Introduction of Vacuum Debinding and Sintering Combo Furnace
Suitable for various forming processes, including Pressed Powder Metallurgy (PM), Metal Injection Molding (MIM), Isostatic Pressing (IP), and 3D Printing.
Applicable to metallic materials such as stainless steel and iron-based alloys, as well as engineering ceramics like silicon carbide (SiC) and silicon nitride (Si₃N₄).
Features of Vacuum Debinding and Sintering Combo Furnace
Proprietary large-surface-area heating technology ensures superior temperature uniformity (achieving true uniformity of ≤ ±5°C).
Advanced in-chamber atmosphere flow control minimizes residual contaminants, resulting in more consistent sintered part performance (e.g., carbon content in 304 stainless steel can be controlled to ≤ 0.01%).
Higher loading capacity and larger part capability: full-load sintering is highly stable, with sintering yield reaching up to 100%. Even large or previously difficult-to-sinter components are now easily processed (mass-produced parts weighing over 900 grams have been successfully achieved).
Intelligent control system with comprehensive self-diagnostic and alarm functions—simplifying operation while enhancing stability and safety.
Process of Capabilities
▲ Debinding Steps:
• Vacuum debinding
• Negative-pressure carrier-gas debinding (using N₂ or Ar)
▲ Sintering Steps:
• Vacuum sintering
• Partial-pressure or constant-pressure sintering (using Ar or N₂)
▲ Cooling Options (optional):
• Furnace-cooling under vacuum
• Controlled-rate cooling following a programmed temperature curve
• Rapid gas-circulation cooling (using N₂ or Ar)
Model of Vacuum Debinding and Sintering Combo Furnace
