Cheap 3D Printing & CNC Machining: Cross-Industry Manufacturing Supplier, Pricelist

Our integrated additive and subtractive manufacturing technologies deliver precision components across multiple industries, such as aerospace, automative, medical, energy, and so on. Our integrated manufacturing approach combines material flexibility (from engineering polymers to high-performance super alloys) with hybrid workflows that leverage 3D printing for near-net-shape production and CNC machining for precision finishing. This synergy enables seamless scalability from rapid prototyping to full-scale production

Product Description

Product Specifications
Material TIANIUM / TiA14V / Ti6 / A14V ELI / TA1
Surface Treatment Anodizing, Clear Anodize, Black Anodize, Color Anodize, Bead Blast and Anodize, Glossy Anodize, Matt Anodize, Gold Anodize, Silver Anodize
Machining Method Polymer 3D Printing Technologies, Fused Deposition Modeling (FDM), Stereolithography (SLA), Selective Laser Sintering (SLS), Selective Laser Melting (SLM), 5-Axis CNC Precision Machining
Core Engineering Capabilities

Optimized Design for Maximum Performance

  • Topology-Optimized Lattice Structures: Using Selective Laser Melting (SLM), we create ultra-lightweight internal lattice geometries that reduce weight by 40% compared to conventional machined brackets—without compromising structural integrity.
  • Conformal Cooling & Load-Specific Reinforcement: AM enables organic, load-path-optimized designs that are impossible to achieve with subtractive methods, improving stiffness-to-weight ratios by up to 30%.

Precision CNC Finishing for Flight-Critical Reliability

  • 5-Axis CNC Machining: After printing, our high-precision 5-axis CNC machines refine all mating surfaces to ±0.025mm tolerance, ensuring perfect fitment with adjacent aircraft assemblies.
  • Superior Surface Finish: Critical load-bearing surfaces are machined to Ra 0.4μm or better, reducing friction and wear in high-stress applications.
  • Thread Milling for Fatigue Resistance: Bolt holes undergo CNC thread milling to exceed AS9100 fatigue life requirements, with testing validation at operational loads.

Material & Cost Efficiency

  • 65% Less Material Waste compared to solid billet machining—conserving aerospace-grade titanium.
  • Near-Net-Shape Printing minimizes CNC machining time, lowering costs by 30-50%.
  • Powder Reuse: Unused Ti6Al4V powder is recycled for optimal sustainability.

Certified for Aerospace Demands

  • Fully compliant with AS9100 & AMS 4999A standards.
  • Hot Isostatic Pressing (HIP) ensures 99.9% density, eliminating internal porosity.
UTS 1,100 MPa
Yield Strength 950 MPa
Elongation 10-12%

Next-Gen Applications

  • Commercial & Military Airframes
  • Spacecraft Structural Components
  • Drone & UAV Load-Bearing Frames
Key Advantage

Unmatched Design Freedom + Precision

3D printing enables complex internal channels, lattices, and organic shapes impossible to machine from solid, while 5-axis CNC ensures ±0.025mm tolerances on critical interfaces (e.g., mating surfaces, threads). Example: Aerospace brackets with topology-optimized structures and CNC-machined bolt holes.

Frequently Asked Questions
What titanium grades are available for manufacturing?

We support multiple high-grade titanium alloys including Titanium, Ti6Al4V, Ti6Al4V ELI, and TA1, catering to critical aerospace strength-to-weight and fatigue standards.

What tolerances and surface finishes can CNC finishing achieve?

Our 5-axis CNC machines refine mating surfaces to a tight tolerance of ±0.025mm, with critical load-bearing surfaces machined to Ra 0.4μm or better.

How does near-net-shape printing lower production costs?

Near-net-shape additive manufacturing generates up to 65% less material waste than solid billet machining, minimizes CNC cycle times, and cuts total production costs by 30% to 50%.

How do you ensure zero internal porosity in 3D-printed titanium?

Components undergo Hot Isostatic Pressing (HIP) post-treatment to achieve 99.9% structural density, fully complying with AS9100 and AMS 4999A aerospace requirements.

What mechanical strength values can be expected from finished parts?

Components reach an Ultimate Tensile Strength (UTS) of 1,100 MPa, a Yield Strength of 950 MPa, and an Elongation rate of 10-12%, matching wrought Ti6Al4V standards.

What surface treatment and anodizing options are supported?

Available treatments include clear, black, color, gold, and silver anodizing, along with bead blast anodizing, glossy anodize, and matte finishes.

Related Products