FAQ
Shopping FAQs
Is your factory still worried about the high cost of metal prototypes?
How to achieve seamless transition from design to mass production with one device?
Industrial grade precision metal 3D printing equipment, creating complex parts as simple as printing!
"Layer thickness as low as 20 microns? This metal 3D printer redefines precision manufacturing!"
2. Save 90% of material costs! Metal 3D printing makes small-scale production more cost-effective?
"24-hour non-stop printing? XX equipment boosts factory efficiency to new heights!"
"From design to finished product, metal 3D printing shortens your production cycle by 50%!"
3. Still struggling with mold making for metal parts? Direct printing, saving time and effort!?
Aerospace grade metal 3D printer, meeting the most stringent strength requirements.
4. The future is here: This machine is disrupting the metal manufacturing industry!
(Limited time consultation)?
"Metal 3D technology used by the world's top 500 companies - has your factory kept up?"
Only 3 units of discounted inventory left! Industrial grade metal printers offer great benefits for the year
5. How to use metal 3D printing equipment to print lightweight automotive parts?
3D Printing Lightweight Automotive Parts (Simplified Version)
5.1 Topology optimization design: Using CAE/AI to generate honeycomb/lattice/hollow structures, strengthening the load-bearing area and reducing weight in the non load-bearing area, reducing weight by 20% -50%.
5.2 Material selection
Metal: AlSi10Mg aluminum alloy (SLM printing, 25% weight reduction), titanium alloy.
Composite material: Carbon fiber reinforced nylon/ABS, with a 20% increase in strength and a 15% decrease in weight.
Resin: Automotive grade flame-retardant/weather resistant photosensitive resin (SLA/DLP).
5.3 Process matching
Metal structural components: SLM/LPBF (aluminum alloy/titanium alloy, high precision, high strength).
Composite functional components: SLS/FDM (nylon/carbon fiber composite, no need for support, suitable for complex structures).
Interior/exterior components: SLA/DLP (with good details and easy post-processing).
5.4 Printing parameters: thin wall thickness (0.3-0.5mm), reasonable filling density, optimized support, and reduced material and weight.
5.5 Integrated molding: Merge multiple parts into a single piece to reduce assembly, weight, and enhance strength.
5.6 Post processing: Heat treatment/machining of metal parts; Polishing/painting of composite/resin parts, balancing strength and weather resistance.
5.7 Simulation verification: Use finite element analysis to analyze strength/stiffness/fatigue, ensuring weight reduction without compromising performance.
6.How can metal 3D printing equipment help them reduce costs?
6.1 Material optimization: Prioritize the use of aluminum alloy/stainless steel instead of titanium alloy; Powder recycling and reuse (utilization rate ≥ 95%); Reduce unit price for bulk procurement.
6.2 Design simplification: Topology optimization (honeycomb/dot matrix) reduces weight and saves materials; Less support/unsupported design; Integrated molding reduces assembly.
6.3 Process efficiency improvement: Choose SLM low-cost models or adhesive spraying; Parameter optimization (thick layer, high filling) accelerates speed; Batch typesetting and full page printing.
6.4 Equipment cost reduction: Domestic equipment replaces imported ones; Shared/leased equipment; Regular maintenance to extend lifespan and reduce malfunctions.
6.5 Post processing simplification: no/simple heat treatment; Reduce machining; Use efficient surface treatment (sandblasting instead of grinding).
6.6 Management and cost control: reduce waste rate; Reasonable utilization rate during production scheduling and machine lifting; Inert gas recovery reduces consumption.
