Immediate RFQ sourcing for custom metal prototypes, aerospace brackets, robotic kinematics, and transmission power gears straight from our facility floor.
Navigating industrial precision limits through integrated metallurgy and secondary CNC machining.
Additive manufacturing frees mechanical designers from traditional casting draft angles and machining tool path limitations. By deploying finite element-driven topology optimization, components shed up to 65% unneeded mass while retaining structural load-bearing stiffness. Hollow structures, variable-density gyroid infills, and conformal internal pathways can only be produced via Powder Bed Fusion technologies.
As-printed metal surfaces typically present roughness averages between Ra 6.3 µm and Ra 12.5 µm with volumetric variations around ±0.1 mm. True mission-critical functionality mandates secondary CNC machining. We engineer integrated datum locating surfaces and dynamic fixture interfaces directly into the 3D printed build, enabling 5-axis milling centers to hold critical bearing bores, seal faces, and tapped holes down to ±0.005 mm.
Fragmenting your supply chain by purchasing raw 3D printed blanks from vendor A and contracting post-machining to vendor B introduces compound risks: datum misalignment, dispute over thermal residual stress cracking, and unassigned blame on scrapped parts. TC Precision unifies powder handling, LPBF fusion, vacuum stress relief annealing, 5-axis CNC finishing, and coordinate measuring inspection under one factory roof.
Capitalizing on the world's most concentrated precision manufacturing cluster in Dongguan, Guangdong.
Dongguan represents the global epicenter of industrial hardware engineering. Within a 30-kilometer radius of our manufacturing facility lies the complete supply matrix: certified aerospace spherical metal powder atomization suppliers, specialized vacuum heat treatment and Hot Isostatic Pressing (HIP) facilities, chemical anodizing and hard-chrome electroplating lines, and express global air-freight logistics corridors via Shenzhen and Hong Kong.
When engineering revisions occur mid-program, traditional western supply chains often incur 6-to-12-week delays. Our Factory 4.0 digital workflow converts altered STEP files into modified slicer parameters within 4 hours. Combined with instantaneous fixture manufacturing and rapid machine re-tooling, we cut rapid-prototyping to low-volume ramp-up lead times by over 70% while drastically suppressing non-recurring engineering overheads.
Targeted additive manufacturing solutions calibrated to aerospace, robotics, e-mobility, and semiconductor tooling.
Lightweight brackets, titanium flight hardware, and integrated propellant manifolds. By utilizing Ti6Al4V Grade 23 (ELI) powders and selective multi-laser melting, we build consolidated assemblies that replace 20+ bolted elements, eliminating failure modes and vibration leak paths.
Robotic arms require high dynamic response and minimal rotational inertia. We print hollow bent structural limbs and harmonic drive housings in AlSi10Mg and carbon-fiber polymers, post-machining critical joint bearing bores to ISO H7 tolerance limits.
High-voltage battery busbars, liquid cold plates, and high-frequency induction coils. We harness 515 nm green-laser melting to fuse pure copper (Cu-ETP/C11000) at 99.8% metallurgical density, achieving electrical conductivity exceeding 100% IACS.
Ultra-high vacuum (UHV) chambers and multi-port fluid manifolds. Monolithic additive builds eliminate external weld seams that trap virtual leaks, while five-axis milling achieves mirror surface finishes on critical elastomer O-ring sealing grooves.
Aligning engineering design for manufacturability (DFM) with enterprise risk abatement and inventory velocity.
Modern product lifecycles require rapid iterations without capital immobilization. We support procurement teams with true unit-one manufacturing. Whether commissioning a solitary functional engineering prototype or scheduling batch production of 2,500 flight-ready parts, our setup times remain lean, predictable, and cost-effective.
Every drawing package undergoes rigorous automated and manual Design for Manufacturability evaluation. Our team analyzes wall thickness, thermal overhang limits, support structure placement to avoid critical cosmetic faces, and machine tool spindle clearance before printing or milling commences.
