance | ±0.005 mm | ±0.0002 in on critical features |
| Surface finish | Ra 0.2–3.2 μm | Fine, high and as-machined bands |
| Materials | Aluminum, stainless, steel | Plus titanium, copper, plastics |
| Inspection | 100% before shipment | Material, in-process, final checks |
| Reports | On request | Dimensional data and certificates |
Capacity and controls you can check against the drawing.
Fifteen years on production parts for aerospace, automotive, medical and robotics programs.
Milling, turning, mill-turn and five-axis capacity in three wholly-owned plants.
Held on critical features, with in-process monitoring on the features that matter.
Measured across shipped production, backed by 100% inspection before dispatch.
Quotation plus free DFM analysis, so you can compare sources on real data.
Historical figure across production orders. Scheduling is planned around it.
Thin ribs, pocketed webs and tight hole position on 7075 and Ti-6Al-4V.
Sealing faces and bearing bores that must repeat across production runs.
316L fluid paths with documented material traceability and clean deburring.
Joint housings and end-effector plates where fit and stiffness both count.
Low-value, loose-tolerance parts are poor candidates. If a part can be held at ±0.2 mm and freight is a small share of unit cost, the move adds paperwork without saving much.
Large weldments and simple spacers often fall into this group. Run the landed-cost comparison first, then decide.
Setup sheets record fixture number, work offsets, tool list and inspection points. Operators use the same sheet for repeat orders.
Critical features are monitored in process, not only at final inspection. If a dimension trends, we correct before the batch finishes.
±0.005 mm on critical features, which is ±0.0002 in. That is not a blanket tolerance for every surface on the drawing.
We flag during DFM which features need that band and which can sit at a looser one. Tightening everything raises cost for no benefit.
Yes. Anodizing, plating, powder coating, black oxide, bead blasting, polishing and laser marking are coordinated with the machining schedule.
Keeping finishing in the same plan avoids the re-pack and re-inspection step that usually delays a first article.
No minimum. We run from a single prototype to 10,000+ part runs.
For prototyping, the same process routing is used as production, so the parts you approve are made the way the run will be made.
Uploads are treated as confidential, and an NDA is available on request before drawings are shared.
Access to customer files is limited to the engineering and programming staff on the job.
Quotation and free DFM analysis come back within 12 hours. Production can start within 24 hours after drawing release and material confirmation.
Parts typically ship in 3–5 days. Durations depend on material availability and finishing requirements.
Raw material check, in-process monitoring and final inspection are performed, and every part is inspected before shipment.
Dimensional reports and material certificates are available on request. Tell us which features need recorded data at the quote stage.
Upload your files and we return a quotation with DFM notes in 12 hours, so you can weigh the move on numbers instead of estimates.
12-hour quote100% inspectionNo minimum order
Trusted by engineers and manufacturers worldwide
Upload your 3D model or 2D drawing and get a quotation with a free DFM analysis. Maximum processing size 4,000 mm.
CNC Metals 13 grades
CNC Plastics 10 grades
Machines & processes 12 options
Surface & post-processing 10 options
Material: not selected Machine: not selected Post-process: not selected
Fill in this short form and we'll open WhatsApp with your message ready to send. We only use these details to reply to you.
Nothing is sent until you press send inside WhatsApp.
