One workshop covers the whole route from a single proof-of-concept part to scheduled volume output. Express jobs leave our floor in as little as 24 hours, planned orders hold a dependable 7-day rhythm, and critical features are held to ±0.005 mm.
Three-, four- and five-axis milling plus multi-tasking turning handle everything from awkward contoured surfaces to tight-tolerance bores — in prototype quantities or scheduled production batches.
Tolerances to ±0.01 mm
Simultaneous contouring and high-speed spindles cut complex parts in fewer setups, which protects accuracy and shortens the route to finished geometry.
Live tooling capable
Cylindrical and radial profiles held concentric and repeatable, with milling and drilling folded into the same cycle to remove secondary operations.
From one part upward
The same fixtures, programs and inspection plan scale with your programme, so the part you approve as a prototype is the part you receive in series.
Pick a material on the left to see how it behaves on the machine, which processes it suits, and the tolerance band we can hold for it.
Aluminum removes fast, holds a stable dimension once cut, and delivers a strong strength-to-weight result — which is why it carries most prototype work and a large share of production parts. It also anodizes and coats cleanly, so cosmetic housings and brackets finish as well as they function.
Copper moves heat and current better than almost anything else on the shelf, so it is the default answer for busbars, heat-transfer blocks and current-carrying hardware. It cuts soft and gummy, which makes controlled feeds and sharp tooling the difference between a clean face and a torn one.
Titanium buys you load-carrying strength at roughly half the weight of steel, plus body compatibility that makes it the material of record for implants. It also fights back — heat concentrates at the cutting edge and tools wear quickly — so we run it slow, keep it flooded, and treat tool paths as an engineering decision rather than a scheduling one.
Bronze earns its place in sliding contact: it shrugs off wear, runs with little friction against a shaft, and resists corrosion in wet or marine surroundings. That combination keeps it in bushings, bearings and seawater-exposed hardware.
Carbon steel remains the workhorse where load, shock and cost all matter at once. It takes structural sections, tooling bodies and stressed brackets in its stride, and it responds predictably to heat treatment and coating afterwards.
When a part has to survive moisture, washdown chemicals and years of service without a coating to hide behind, stainless is the specification. It machines tougher than aluminum and demands rigid setups and disciplined coolant, but it delivers strength and corrosion resistance in the same piece of metal.
Adding chromium, nickel or molybdenum to steel shifts its behaviour on purpose: more hardenability, more toughness, better fatigue life under cycling load. Gears, shafts and high-strength fasteners are the natural home for it, usually paired with heat treatment after machining.
Magnesium is the lightest structural metal you can put on a machine, which makes it the choice when every gram is being counted — aerospace brackets, handheld housings, motorsport parts. It cuts freely and fast; the discipline it demands is in chip handling and fire-safe practice, not in the cutting itself.
Brass is the easiest copper alloy to machine and one of the few materials that looks finished the moment it leaves the spindle. Valves, fittings and instrument-grade hardware use it for exactly that reason: predictable cutting plus an appearance worth polishing rather than covering.
ABS is inexpensive, forgiving on impact and dimensionally steady, which makes it the sensible first pass for enclosures and functional plastic parts. It machines quickly and can be sanded, painted or textured to stand in for a moulded production part.
Nylon brings strength, abrasion resistance and a low-friction surface to parts that rub, roll or slide — gears, bushings, rollers. It does absorb moisture and moves slightly as it does, so we plan for that in the tolerance stack instead of pretending it is not happening.
Polycarbonate gives you a see-through part that refuses to shatter. Guards, lenses and light covers use it where glass would be fragile and acrylic too brittle, and because it is machinable rather than moulded, single units stay economic.
PEEK holds its shape and its mechanical strength where ordinary plastics would fail — high temperature, aggressive chemistry, repeated sterilisation. That puts it in aerospace, implant and semiconductor hardware, and it prices accordingly, so nesting and tool-path efficiency directly affect what your part costs.
PTFE is chemically inert and almost frictionless, which is exactly what seals, gaskets and lab hardware need. It is also soft and prone to creeping under load, so we cut it with light passes and design clearance for the material's movement rather than against it.
POM — acetal, or Delrin on most drawings — is the engineer's plastic for precision moving parts. It holds tolerance far better than most polymers, slides against metal without lubricant, and machines cleanly enough to be tapped, bored and finished in one setup.
PMMA, sold as acrylic, gives you glass-like clarity with a fraction of the weight and far better weathering. Signs, display parts and protective barriers use it because it machines and polishes to a genuinely transparent edge, indoors or out.
Please note: stock availability, grade options and achievable tolerances shift with part geometry and order volume. Send us the drawing and our engineering team will confirm the right material and flag any manufacturability risk before you commit.
Bead blasting, anodizing, powder coating, passivation, polishing and electroplating are coordinated by the same team that machines the part, so appearance and function are settled before the job ships instead of after.
Standard orders run on a 7-day rhythm and urgent work can be pulled forward to 2 days. We would rather quote a date we can hold than win the order with one we cannot.
Critical features are held to ±0.005 mm, and across long production runs we keep the process centred at ±0.02 mm rather than letting accuracy drift between the first article and the last.
Our facility operates an ISO 9001 quality system audited against international standards, with documented inspection records available for every order we ship.
