Quick Look

Density	Tensile Strength	Yield Strength	Elongation at Break	Hardness
7.7-7.8 g/cm³	900-1300 MPa	650-1100 MPa	10-20%	30-40 HRC

Density

7.7-7.8 g/cm³

Tensile Strength

900-1300 MPa

Yield Strength

650-1100 MPa

Elongation at Break

10-20%

Hardness

30-40 HRC

About the Material

Complex Geometries: Binder Jetting can produce parts with intricate geometries, including internal channels and lattice structures.
Cost-Effective for Batch Production: Binder Jetting is economical for producing multiple parts simultaneously, making it suitable for medium to high-volume production.
No Support Structures: The powder bed provides natural support, allowing for the creation of complex features without additional supports.
Heat Treatment Flexibility: Stainless Steel 17-4PH can be heat treated to achieve specific mechanical properties, offering versatility for different applications.

Porosity: Parts produced via Binder Jetting may have higher porosity compared to parts made with other metal additive processes, requiring additional post-processing.
Post-Processing Requirements: Sintering or infiltration is needed to achieve full density, which can add complexity to the production process.
Surface Finish: The as-printed surface finish may require additional post-processing, such as polishing or machining, to meet desired specifications.

Design Aspect	Value
Minimum Wall Thickness	1.5 mm
Minimum End Mill Size	2.0 mm
Minimum Drill Size	1.5 mm
Maximum Part Size	300 mm x 300 mm x 200 mm
Undercuts	Allowed
Radii : Depth	Minimum 1.5 mm radius for depth features
Tolerance	±0.3 mm
Maximum Temperature	315°C

Application: Production of lightweight, high-strength components.
Case Study: An aerospace company used Binder Jetting to produce stainless steel brackets, reducing weight while maintaining strength and durability for flight components.

Application: Production of surgical instruments and medical devices.
Case Study: A medical device manufacturer utilized Binder Jetting to create custom surgical tools, reducing production costs and enabling rapid iteration.

Application: Manufacturing of exhaust components and structural parts.
Case Study: An automotive manufacturer used Binder Jetting to produce stainless steel exhaust manifolds, optimizing weight and corrosion resistance.

Binder Jetting can use a variety of materials, including metals, ceramics, and sand. Stainless Steel 17-4PH is one of the commonly used metal powders.

Yes, Binder Jetting can produce functional parts, but post-processing such as sintering or infiltration is often required to achieve the desired mechanical properties.

Industries such as aerospace, medical, and automotive benefit from the strength, corrosion resistance, and cost-effectiveness of Stainless Steel 17-4PH parts produced via Binder Jetting.

Binder Jetting can achieve tolerances of ±0.3 mm, which is suitable for many functional applications, but additional post-processing may be needed for higher precision.

Post-processing may include curing, sintering, infiltration, or surface finishing to achieve the desired properties and appearance.

Yes, Binder Jetting is well-suited for producing complex geometries, including internal features and lattice structures, without the need for support structures.

Parts made with Stainless Steel 17-4PH are strong and corrosion-resistant, making them suitable for demanding environments. Post-processing can further enhance their mechanical properties.