Filters

Average granulation

0 µm - 96 µm

Mechanical properties

Impact strength

0 KJ/m² - 50 KJ/m²

Elongation at break

0 % - 450 %

Tensile strength

0 MPa - 90 MPa

Tensile modulus

70 MPa - 6000 MPa

Flexural strength

0 MPa - 100 MPa

Flexural modulus

70 MPa - 5800 MPa

Surface hardness (scale)

0 - 8

Thermal properties

Softening temperature (ºC)

0 ºC - 200 ºC

Highlighted features

Powders

Powders composed of polymers, metals or ceramics, compatible with SLS printing technology. Ideal for complex and precise functional parts with advanced properties for various industries.

Sort by:
Showing 1-33 of 33 item(s)
Blue Care PA11
PA11 Detect 20 kg

BASF Ultrasint PA11

BASF Ultrasint TPU 88A Black

BASF Ultrasint TPU 88A

PA12 Industrial - Nylon-12 powder

PA12 Smooth - Polvo de poliamida 12

Sinterit Flexa Performance

PBT Optimal - SLS Printing Powder

PP - Polvo de Polipropileno

Sinterit PA11 Onyx -...

PA11 ESD

Sinterit PA11 CF (Carbon...
PA11 Dark 20 kg
PA11 Deep GB 20 kg
CADMIA3D - CADpowder PA12...
Monkey Soft 50
Monkey Hard 80
Monkey SiPA 12 - Polyamide...
Monkey RePA12 50-8GB -...
Monkey PA12 40-10 White –...

Forward AM Ultrasint PA11...

Forward AM Ultrasint PA11 rCF

Forward AM Ultrasint PA11 ESD
Black carbon powder (Laser...
Sinterit PA11.5 – Polyamide...
Sinterit PA12 ECO -...
Raise3D PA11 - SLS 3D...
Raise3D PA12 - SLS 3D...
Raise3D TPU 86A - Powder...
Raise3D PA NEXT - SLS 3D...
Raise3D PA NEXT GB - SLS 3D...
Monkey RePA12

Powders serve as the foundational materials utilized by 3D printers employing powder-based additive manufacturing technologies, such as selective laser sintering (SLS) and binder jetting. These powders, available in various formulations, are selectively fused together layer by layer to fabricate intricate and high-resolution objects. Common powder materials include polyamide (PA11 and PA12), polypropylene (PP), polyurethane (TPU), and polybutylene (PBT), each offering distinct properties suited to specific applications and performance requirements.

Within the category of powders, standard formulations strike a delicate equilibrium between various properties, encompassing strength, flexibility, and chemical resistance. This balanced combination renders them exceptionally adaptable, serving purposes spanning from prototyping and tooling to the production of final parts. Such versatility finds resonance across a spectrum of industries, including automotive, aerospace, and consumer goods, where the demand for robust, high-quality components is paramount. Whether facilitating rapid iteration in product development or enabling the fabrication of intricate, functional parts, these standard powder formulations stand as stalwarts in the ever-expanding landscape of additive manufacturing.

Engineered powders are meticulously crafted to cater to specialized applications, boasting an array of enhanced performance characteristics that include but are not limited to high-temperature resistance, impact strength, wear resistance, UV resistance, magnetic detectability, radiopacity, food safety, ESD protection, flexibility, and paintability. This rich tapestry of properties equips these powders to tackle a myriad of challenges across various industries, serving as indispensable building blocks for pushing the boundaries of powder-based additive manufacturing technologies. From aerospace components requiring exceptional durability to medical devices demanding precise radiopacity, these tailored powders stand as catalysts for innovation, continuously broadening the horizons of what is achievable in additive manufacturing.