Regent's ISO 2858 Centrifugal Pumps

Regent’s ISO 2858 centrifugal pumps or Isoflow pumps are single-stage end-suction types. They boast excellent hydraulic efficiency, thanks to their double shrouded impeller and overall design. These pumps are engineered according to the International Standard ISO 2858 and are therefore dimensionally interchangeable with all pumps conforming to this standard.

Like other Regent centrifugal pumps, the ISOflow series features a Back Pull-Out design where the taper mounted impeller can be easily removed and serviced.

Features & Benefits

Know more about the features & benefits of using Regent's ISO 2858 Centrifugal Pumps.

Hydraulically balanced double shrouded balanced impeller
Sturdy pump casing with burst pressure twice the operating pressure
High strength bearing housing, robust shaft
High-quality materials resulting in longer pump life
Higher suction characteristics
Bearings are fitted with bearing caps, giving higher level protection
Complies with ISO 2858 and interchangeable with other pumps conforming to the same standard

Available Options

We customise pumps according to your specific application. Get in touch with us to know your options.

Material options
Seal options
Motor/drive options
Accessories and spare parts
Baseplate/mounting

Key Specifications

Here are the key specifications of Regent's ISO 2858 Centrifugal Pumps.

MAX FLOW: 90 m3/h
MAX HEAD: 150 m
WORKING PRESSURE: 16 bar

Applications

Here is a list of industrial applications for which Regent's ISO 2858 Centrifugal Pumps are commonly utilized.

Liquid Transfer
Air Conditioning
Refrigeration
Fire Protection
Water Pressure Boosting
Drainage
Irrigation
Factory Water
General Industry
Petroleum Products
Water Treatment and Supply

regents-pumps-iso-2858-centrifugal-pumps

Principle of Operation

Centrifugal pumps are able to move fluid by rotating an impeller inside the casing using a motor. As the impeller rotates, fluid is drawn into the pump and hits the impeller eye. The impeller then accelerates the fluid, imparting kinetic energy. This forces the fluid to the tips of the impeller vanes. Upon reaching the edge of the impeller, fluid falls into the casing, which causes the fluid to decelerate and gain higher pressure (fluid velocity is converted to pressure). Fluid is then pushed out of the discharge nozzle and out into the pipes.