Picture this: Your production line halts unexpectedly. $5,000 lost per hour. Maintenance teams scramble. All because your hydraulic gear pump failed again. What if we told you tandem gear pump
technology reduces downtime by 41%? Let's cut through the noise.
(tandem gear pump)
You get dual pumping action in one compact housing. Our T-Series models deliver:
Flow Rate (GPM) | Service Life | Warranty | |
---|---|---|---|
Standard Pumps | 5-25 | 6-8 years | 1 year |
T-Series Tandem | 10-50 | 12-15 years | 5 years |
Need specific flow rates? Special mounting configurations? Our engineers will:
30% maintenance cost reduction
18-month ROI achieved
20% energy savings
Zero failures in 3 years
Ready to slash your hydraulic maintenance costs?
35,000+ systems optimized since 2009
(tandem gear pump)
A: A tandem gear pump combines two separate gear pumps in a single unit, sharing a common drive shaft. It is used to deliver multiple flow paths or higher pressure outputs in hydraulic systems. This design optimizes space and efficiency for complex applications.
A: A hydraulic gear pump uses meshing gears to transfer fluid by creating a vacuum at the inlet and forcing it to the outlet. It relies on precise gear tolerances to minimize internal leakage. These pumps are valued for their simplicity, durability, and cost-effectiveness.
A: A coupling connects the pump's drive shaft to the power source (e.g., an electric motor), ensuring torque transmission while accommodating minor misalignments. It reduces vibration and wear, enhancing system longevity. Proper coupling selection is critical for maintaining efficiency and reducing mechanical stress.
A: Tandem gear pumps provide dual flow channels or pressure stages, enabling multitasking (e.g., powering separate circuits simultaneously). They save space compared to installing two standalone pumps. This configuration also allows for modular maintenance and replacement.
A: Flexible couplings can address slight axial, radial, or angular misalignments between connected components. Rigid couplings require perfect alignment. Choosing the right type depends on system tolerances and operational demands.