Cooling Capacity: 015 (15 kW), Type: 2 (Clean/DI Water), Pump Inverter Control: S (Pump Inverter Type), Option: N (NPT Fitting)

Cooling Capacity: 015 (15 kW), Type: 2 (Clean/DI Water), Pump Inverter Control: S (Pump Inverter Type), Option: CYZ (C+Y+Z)

Cooling Capacity: 015 (15 kW), Type: 2 (Clean/DI Water), Pump Inverter Control: S (Pump Inverter Type), Option: CZ (C+Z)

Cooling Capacity: 015 (15 kW), Type: 2 (Clean/DI Water), Pump Inverter Control: S (Pump Inverter Type), Option: NY (N+Y)

Cooling Capacity: 015 (15 kW), Type: 2 (Clean/DI Water), Pump Inverter Control: S (Pump Inverter Type), Option: Z (Circulating Fluid Automatic Recovery)

Cooling Capacity: 015 (15 kW), Type: 2 (Clean/DI Water), Pump Inverter Control: S (Pump Inverter Type), Option: D (DeviceNet Communication)

Cooling Capacity: 15 kW, Type: Clean/DI Water, Pump Inverter Control: Pump Inverter Type, Option: DI Control Kit

Cooling Capacity: 15 kW, Type: Clean/DI Water, Pump Inverter Control: Pump Inverter Type, Option: NPT Fitting

Cooling Capacity: 15 kW, Type: Clean/DI Water, Pump Inverter Control: Pump Inverter Type, Option: C+Y+Z

Cooling Capacity: 15 kW, Type: Clean/DI Water, Pump Inverter Control: Pump Inverter Type, Option: C+Z

Cooling Capacity: 15 kW, Type: Clean/DI Water, Pump Inverter Control: Pump Inverter Type, Option: N+Y

Cooling Capacity: 15 kW, Type: Clean/DI Water, Pump Inverter Control: Pump Inverter Type, Option: Circulating Fluid Automatic Recovery

Cooling Capacity: 15 kW, Type: Clean/DI Water, Pump Inverter Control: Pump Inverter Type, Option: DeviceNet Communication

The HRW series thermo-chiller is a high-performance device for circulating a fluid at a constant temperature (Water-cooled type).  Energy saving is substantially increased by exchanging cooling water and heat directly.  The HRW can achieve reduction in power consumption as it does not have a compressor, and reduction in the amount of facility water used because heat is exchanged directly

The HRW series thermo-chiller is a high-performance device for circulating a fluid at a constant temperature (Water-cooled type).? Energy saving is substantially increased by exchanging cooling water and heat directly.? The HRW can achieve reduction in power consumption as it does not have a compressor, and reduction in the amount of facility water used because heat is exchanged directly

The HRW series thermo-chiller is a high-performance device for circulating a fluid at a constant temperature (Water-cooled type).? Energy saving is substantially increased by exchanging cooling water and heat directly.? The HRW can achieve reduction in power consumption as it does not have a compressor, and reduction in the amount of facility water used because heat is exchanged directly

The HRW series thermo-chiller is a high-performance device for circulating a fluid at a constant temperature (Water-cooled type).  Energy saving is substantially increased by exchanging cooling water and heat directly.  The HRW can achieve reduction in power consumption as it does not have a compressor, and reduction in the amount of facility water used because heat is exchanged directly

The HRW series thermo-chiller is a high-performance device for circulating a fluid at a constant temperature (Water-cooled type).  Energy saving is substantially increased by exchanging cooling water and heat directly.  The HRW can achieve reduction in power consumption as it does not have a compressor, and reduction in the amount of facility water used because heat is exchanged directly

The HRW series thermo-chiller is a high-performance device for circulating a fluid at a constant temperature (Water-cooled type).  Energy saving is substantially increased by exchanging cooling water and heat directly.  The HRW can achieve reduction in power consumption as it does not have a compressor, and reduction in the amount of facility water used because heat is exchanged directly

The HRW series thermo-chiller is a high-performance device for circulating a fluid at a constant temperature (Water-cooled type).  Energy saving is substantially increased by exchanging cooling water and heat directly.  The HRW can achieve reduction in power consumption as it does not have a compressor, and reduction in the amount of facility water used because heat is exchanged directly