One of the key features of the A10VO 45DFLR/31L-PSC62K01 pump is its variable displacement design.
This means that it can vary the volume of hydraulic fluid it delivers, allowing precise control over the hydraulic system. This feature is particularly beneficial in applications that require varying speeds or forces, as it enables smooth and accurate operation.
The pump has a displacement size of 45 cm³, which refers to the amount of fluid it can deliver in one complete rotation. This displacement capacity makes it suitable for medium to large hydraulic systems that require substantial fluid flow. The pump's flow rate can be further adjusted based on the specific requirements of the application.
The A10VO 45DFLR/31L-PSC62K01 pump incorporates a swashplate design, which is commonly used in axial piston pumps. The swashplate mechanism converts the rotary motion of the pump's drive shaft into linear motion, driving the pistons within the pump. This design ensures smooth and efficient operation while minimizing wear and tear.
The pump is designed to operate at a maximum pressure of 310 bar (4500 psi), allowing it to handle high-pressure hydraulic systems. This capability makes it suitable for applications that require significant force or pressure, such as heavy machinery, construction equipment, and hydraulic presses.
To ensure long-lasting performance, the A10VO 45DFLR/31L-PSC62K01 pump is built with high-quality materials and undergoes rigorous testing.
It is constructed with robust components that can withstand demanding operating conditions, including temperature variations, pressure spikes, and contamination. This durability reduces maintenance requirements and increases the overall lifespan of the pump.
The pump's advanced hydraulic design and precision manufacturing contribute to its high efficiency. It minimizes energy losses, resulting in reduced fuel consumption and lower operating costs. The pump's efficiency is further enhanced by its ability to adjust the fluid delivery based on the system's demand, preventing excessive fluid flow and unnecessary energy waste.