Product Type
1. Excellent Corrosion Resistance: High molybdenum (Mo) content enhances resistance to pitting and crevice corrosion, suitable for harsh environments such as marine and chemical applications. 2. Biocompatibility: Certified for biocompatibility according to ISO 10993, suitable for manufacturing medical devices and implants. 3. High Purity and Low Impurities: Oxygen content ≤0.1%, carbon content ≤0.03%, reducing printing defects and ensuring the density and strength of finished products. 4. Excellent Processing Performance: High sphericity (≥95%), good fluidity (Hall flow rate ≤25 s/50g), suitable for additive manufacturing processes such as SLM and EBM.
1. Ultra-high strength: After aging hardening, the tensile strength ≥1310 MPa, hardness HRC ≥40, excellent impact toughness. Performance is stable at low temperatures down to 300°C, and fatigue resistance is outstanding. 2. Corrosion resistance: Resistant to atmospheric, seawater, and weak acid corrosion; suitable for chemical and marine environments. Passivation or plating further improves corrosion resistance. 3. Processing adaptability: High sphericity (≥95%), low oxygen content (≤0.1%), excellent fluidity, suitable for 3D printing of complex structures. Small heat treatment deformation, supports precision machining and surface polishing.
1. Corrosion Resistance: Resistant to weak acids, alkalis, chlorides, and organic media corrosion. Its intergranular corrosion resistance is superior to 304 stainless steel. It exhibits good oxidation resistance and is suitable for humid and high-temperature steam environments. 2. Processing Adaptability: High sphericity (≥95%), low oxygen content (≤0.1%), and excellent fluidity reduce additive manufacturing defects. Excellent weldability, no annealing required after welding, and no tendency for hot cracking. 3. Environmental and Hygiene: Lead-free and cadmium-free, compliant with FDA and RoHS standards, suitable for food contact applications.
1. Ultra-high strength: Tensile strength ≥1900 MPa and hardness ≥50 HRC after aging treatment, suitable for high-load scenarios. 2. Excellent machinability: High sphericity (≥95%) and low oxygen content (≤0.1%), suitable for 3D printing and complex structure forming. 3. High-temperature performance: Good high-temperature stability, suitable for mold hot-working parts and parts used in high-temperature environments. 4. Heat treatment friendly: Can be rapidly strengthened by aging treatment (480-500℃) to improve mechanical properties.
1. Excellent ductility in the annealed state 2. Excellent weldability 3. High fatigue strength 4. Good corrosion resistance 5. Excellent printability and surface finish 6. Good thermal and electrical conductivity, non-magnetic, low-temperature resistant 7. Non-magnetic
1. Excellent fluidity and processability in additive manufacturing systems 2. High strength-to-weight ratio, suitable for lightweight component production 3. Good thermal conductivity, low coefficient of thermal expansion 3. Good mechanical properties, including high stiffness and wear resistance 4. Cost-effective production due to reduced material waste and shorter lead times 5. Flexible creation of complex geometries and internal structures
1. Excellent weldability and castability 2. Good wear resistance 3. High corrosion resistance 4. High specific strength 5. Low coefficient of thermal expansion
1. Excellent formability: High sphericity (sphericity ≥90%), good flowability, suitable for additive manufacturing processes such as SLM (Selective Laser Melting) 2. Balanced comprehensive performance: Moderate strength (tensile strength ≥290 MPa), combined with corrosion resistance and machinability, can be heat-treated for strengthening (T6 state) 3. High purity and low oxygen content: Oxygen content ≤0.15%, pure powder, reducing printing defects and improving the density of finished products 4. Wide application adaptability: Supports multiple post-processing processes (such as anodizing, welding), and is adaptable to automobiles, aerospace, industrial molds, and other scenarios
1. Superior High-Temperature Performance: Brazing temperature range of 1050-1200°C, joint temperature resistance up to 980°C. Resistant to high-temperature oxidation and heat corrosion, with excellent compatibility with nickel-based/cobalt-based alloys. 2. High Wettability and Fluidity: Containing boron and silicon elements, it lowers the melting point and enhances the wetting and penetration ability to stainless steel and high-temperature alloys. 3. Flexible Forms to Adapt to Processes: Paste: Convenient pre-placement, suitable for brazing complex structures (such as honeycomb seals). Powder: Can be sprayed or pre-coated, suitable for automated production lines. Foil: Uniform thickness (0.05-0.2mm), precision assembly without splashing.
1. High-Temperature and Corrosion Resistance Temperature range: -200°C to 1000°C, oxidation and sulfidation corrosion resistance. Resistant to seawater, chlorides, and acidic media corrosion, suitable for marine and chemical environments. 2. Excellent Processability High sphericity (≥98%), low oxygen content (≤0.1%), good fluidity, reducing 3D printing defects. Strong bonding strength with the substrate, supporting the formation of high-precision complex structures. 3. High Strength and Toughness Room temperature tensile strength ≥900 MPa, maintaining excellent mechanical properties at high temperatures.
1. High-Temperature Performance Applicable temperature range: -250°C to 700°C, resistant to high-temperature oxidation, creep, and sulfide corrosion. Strength is significantly improved after age hardening (room temperature tensile strength ≥ 1300 MPa). 2. Corrosion Resistance Resistant to acids, alkalis, chlorides, and seawater corrosion, suitable for chemical, marine, and nuclear industries. 3. Process Compatibility High sphericity (≥97%), low oxygen content (≤0.1%), excellent fluidity, compatible with additive manufacturing processes such as SLM (Selective Laser Melting) and EBM (Electron Beam Melting). No tendency for cracking after welding, supports the precision forming of complex structures.
Microscopic organization is uniform. 1. Powder metallurgy processes (such as gas atomization) reduce compositional segregation and form a fine and uniform grain structure. 2. Enhance the overall mechanical properties of the material, such as tensile strength and toughness. Excellent thermal stability and resistance to thermal fatigue. 1. Maintains high hardness (up to 45-52 HRC) at high temperatures, suitable for conditions with repeated heating and cooling. 2. Outstanding resistance to thermal cracking, extending mold life. Good processing adaptability. 1. High sphericity powder is suitable for additive manufacturing (such as SLM, EBM) and metal injection molding (MIM), enabling the manufacture of parts with complex geometries. 2. High density after sintering, reducing the need for subsequent processing. High wear resistance and corrosion resistance. 1. Vanadium and molybdenum carbides enhance wear resistance, suitable for high-friction environments. 2. Chromium element provides