Accuracy: Basic Type, Size: 32, Motor Mounting Position: Top Mounting, Motor Type: NY (Mounting Type Y), Lead Screw: C [LEY25, 3mm; LEY32, 4mm, (5); LEY63, 5mm], Stroke: 100mm, Dust/Drip Proof: Size 25, 32: w/o Enclosure; Size 63: IP5x, Dust Proof Specification, Rod End Thread: M (Rod End Male Thread, 1 Rod End Nut Included), Mounting: L (Foot)
Accuracy: Basic Type, Size: 32, Motor Mounting Position: D (In-line), Motor Type: NY (Mounting Type Y), Lead Screw: A [LEY25, 12mm; LEY32, 16mm, (20); LEY63, 20mm], Stroke: 100mm
Series: LEFB (Belt Drive), Size: 40, Motor Mounting Position: U (Bottom Mounting), Motor Type: NY (Mounting Type Y), Lead: S, Stroke: 3000mm
Series: LEFB (Belt Drive), Size: 40, Motor Mounting Position: U (Bottom Mounting), Motor Type: NY (Mounting Type Y), Lead: S, Stroke: 1600mm, Auto Switch Mounting Bracket: C [With 1 pc. (Included)]
Series: LEFB (Belt Drive), Size: 32, Motor Mounting Position: Top Mounting, Motor Type: NY (Mounting Type Y), Lead: S, Stroke: 1500mm
Accuracy: Basic Type, Size: 63, Motor Mounting Position: Top Mounting, Motor Type: NY (Mounting Type Y), Lead Screw: L (LEY63, 2.86], Stroke: 700mm, Dust/Drip Proof: Size 25, 32: w/o Enclosure; Size 63: IP5x, Dust Proof Specification, Rod End Thread: M (Rod End Male Thread, 1 Rod End Nut Included)
Cooling Capacity: 002 (2 kW), Type: 1 (Ethylene Glycol)
Cooling Capacity: 002 (2 kW), Type: 2 (Clean/DI Water)
Cooling Capacity: 002 (2 kW), Type: Fluorinated Fluid, Pump Inverter Control: S (Pump Inverter Type)
Cooling Capacity: 002 (2 kW), Type: 1 (Ethylene Glycol), Pump Inverter Control: S (Pump Inverter Type)
Cooling Capacity: 2 kW, Type: Ethylene Glycol, Pump Inverter Control: -, Option: -
Cooling Capacity: 2 kW, Type: Clean/DI Water, Pump Inverter Control: -, Option: -
Cooling Capacity: 2 kW, Type: Fluorinated Fluid, Pump Inverter Control: Pump Inverter Type, Option: -
Cooling Capacity: 2 kW, Type: Ethylene Glycol, Pump Inverter Control: Pump Inverter Type, Option: -
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