Knowledge Hub
Particle Size of 309L Stainless Steel Powder for DED Applications
Particle Size of 309L Stainless Steel Powder for DED Applications? Our production team often adjusts powder screening parameters because unstable particle size can quickly reduce DED build consistency. For most DED applications, 309L stainless steel powder performs best within a particle size range of 45–150 µm. This range supports stable
H13 Tool Steel Powder
Is H13 Tool Steel Powder Suitable for LPBF and DED Processes? H13 tool steel powder commonly is used in additive manufacturing (LPBF, DED) for high-temperature tooling applications with high temperature strength, wear resistance and thermal fatigue resistance. H13 also is called as 1.2344 (often designated as X40CrMoV5-1) in DIN/EN grade
18Ni300 Maraging Steel Powder
What Makes 18Ni300 Maraging Steel Powder Different from Stainless Steel Powders? 18Ni300 also is called as 1.2709 and also named by Maraging 300 which is a nickel-cobalt-molybdenum maraging steel powder, known for its ultra-high strength, good toughness, and excellent printability in LPBF with low cracking susceptibility. It commonly was taken
904L Stainless Steel Powder
How Does 904L Stainless Steel Powder Perform in Harsh Chemical Environments? 904L also is called as Nr. 1.4539 (DIN EN X1NiCrMoCu25-20-5) or UNS S08904. 904L is a high alloy austenitic stainless steel with outstanding corrosion resistance in aggressive environments, specially to sulfuric acid, phosphoric acid, acetic acid and chloride-induced pitting/crevice
How Hard Can 420 Stainless Steel Powder Become After Heat Treatment
How Hard Can 420 Stainless Steel Powder Become After Heat Treatment? 420 also is called as 1.4021 (often designated as X20Cr13) in DIN/EN grade. We often test 420 powder batches in our lab, and hardness is always the first question customers ask after heat treatment. 420 stainless steel powder can
How to Select the Right Particle Size of 410 Powder for LPBF and MIM
How to Select the Right Particle Size of 410 Powder for LPBF and MIM? ![410 stainless steel powder cina supplier We often help customers choose powder specs, and particle size is always the first confusion point when switching between LPBF and MIM. The right particle size for 410 powder depends
Can 316L Powder Be Reused
Can 316L Powder Be Reused? 316L also is called as 1.4404 (often designated as X2CrNiMo17-12-2) in DIN/EN grade. We often see customers worry about wasted powder and rising costs when printing with 316L. In our production lines, reuse always comes up as a key concern. Yes, 316L powder can be
How to Choose a Reliable CMSX-4 Powder Supplier for Turbine Applications
How to Choose a Reliable CMSX-4 Powder Supplier for Turbine Applications? Below is a COA of CMSX-4 Powder from one of our client’s order In our powder manufacturing facility, we work closely with turbine-grade superalloys where every batch must meet strict aerospace expectations before shipment. Choosing a reliable CMSX-4 powder
What Is the Ideal Oxygen Content for Hastelloy N Powder
What Is the Ideal Oxygen Content for Hastelloy N Powder? Regarding the Hastelloy N powder, below is a COA from one of our clients: At our powder production facility, we closely monitor oxygen pickup during atomization, sieving, and packaging because even small deviations can change performance in AM systems. The
Nickel-Based Alloy Powders for Corrosion and Wear Resistance Applications
Nickel-Based Alloy Powders for Corrosion and Wear Resistance Applications At our factory, we engineer nickel-based alloy powders for demanding industrial environments where corrosion and wear occur at the same time. We focus on stable chemistry, clean atomization, and consistent particle behavior. Nickel-based alloy powders are engineered metallic materials designed to
How Laser Powder Bed Fusion Performance Is Affected by Metal Powder Characteristics
How Laser Powder Bed Fusion Performance Is Affected by Metal Powder Characteristics? At our factory, we produce metal powders for additive manufacturing, and we constantly see how small powder differences reshape LPBF outcomes. Poor powder control quickly turns stable builds into unstable production. Laser Powder Bed Fusion performance is mainly
Copper Alloy Powders for 3D Printing: Electrical, Mechanical, and Thermal Considerations
Copper Alloy Powders for 3D Printing: Electrical, Mechanical, and Thermal Considerations? I used to think copper was simple. But in 3D printing, I quickly saw it is not simple at all. I struggled with cracks, poor fusion, and unstable builds. I find that copper alloy powders in 3D printing require
Powder Production Methods and Their Impact on Quality and Consistency
Powder Production Methods and Their Impact on Quality and Consistency I have seen high-end components fail not because of design errors, but because the powder quality was inconsistent. Choosing the right powder production method is critical for ensuring quality, repeatability, and final part performance. Powder production method directly affects particle
How to Optimize Metal Powder for LPBF and 3D Printing Efficiency
How to Optimize Metal Powder for LPBF and 3D Printing Efficiency? I used to struggle with unstable builds and low efficiency. Parts failed, surfaces looked rough, and I blamed the machine first. Optimizing metal powder for LPBF means ensuring uniform spreading, dense packing, and stable melting. The key factors are
Key Factors for Selecting Ni-Based and Co-Based Powders for High-Temperature Use
Key Factors for Selecting Ni-Based and Co-Based Powders for High-Temperature Use? I have seen expensive components fail early in high-temperature service. Many times, the root cause was not the machine or the design. It was the wrong powder choice. Key Factors for Selecting Ni-Based and Co-Based Powders for High-Temperature Use