Applications

Hydraulic turbines are suitable for various industrial applications:

 Hydrogenation systems and coolers: The fluid from reaction nozzles to coolers can directly enter the turbine recovery unit.

Gas processing: Used to remove excess liquid, such as wash oil layers, where hydraulic turbines can recover energy.

Chemical production: In synthetic ammonia, CO₂, or ethylene evaporation systems, hydraulic turbines can recover energy from chemical cleaning wastewater.

Reverse osmosis and absorption processes: Hydraulic turbines are ideal for recovering energy from high-pressure reverse osmosis systems.

Hydraulic Turbine Unit Configurations

The unit configuration must align with the process flow for economic and operational efficiency. Recommended configurations 

include:

Hydraulic Turbine Classifications

TSZE(OH2) Type Hydraulic Turbine

• Horizontal, single-stage, cantilever design compliant with API 610 12th Edition.

• Centerline-supported, suitable for a wide temperature range.

• High-pressure design (up to 110 MPa) with heavy-duty, large-diameter bearings.

• Axial force balanced via pressure balance holes; residual forces handled by thrust bearings.

• Bearings configured per API 610: angular contact (dual tapered roller bearings) combined with cylindrical roller bearings for radial/axial load support.

Technical Parameters

Flow rate: Up to 2000 m³/h

Head: Up to 150m

Max design pressure: 11 MPa

Temperature range: -60°C to 450°C

A hydraulic turbine converts the pressure energy of liquid fluid into mechanical energy, recovering energy from high-pressure liquids in industrial processes. This method significantly reduces energy waste, offering an eco-friendly, low-carbon solution. The working principle involves high-pressure fluid driving the turbine’s impeller, which rotates the shaft to transmit mechanical energy for reuse.