Double-station low-temperature wax injection machine

1. Enhanced Energy Efficiency
Operating at substantially lower temperatures compared to conventional high-temperature wax injection systems (which typically exceed 100°C), the equipment requires markedly less energy for wax melting and injection. This leads to a considerable reduction in power consumption and operational expenses.

2. Improved Operational Safety
With lower wax melting and injection temperatures, the system significantly minimizes the risk of operator burns from hot wax. This creates a more secure and user-friendly working environment.

3. Superior Dimensional Accuracy
Low-temperature waxes demonstrate reduced shrinkage rates and minimal volumetric changes during solidification. Combined with a narrower cooling temperature range, this results in enhanced dimensional consistency of wax patterns and higher precision in final cast components—particularly critical for high-accuracy applications.

4. Excellent Surface Quality
These specialized waxes offer superior flow characteristics even at lower temperatures, facilitating detailed mold replication while minimizing surface imperfections such as bubbles or flow marks. The outcome is a smoother, higher-fidelity surface finish on both the wax pattern and the resulting casting.

5. Extended Tooling Longevity
Reduced thermal exposure decreases thermal shock and stress on molds—especially beneficial for silicone-based soft molds commonly used in prototype and low-volume production. This effectively delays aging and distortion, prolonging service life and reducing long-term tooling costs.

6. Simplified Operation and Maintenance
The equipment design is less complex than high-temperature alternatives, with more straightforward temperature control requirements. Maintenance tasks, including wax residue cleaning, are facilitated as residues soften or melt at lower temperatures.

7. Broad Material Compatibility
A wide selection of specialized low-temperature injection waxes is available, offering customizable properties such as hardness, shrinkage rate, strength, color, and tailored behavior—enabling optimized performance across diverse part geometries and production requirements.