Filters

Finish effect

No choice available on this group

Density

1 g/cm³ - 2 g/cm³

Print properties

Printing temperature

170 ºC - 270 ºC

Print bed temperature

20 ºC - 100 ºC

Mechanical properties

Elongation at break

0 % - 50 %

Tensile strength

10 MPa - 60 MPa

Tensile modulus

10 MPa - 1010 MPa

Flexural strength

0 MPa - 90 MPa

Flexural modulus

760 MPa - 2690 MPa

Surface hardness (scale)

5 - 9

Thermal properties

Softening temperature (ºC)

50 ºC - 130 ºC

Highlighted features

Conductive

Filaments composed of graphene, which provides value in conductive applications of electricity, as well as in applications to increase mechanical strength without penalizing lightness in the pieces.

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About conductive filaments

Conductive filaments represent a cutting-edge advancement in the realm of 3D printing, offering unique properties for applications requiring electrical conductivity. These filaments are typically infused with conductive materials such as carbon fibers or graphene, allowing them to conduct electricity while retaining the flexibility and printability of traditional filaments. Conductive filaments provide users with the ability to create functional prototypes, electronic components, and circuits directly through additive manufacturing processes.

Considerations

Printing with conductive filaments requires careful consideration of printer settings and equipment. Standard desktop FDM 3D printers can be used for printing conductive filaments, but adjustments may be necessary to optimize print quality and conductivity. Parameters such as nozzle diameter, nozzle material (abrasion resistant), layer height, heated chamber and print speed may need to be adjusted to achieve the desired electrical properties and structural integrity. Additionally, users may need to experiment with different printing temperatures and cooling settings to minimize warping and ensure proper adhesion.

Applications

Conductive filaments find a wide range of applications across various industries and disciplines, including electronics, robotics, and wearable technology. These filaments enable the creation of functional prototypes with embedded circuitry, sensors, and electrodes, eliminating the need for traditional manufacturing processes such as injection molding or PCB fabrication. In the field of education, conductive filaments facilitate hands-on learning experiences in electronics and engineering, allowing students to design and fabricate custom electronic devices. Additionally, conductive filaments are used in research and development projects to rapidly iterate on prototypes and test new concepts in fields such as medical devices, aerospace, and consumer electronics.