Refractory metals and alloys
- W, Mo, Ta, Nb, Zr, Hf, W-Cu, and Mo-Cu alloys
Advanced Sintering
Hydrogen Atmosphere Sintering
High-purity hydrogen reduction for oxide removal, purification and surface activation.
What This Process Solves
High-purity hydrogen reduction for oxide removal, purification and surface activation.
High safety
Good uniformity
Fast heating
High temperature precision
Suitable Materials & Applications
Copper, silver, and nickel powder metallurgy
- Pure copper, oxygen-free copper, bronze, and high-strength iron alloys
Cemented carbide and cermets
- WC-Co, WC-Ni, TiC, and TiN
Non-oxide structural ceramics
- AlN, SiC, Si3N4, and h-BN
Transparent and optical ceramics
- Transparent alumina, YAG, sapphire, and phosphor ceramics
Semiconductor and electronic packaging
- Silicon wafers, SiC backside grinding materials, and HTCC ceramics
Magnetic and functional ceramics
- Soft magnets, NdFeB permanent magnets, and lithium battery electrode materials
Evaluation Boundary
Final feasibility depends on material composition, geometry, atmosphere window, thermal profile, target performance, and downstream testing requirements. For immature formulas or complex dissimilar joining, small-sample validation is recommended first.
Available Equipment & Parameters
H2MO14 Hydrogen Furnace
Advanced Sintering Technology Center / Laboratory-grade
- Chamber size
- 200×200×300 mm
- Heating element
- Molybdenum strip
- Ultimate vacuum
- 6.7×10⁻³Pa
- Maximum temperature
- 1400°C
- Atmosphere
- Nitrogen / Hydrogen / Argon
H2W20 Hydrogen Furnace
Advanced Sintering Technology Center / Laboratory-grade
- Chamber size
- 200×200×300 mm
- Heating element
- Tungsten strip
- Ultimate vacuum
- 6.7×10⁻³Pa
- Maximum temperature
- 2000°C
- Atmosphere
- Nitrogen / Hydrogen / Argon
Request a Hydrogen Atmosphere Sintering process review
Share drawings, material grade, size, temperature window, and performance targets for first-pass engineering evaluation.