Compare 3D Printing Materials

Explore and compare 3D printing materials to find the best fit for your project. From durable plastics to flexible resins, our guide highlights key properties like strength, flexibility, and surface finish, helping you choose the right material for prototyping, production, or custom parts.

  • Flame retardant 3D printing resin for additive manufacturing — high-performance plastic material designed for fire-resistant and durable 3D printed components.

    Flame Retardant Resin

    Process: LCD

    Flame Resistance

    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.

  • PA+GF

    Process: SLS or MJF

    Temperature Resistance, Durability, Dimensional Stability

    PA+GF is a polyamide powder material reinforced with glass beads, which significantly improves stiffness and dimensional stability. Compared with unfilled polyamide, this material offers higher heat resistance and demonstrates excellent long-term wear performance. However, due to the addition of glass, its impact strength and tensile strength are relatively lower than those of other nylons.

  • Inconel 718 metal powder for 3D printing

    Inconel 718

    Process: SLM

    Fatigue Resistant, Temperature Resistance, Corrosion Resistance, Strength

    Inconel 718 is known for its outstanding high-temperature strength, creep resistance, and corrosion resistance. The material can withstand operating temperatures above 700°C while maintaining excellent fatigue and fracture resistance. Through additive manufacturing, GH4169 can produce parts with complex geometries and is widely used in aerospace engines, gas turbines, high-temperature molds, and high-performance industrial components.
    Disadvantages: High cost; complex heat treatment process; thin-walled structures require careful design; default surface roughness Ra10–12.