Our custom 3D printing services are designed to meet a wide range of customer needs, from rapid prototyping to large-scale part production. We deliver 3D printed components and samples quickly and accurately. Our core 3D printing technology is Stereolithography (SLA), which ensures the highest quality results, minimizes tolerances, and optimizes surface finishes to meet customer specifications.

Key Features of Our Process:
⚡ Plastic Materials: We primarily use “ABS-like” materials (yellow resin), which offer excellent hardness, toughness, impact resistance, and heat resistance. These are ideal for structural components and sample testing in industries such as home appliances, electronics, automotive, and medical devices.
⚡ Metal Printing Available: We can switch materials to print metal parts.
⚡ Maximum Build Size: 600 x 600 x 400 mm, utilizing industrial-grade machines rather than desktop 3D printers.

Advantages of Our Method:
⚡ High Customization and Rapid Prototyping: 3D printing allows for quick product validation, testing, and provides rapid manufacturing solutions for customer products.
⚡ Production of Complex Shapes: 3D printing can create intricate structures that traditional manufacturing methods cannot, such as undercuts.
⚡ Material Waste Reduction: As a layer-by-layer additive manufacturing process, 3D printing minimizes material waste, unlike CNC processes that generate excess material.
⚡ Lower Mold Costs: 3D printing reduces mold development time and costs, speeding up product validation and facilitating rapid market entry for new products, including small-batch production.

If customers do not have 3D files (such as .stl, .stp, .step, .igs), we can also assist by 3D scanning physical samples to create a digital model. Using a combination of 3D printing and silicone molding techniques, we can reverse engineer and recreate identical physical samples.

	SLA  (Stereolithography)	SLS  (Selective Laser Sintering)	DLP / LCD light curing surface projection	FDM hot melt lamination
Forming principle	UV laser curing liquid resin point by point	1) Fiber laser molten metal powder (SS, Ti‑6Al‑4V, AlSi10Mg…) 2) CO₂ / Fiber laser sintered nylon powder	Projected surface light cures one layer of resin at a time	Hot melt extrusion plastic wire
Layer thickness (µm)	25–100	30–60 (metal) 80–120 (nylon)	35–60	100–300
Dimensional accuracy	±0.05 mm / 100 mm	±0.05 mm / 50 mm (metal) ±0.15 mm (nylon)	±0.05–0.1 mm	±0.2–0.3 mm
Surface roughness (Ra)	0.8–1.5 µm (almost mirror-like)	Metal: 4～6 µm (2 µm after sandblasting) Nylon: 6～10 µm (<5 µm after sandblasting)	1–2 µm	10–25 µm (staircase pattern)
Available Materials	Transparent, ABS-like, elastic, heat-resistant, medical resin	Metal: stainless steel, aluminum, titanium, nickel-based alloy, tool steel Nylon: PA12, PA11, carbon fiber/glass fiber reinforced nylon	The resin is similar to SLA, but batch change is troublesome	PLA, ABS, PETG, TPU
Print speed	Slow	Medium (scan but can be stacked)	Fast (whole layer flash solid)	Fast (large layers but slow cooling)
Unit cost	Middle	Medium-High	Low‑Medium	Low
Advantages and Disadvantages	• Best details & surface in the industry • Can be used for  transparent, precision medical, microfluidics • Slower printing speed, but the highest precision	• High density, strong mechanics, no support → Insert/free hollow • No support, excellent toughness , can be directly used as  buckle, hinge and functional parts •High batch stacking efficiency	• One layer solidified at a time →  Faster than SLA • Product production efficiency is high and cheaper, but still rougher than SLA, toughness and brittleness are still not as good as SLA	• Cheap to install, consumables are widely available but need to be replaced frequently • DIY & teaching mainstay
IDMockup Main Service	✅	✅	❌	❌