"Revolutionizing mold heating with second-level precision—
Specifically designed for injection machine molds, IHss turns every drop of water into a thermal missile, instantly eliminating temperature differentials!"
In injection molding or die-casting processes, the moment the mold contacts cold material, a surface temperature drop is inevitable.
Calculation Formula:
Time T(s) = [Mold Wt.(kg) × Specific Heat (Cp 0.46) × 1°C] / Power (kW)
Relying on a micro-volume of working water (only 10% of the chamber) and extremely low thermal inertia, the IHss system instantly converts all electrical energy into "Phase-Change Latent Heat".
Even at maximum mold load, the system utilizes the "Micro-Vacuum Cooling-Seeking Effect" of high-pressure steam to automatically track cold spots and forcibly compensate for a 1°C heat loss in under 9 seconds. It achieves an isothermal precision far beyond the reach of traditional equipment.
Max Load Limit: 8.8 sec
Half Load State: 4.4 sec
(Theoretical values based on 30-min preheating limit)
All values in this table are derived from rigorous thermodynamic engine calculations.
| Specification / Feature | 4 kW | 6 kW | 8 kW | 10 kW | 12 kW | 15 kW | 20 kW |
|---|---|---|---|---|---|---|---|
| Power Supply Voltage | 3-Ph 200~230V |
3-Ph 200~230V |
3-Ph 380~460V |
3-Ph 380~460V |
3-Ph 380~460V |
3-Ph 380~460V |
3-Ph 380~460V |
| Max Mold Load (kg) | 76 kg | 114 kg | 152 kg | 192 kg | 230 kg | 288 kg | 384 kg |
| Mold Channel Vol. (V_mold) | 1.5 L | 2.3 L | 3.0 L | 3.8 L | 4.6 L | 5.8 L | 7.7 L |
| Rec. Total Chamber Vol. (4.0x) | 6.0 L | 9.2 L | 12.0 L | 15.2 L | 18.4 L | 23.2 L | 30.8 L |
| Standard Working Water (10%) | 600 mL | 920 mL | 1200 mL | 1520 mL | 1840 mL | 2320 mL | 3080 mL |
| Min Safe Water Volume (5%) | 300 mL | 460 mL | 600 mL | 760 mL | 920 mL | 1160 mL | 1540 mL |
| 1°C Temp Drop Comp. Time | 8.8 s | 8.8 s | 8.8 s | 8.8 s | 8.8 s | 8.8 s | 8.8 s |
(Phase-Change Latent Heat)
Transfer Medium
Saturated High-Pressure Steam
Thermal Efficiency
Extremely High (Latent Heat 2260 kJ/kg)
Response / Limits / Maintenance
Safety & Environment
Absolutely safe, oil-free, no pooling
Size & Energy Consumption
No mechanical pump, compact size
Power savings >30%
(Water Circulation Sensible Heat)
Transfer Medium
Liquid Water
Thermal Efficiency
Medium (Requires large pumps)
Response / Limits / Maintenance
Safety & Environment
Water leaks affect yield & lifespan
Size & Energy Consumption
Needs heavy-duty pumps, high energy drain
(Oil Circulation Sensible Heat)
Transfer Medium
Thermal Oil
Thermal Efficiency
Very Low (Oil Cp is half of water's)
Response / Limits / Maintenance
Safety & Environment
Oil leaks pose fire risks, messy workspace
Size & Energy Consumption
Large pumps, preheating wastes massive energy
IHss systems possess physical properties of "ultra-fast dynamic compensation," "360-degree dead-zone-free uniformity," and "oil-free cleanliness," making them perfect for replacing traditional high-energy-consuming equipment.
Specifically engineered for rapid mold temperature control. Solves shrinkage and weld line issues caused by the slow heating of traditional water TCUs. Crucial for Rapid Heat Cycle Molding (RHCM).
Die casting molds face immense thermal shock during metal injection. IHss compensates for temp drops in seconds, extending mold life and reducing cold shuts and porosity defects.
Ideal for CFRP, silicone molding, and PCB pressing. Steam ensures absolute uniform temperature across large pressing plates, eliminating yield issues caused by uneven curing.
Provides precise temperature control for extrusion dies, ensuring uniform film thickness and preventing plastic degradation or carbonization due to localized high temperatures.
Eliminates high-energy mechanical pumps and water tanks. By heating only a micro-volume of working water, it eradicates "ineffective energy consumption." Zero waste oil pollution perfectly aligns with global net-zero and ESG procurement standards.
Removes traditional fatal flaws like heater tube scaling and high-pressure pump leaks. The core utilizes non-contact induction heating and a sealed chamber, operating in a near solid-state manner, drastically saving downtime and maintenance costs.
Miniaturized footprint allows hanging next to machinery for "One-to-One" dedicated zone temp control. Combined with digital power output, it seamlessly integrates into automated production lines as a standard for high-end smart manufacturing.