System Advantages

Low NPSH requirement

Non-Clogging design

Low operational noise

Suitable for viscous fluid up to 1,00,000 cPs

Reversible suction and discharge

Inherently self-Priming

1. Mixing Expertise

Process Flow & Optimization

Reaction Rates:Creating optimal flow patterns to accelerate conversion.
Mass Transfer:Ensuring reactants are uniformly distributed.

Rotor & Stator Geometry

The pump consists of a precisely machined metallic rotor and an elastomer stator. The unique geometry maintains an effective sealing line under both static and dynamic conditions, ideal for

Pulsation-Free Flow

The cavities progress smoothly from the suction side to the discharge end, carrying the fluid without pulsation, which is critical for protecting downstream equipment.

Technical Matrix

FlowrateUp to 50,000 LPH

PressureUp to 12 Kg/cm2

ViscosityUp to 1,00,000 cPs

Solids HandlingYes

PrimingSelf-Priming (No Foot Valve)

Resources

Technical Documents

DSP Series

Technical
FAQ

Expert insights on installation, maintenance, and performance optimization for your Screw Pump.

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The Progressive Cavity design uses a metallic rotor and elastomer stator to move fluid smoothly. It can handle high-viscosity liquids up to 1,00,000 cPs without losing efficiency or causing pulsation.

No, this Screw Pump is inherently self-priming, meaning it can clear air from the suction line and start pumping without an external foot valve.

Yes, one of the key features of this design is its reversible suction and discharge capability, allowing for flexible installation and process control.

It provides a pulsation-free flow. By carrying the fluid smoothly through progressing cavities, it prevents the pressure spikes often found in other positive displacement pumps, thereby protecting sensitive downstream instruments.

Yes, the non-clogging design and unique rotor-stator geometry allow it to handle abrasive fluids and certain solid particles effectively.