We have been machining to drawing since 2009 and now hold four ISO certifications. Every batch leaves the building against a documented inspection plan, because "it looked right on the machine" is not a quality system.
The envelopes, tolerances and order bands our machines and inspection process are set up to hold. If your part sits outside any of these, tell us — there is usually a route.
| Item | Specification |
|---|---|
| Maximum Milling Part Size | 1524 mm × 1016 mm × 508 mm (60 in × 40 in × 20 in) |
| Maximum Turning Part Size | Length 1524 mm (60 in), Diameter 762 mm (30 in) |
| Lead Time | Stable delivery within 7 days |
| General Tolerances |
Metals: ±0.127 mm (±0.005 in); Plastics / Composites: ±0.254 mm (±0.010 in) |
| Precision Tolerances |
Based on drawings and GD&T requirements, tolerances as tight as ±0.025 mm (±0.001 in) to ±0.005 mm (±0.0002 in) |
| Threads & Tapped Holes |
Supports all standard threads, precision threads, blind tapped holes and through-hole tapping |
| Edge Condition | Sharp edges are deburred by default |
| Surface Finish |
Standard machined surface finish: Ra ≥ 125 μin; other surface finishes available upon request |
| Custom Manufacturing Capabilities |
Prototyping: 1–10 pcs; Low-volume production: 11–500 pcs; Mass production: ≥501 pcs |
Roughly 15 years of continuous investment in machine capacity, metrology and process control — all under one roof in Shenzhen, China.
Customer privacy comes first, so these records describe real jobs without naming anyone. What is left is the engineering: the material, the tolerance, the problem solved.
Stainless steel and aluminum parts machined to a ±0.01 tolerance, then heat treated and finished. The batches have shipped on schedule and drawn consistent positive feedback from the customer's assembly line.
View morePrototypes turned around on a compressed timeline while still meeting demanding tolerances and awkward geometry — the resulting parts lifted overall flight performance for the platform.
View moreSix high-precision robotic joint connectors produced in titanium alloy on five-axis machines, verified piece by piece and delivered on the promised date.
View moreA combined scope of CNC precision machining, five-axis work, sheet metal fabrication and assembly support. Tight communication on the programme cut the delivery cycle considerably.
View moreEach sector carries its own documentation, traceability and tolerance expectations. These are the ones our process is already tuned to.
Surgical instruments, implants and diagnostic components machined under strict tolerance and material control.
Dependable CNC components for engines, transmissions, chassis and electric vehicle systems.
High-accuracy parts for robotic arms, automation equipment and motion control systems.
Precision housings and structural components for smart devices and electronic products.
Durable CNC parts for renewable energy, power equipment and industrial energy systems.
Precision-machined components for industrial equipment, automation systems and heavy-duty machinery.
We build to your drawings and your requirements, and nothing is packed or dispatched until inspection confirms the parts meet them. There are no unnecessary handoffs in between — one button starts the quote.
Straight answers on consistency, material paperwork, confidentiality and what happens if something is not right.
Consistency comes from process control and documentation, not from hoping the last inspection catches everything.
First Article Inspection (FAI): the first piece off the machine gets a full dimensional check covering critical dimensions, tolerances and surface finish. Batch production only starts once that article is approved.
In-process sampling: during the run we take periodic dimensional checks tied to the production beat, concentrating on critical features and geometric tolerances (GD&T).
Calibrated instrumentation: calipers, micrometers and CMMs are all under calibration control so the measurement data means something.
Material uniformity: batch orders are drawn from a single material source, and we can issue material certification to prove it.
Yes. Depending on what your quality plan requires, we can supply:
Mill Test Certificate (MTC) / Material Certificate — grade, chemical composition and mechanical properties.
Material Standards Compliance — documentation showing adherence to ASTM, EN, JIS or GB standards.
Batch Consistency Statements — confirming every part in a large order came from the same material lot.
Please note: if your project needs third-party testing or a specialised certification, flag it before the quotation stage so we can confirm the lead time and cost impact up front.
Yes. We execute NDAs as a matter of course and treat your IP as a core engineering asset rather than an administrative detail.
Unilateral or mutual NDAs can be signed before drawing review or quotation — whichever you prefer.
Controlled data access: your drawings are visible only to the engineering personnel assigned to the project.
No outsourcing, no public display: parts are never used for marketing, sample displays or third-party demonstrations.
No retention or replication: finished parts are not kept or reproduced without your written authorisation.
For engineering-driven customers the design is the product, and we work on that basis.
We stand behind our machining and keep the after-sales policy simple enough to actually use:
Immediate response: we react as soon as you raise it. If the non-conformance is traceable to our error, you get a free remake or a full refund.
Corrective action: the issue is logged in our internal process records and root-caused so it does not repeat on your next order.
Solution-oriented: the objective is to get your project back on schedule, not to argue about whose fault it was.
Surface treatment: where the finish and its requirements are clearly defined, treatment is quoted as a separate line item or folded into the unit price. Where they are still unconfirmed, it is excluded by default so nobody discovers a surprise later.
Logistics: we quote EXW, FOB, CIF or DDP depending on how you prefer to buy. Freight is normally shown as its own line so you can compare and account for it cleanly.
Upload your CAD files with tolerances, material and finish requirements — we will come back with pricing, lead time and free DFM feedback.
