Semi-permanent lifespan

- Motor Section: Designed as a dedicated motor for cutting fluid pumps, it uses an "E" type totally enclosed three-phase induction motor, allowing for semi-permanent usage without strain on the motor.

- Pump Section: The pump has excellent mechanical properties that withstand corrosion and wear, and it operates with minimal noise and vibration.

Excellent performance

- Based on extensive research experience with various cutting fluid pumps, the design maximizes the pumping functionality, significantly enhancing the pump's performance.

High-speed rotation shaft sealing device

- The self-priming pump features a mechanical seal designed for high-speed rotation, completely eliminating the risk of leakage.

Liquid Level High/Low Marking

- The submerged pump body is marked with upper and lower liquid level indicators to assist in maintaining the liquid level within the tank.

Rotation Direction Viewing Window

- A transparent rotation direction inspection window has been attached to the top of the motor to allow for easy verification of the motor's rotation direction.

Optimal for High Flow and High Head Applications

- The ACP-MF and HMF types are designed for high-pressure applications, making them suitable for a wide range of uses,tincluding cutting cooling, transfer,
and cleaning in large machine tools, specialized machines, high-speed grinding machines, automatic multi-axis machines, and electrical discharge machines.

Simple structure

- Based on extensive research experience with cutting fluid pumps, it is designed for high efficiency and a simple structure, making maintenance easy.

Calculating the head loss occurring in the piping lines of a centrifugal pump is a very complex and challenging task. However, the actual head loss in the piping system can be surprisingly significant, so it must be carefully considered.

The calculation methods for head loss include the Darcy equation, Moody chart, Colebrook equation, and Blasius equation, which allow for approximate calculations; however, there may be slight discrepancies with actual values. The chart below is based on these equations, with values adjusted using empirical data.
The graph below was created by applying empirical corrections to the values calculated based on these formulas.
<See the table below>

When selecting a pump, the total head loss obtained from the chart below is added to the actual head to determine the total head. Then, the intersection point of the total head with the pump performance curve can be found to calculate the actual discharge.
However, these values may vary somewhat depending on factors such as the type of oil, viscosity, temperature, surface roughness of the pipe, shape of the pipe, and type of valve.

• The oil tank should be designed to be at least three times larger than the pump's discharge rate, taking into account the discharge amount of the pump and the flow rate of the piping line.
• When installing the pump, please ensure that the gap between the bottom of the pump casing (lower part) and the bottom of the tank is at least 20 to 30 mm.
• To minimize pressure loss in the piping, reduce the use of bends and fittings as much as possible.
• The pump should be installed in a well-ventilated area where oil splashing is minimized and in a location that allows for easy maintenance and inspection.
• Always use the specified power supply.
• Regularly clean the tank 2 to 3 times a year to remove foreign substances.
• The self-priming (ACP-A Type) pump uses a mechanical seal, so do not allow it to run dry under any circumstances, as this can cause pump failure.
• Install the self-priming pump as close to the liquid surface as possible.
• Install two or more baffles inside the tank to prevent the intake of foreign substances, and use a filter mesh of #100 or higher.