WS water conditioners. Industrial non-chemical water treatment.

WS - ferrite Water Conditioner

Non-chemical water treatment

water conditioners for limescale and bio-fouling control


  • save fuel, energy;
  • reduce non-production downtime;
  • reduce consumption of chemicals;
  • extend lifetime of pipes and equipment.


WS - ferrite active water conditioners for protection from limescale of boilers, heat-exchangers, industrial equipment, pipes and utilities.

Series "F" - ferrite flocculating devices for improving the efficiency of sand filters, to inhibit bacteria and bio-fouling in circulating systems, chillers, cooling towers.

New emitter

Improved treatment efficiency when installed on plastic pipes.

New technology

Our water treatment technology performs 15-18% better than competitor.

New ferrites

WS water conditioner transfer energy in the water 17% more efficient  than competitor.

High precision

Modern microcontroller ensures high-quality and accurate pulse generation.


Signal level, ferrite control and overheating control. Digital indicator for data display. Sound signals.


Fully sealed housing (IP67). The electronics is protected from vibrations by compound. No consumables required.

What result customer can get from using of WS water conditioner?

Customer can get significant savings from the use of WS water conditioner. It helps to:

  • minimize energy (fuel) overruns;
  • reduce non-production downtime;
  • reduce maintenance costs;
  • get rid of premature wear and tear of equipment.


Because of:

  • slower formation of limescale / deposits;
  • gradual softening and partial removal of existing limescale;
  • changing of deposit's structure cause less chemicals consumption for cleaning or changing them to more gently ones.


The source of these losses are formation of limescale and various types of deposits on the walls of the pipes and equipment.

Practice shows, preventing of limescale and deposits formation is cheaper that to provide high-quality water purification.

More about principle of operation (click to expand)

The device forms the so-called clusters - amorphous (non-rigid) bunches of randomly distributed ions in the water. When water is heated in a boiler or heat exchanger, the scale formation occurs primarily due to clusters. Thus, the device actually stimulates scale formation. However, it occurs in the volume of water away from the walls of the pipes and equipment.

This creates many scale crystals from 5 to 20 microns (5-10 times less than the thickness of a human hair) in size. The density of the crystals is approximately equal to the density of the water, so they are not sediment, but, as it were, remain suspended (literally "hanging" in it). Water flow moves them out of the boiler or heat exchanger.

Formation of clusters

When working on a metal pipe, the WS water softener induces an electromagnetic field on it. Wherein, the pipeline’s metal acquires its own (secondary) electromagnetic field.

The electromagnetic field of the device is aimed across the pipe’s axis(radially). It pulls free electrons off the pipe metal from the inner to the outer surfaces. As a result, electrons are depleted from metal of the inner surface of the pipe. It acquires a weak positive electric charge.

Calcium and magnesium ions have a positive electric charge by nature. The repulsion of same charged particles does not allow calcium and magnesium ions to attract to the surfaces of pipes and equipment.

When mounted on a plastic pipe, the electromagnetic field of the device penetrates through the pipe material. The effect is more local, but still sufficient for water clusters formation.


The WS water softener emits pulses by packages. The pulse frequency within the package is the same, but differs from the pulse frequency in the next package. Parameters of the pulses have a frequency close to water resonance frequencies and common aqueous solutions. They are chosen so that structures (temporary bonds between water molecules) form in the water and are destroyed by an ensuing pulse packet.

The repeated formation and destruction of structures in the water is accompanied by a phenomenon similar to weak cavitation. It shifts calcium, magnesium, carbonate and other ions dissolved in water. The impact is more intense than under the single-pulses treatment. As a result, more clusters form in the water and, accordingly, more suspended microcrystals appear. According to laboratory tests, 15-20% more.

Was got a patent for this method of water treatment.



The WS water conditioner comprises a self-test unit and a digital display, which displays the current output value and the temperature inside the body.

It is ferrite type water conditioner. The device has ferrites made from special ferroalloy that minimizes the energy loss during power transmission into the water. Device has emitter with an original design, allowing us to improve treatment efficiency when working on plastic pipes.

The dismountable magnetic core allows the installation of the WS water conditioner over the pipe, without cutting the pipe. The mounting location - on a main pipeline or on a return pipeline (depending on application) at some distance before the protecting equipment.

From the mounting location, the impact is distributed along the pipeline and then along the tube plate of a boiler, heat exchanger, along the heat exchanger plates, the heating elements of electric water heater, and gradually decays.


Internal corrosion inhibition.

Internal corrosion inhibition by the WS water conditioner is based on the passivation effect.

As described above, the electromagnetic field of the device pulls free electrons off the metal from the inner to the outer pipe surface, which creates an electron-depleted layer on the inside surface of the pipe (that is why it becomes weakly positively charged).

With a lack of free electrons, the metal becomes weakly susceptible (passive) to corrosion. It oxidizes worse and behaves like a noble metal. This phenomenon is called passivation. It is present while the device is operating and disappears when powered off.


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