Compare 3D Printing Materials

3D printing antistatic resin materials are typically achieved by incorporating conductive fillers or ion-type additives into the resin, effectively reducing the material’s surface resistivity. These materials are specifically designed for applications in electronic devices, precision instruments, and other areas where static interference must be prevented. The material effectively suppresses static accumulation, ensuring that printed parts remain free from charge interference during use, while maintaining excellent mechanical properties and precise printing details. Whether for manufacturing sensitive components or performing high-precision assemblies, antistatic resin is the ideal choice.

PC-like translucent material combines excellent translucency with high stiffness, making it an ideal choice for precision components. Through customized post-processing, functional light-transmitting effects can be achieved, delivering both aesthetic appeal and performance. With high tensile strength and modulus, this material is especially suited for creating functional prototypes that emulate injection-molded polycarbonate, meeting the dual demands of mechanical performance and visual quality for engineering prototypes and small-batch production.

Flame-retardant resin is a high-performance material formulated with specialized additives to significantly reduce flammability and slow down flame propagation. While maintaining excellent mechanical strength and processability, it meets stringent fire safety standards. Ideal for electronics enclosures, aerospace components, transportation parts, and other applications requiring superior fire resistance, this resin enables precise 3D printing of complex geometries while ensuring reliable performance under high temperatures and flame exposure.

3D printed titanium alloys, represented by Ti6Al4V, feature extremely high specific strength and excellent corrosion resistance, while being lightweight and tough. They enable the creation of complex geometries and topology-optimized designs through additive manufacturing, and are widely used in aerospace, medical implants, automotive, and high-performance sports equipment. Titanium alloys also offer good high-temperature performance and biocompatibility, making them an ideal choice for manufacturing high-performance, lightweight components.
Disadvantages: Poor heat resistance (maximum 120°C); surface roughness around Ra10, with slight pits and visible layer texture.

3D printed aluminum alloys, represented by AlSi10Mg and other aluminum-silicon-magnesium alloys, combine lightweight characteristics with excellent mechanical properties. They offer an outstanding strength-to-weight ratio, good corrosion resistance, and thermal conductivity, and demonstrate excellent fatigue and fracture resistance after heat treatment. The material is easy to form, weld, and machine, making it ideal for aerospace, automotive, and tooling applications where lightweight design and structural complexity are critical. Finished parts are typically shot-peened for surface treatment. If you require any other post-processing, please inform our customer service clearly.
Disadvantages: Poor heat resistance (maximum 120°C); surface roughness around Ra10, with slight pits and visible layer texture.