Eliminate costly physical warehousing and warehouse carrying charges. By archiving validated digital tool paths, slicer files, and machine parameters in our secure cloud vaults, OEM buyers transition to virtual inventory, releasing fabrication orders on demand with short dispatch windows.
Quantitative baseline data to assist sourcing engineers in selecting optimal manufacturing routes.
| Material Designation | Manufacturing Route | Tensile Strength (Rm) | Yield Strength (Rp 0.2) | Elongation at Break | Key Operational Utility |
|---|---|---|---|---|---|
| Pure Copper (Cu ≥ 99.9%) | 515nm Green Laser LPBF + CNC | 230 - 280 MPa | 140 - 180 MPa | ≥ 25% | Thermal cold plates, induction coils, busbars |
| Titanium Ti6Al4V (Grade 5/23) | IR Laser LPBF + Vacuum Anneal + 5-Axis | 1,050 - 1,180 MPa | 950 - 1,020 MPa | ≥ 12% | Aerospace brackets, medical implants, robotic joints |
| Stainless Steel 316L (1.4404) | LPBF + Stress Relief + CNC | 580 - 680 MPa | 450 - 520 MPa | ≥ 35% | Corrosive fluid manifolds, subsea valves, medical tools |
| Aluminum AlSi10Mg | Multi-Laser LPBF + T6 Heat Treatment | 380 - 450 MPa | 260 - 310 MPa | ≥ 8% | Automotive thermal housings, lightweight UAV chassis |
| Nickel Alloy Inconel 718 | LPBF + Hot Isostatic Pressing (HIP) | 1,240 - 1,420 MPa | 1,030 - 1,180 MPa | ≥ 15% | Turbine exhaust components, high-heat combustion nozzles |
| 20CrMnTi / 8620 Alloy Steel | CNC Turning + Hobbing + Carburizing | 980 - 1,180 MPa | 780 - 880 MPa | ≥ 10% | Automotive transmission power gears, drive splines |
Strategic equipment investments and computational advancements unfolding through 2030.
Transitioning from post-process non-destructive testing (NDT) to real-time closed-loop melt pool optical monitoring. High-speed coaxial pyrometers and optical cameras track melt pool temperature variations at 100 kHz. Machine-learning algorithms instantly correct laser power and galvo speed to prevent keyhole porosity and spatter formation.
Standard infrared (1064 nm) fiber lasers reflect more than 95% of beam energy when contacting pure copper powder, resulting in melt pool instability. Short green-wavelength lasers (~515 nm) increase copper energy absorption to over 40%, yielding near-zero porosity, superior surface integrity, and void-free heat-pipe conduction paths.
The frontier of additive engineering is the intentional transition of materials across a single component. By combining dual-feed powder systems, TC Precision is testing components that transition seamlessly from copper cores (for maximum heat conductivity) to titanium exteriors (for structural rigidity and weight reduction).
Institutional protection, verifiable documentation, and seamless international transaction protocols.
Every overseas shipment is backed by verifiable quality dossiers: Full Coordinate Measuring Machine (CMM) dimensional inspection reports, Mitutoyo surface roughness profilometer readouts, raw powder EN 10204 3.1 chemical analysis certificates, and thermal treatment furnace time-temperature charts.
We treat client CAD proprietary data with strict confidentiality. Non-Disclosure Agreements (NDAs) subject to international or bilateral jurisdictions are executed before drawing transmissions. CAD files are stored on segregated, air-gapped internal servers with strict role-based access controls.
Our application engineering department interfaces fluently in technical English, providing prompt drawing reviews and status updates. We ship globally via DHL, FedEx, air cargo, and sea container under DDP, DAP, or FOB Incoterms, managing all export customs clearances.
Clear, authoritative technical answers to guide procurement and engineering specifications.
Choose a verified manufacturing solution below to initiate quotation, DFM analysis, and rapid production scheduling.