Filters

Finish effect

No choice available on this group

Density

1 g/cm³ - 8 g/cm³

Print properties

Printing temperature

120 ºC - 230 ºC

Print bed temperature

30 ºC - 100 ºC

Mechanical properties

Impact strength

0 KJ/m² - 30 KJ/m²

Tensile strength

0 MPa - 30 MPa

Tensile modulus

0 MPa - 5820 MPa

Flexural strength

0 MPa - 50 MPa

Flexural modulus

0 MPa - 4620 MPa

Surface hardness (scale)

0 - 6

Thermal properties

Softening temperature (ºC)

0 ºC - 80 ºC

Highlighted features

Sinterable

Sinterable filaments allow the production of all-metal or ceramic parts. After printing, it is necessary to sinter the part to obtain the final product. Available in many materials and formats.

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About sinterable filaments

Sinterable filaments represent a remarkable advancement in the realm of 3D printing, offering unique capabilities for producing high-performance parts with exceptional strength and durability. These filaments are typically composed of metal or ceramic powders bound together with a polymer binder, enabling users to create intricate shapes and complex geometries that would be challenging or impossible to achieve through traditional manufacturing methods. Sinterable filaments undergo a post-processing step where the polymer binder is removed and metal particles sintered through heating, leaving behind a solid metal or ceramic part that is dense and fully functional.

Considerations

Printing with sinterable filaments requires specialized equipment capable of handling high temperatures and controlled atmospheres to facilitate the sintering process. FDM-based 3D printers with heated chambers are commonly used for printing sinterable filaments. Users may need to experiment with different printing parameters such as layer thickness, infill density, and sintering temperatures to achieve optimal results for their specific applications.

Applications

Sinterable filaments find a wide range of applications across industries such as aerospace, automotive, and healthcare, where high-performance materials and complex geometries are required. In aerospace and automotive applications, sinterable filaments are used to produce lightweight yet durable parts such as engine components, brackets, and heat exchangers. In the medical field, sinterable filaments enable the fabrication of custom implants and surgical instruments with precise dimensions and biocompatible properties. Additionally, sinterable filaments are utilized in the production of tooling, molds, and fixtures for manufacturing processes, offering cost-effective and rapid prototyping solutions.