- Max. flow
- 80 L/min
- Max. head
- 18 m
Liquid cooling
Cold Plate Coolant Pumps
Circulate coolant through cold plates, heat exchangers and CDUs to carry heat away from chips, battery cells and power electronics.
Brushless canned drive · Zero leakage · Smart speed control
- Flow
- 5–300 L/min
- Head
- 3–40 m
- Voltage
- 12–48 VDC / 220–380 VAC
- Protection
- IP67
Series
Series
- Max. flow
- 120 L/min
- Max. head
- 35 m
- Max. flow
- 300 L/min
- Max. head
- 40 m
How it works
How it works
A motor spins the impeller at high speed. Coolant enters at the impeller eye, is accelerated and converted to pressure in the volute, then flows through the cold plate micro-channels to absorb heat from chips or cells. After a heat exchanger or chiller cools it down, it returns to the pump inlet — a closed loop.
- 1 Suction Cool liquid enters the impeller eye
- 2 Pressurise The volute converts velocity into pressure
- 3 Heat pick-up Coolant flows through cold plate channels
- 4 Heat rejection Cooled in the exchanger and returned
Compare
Compare series
* Sample data; the official catalogue prevails.
Applications
Applications
- Data Center Liquid Cooling Cold-plate CDUs and rack-level loops that keep high-power chips cool around the clock.
- Energy Storage Liquid-cooling units for battery cabinets — tight cell temperature spread, longer cycle life.
- Electric Vehicles Battery pack cooling and oil-cooled e-drives — electric water and oil pumps.
Selection guide
Selection guide
- Set the duty point from total flow and total loop pressure drop (cold plates, quick couplings, piping, heat exchanger)
- Fluid and temperature range determine wetted materials and sealing
- Match voltage, speed control and communication to the system controller
- Consider noise, redundancy and serviceability
Need help selecting?
Send us flow, head / pressure, fluid, temperature and voltage, and an application engineer will recommend a model and system set-up.
Downloads
Downloads
Tell us your duty point — we’ll propose the pump
Flow, head / pressure, fluid, temperature, voltage — the more complete, the more precise the selection.