Pressure filters typically offer lower initial and operating costs than conventional systems, and the package nature of these systems greatly simplifies the design and installation for the engineer and contractor. Specifically, pressure filter systems have been developed to focus on common ground water problems like iron, manganese and hardness. For high iron and manganese applications, our pressure filters can be provided with manganese green sand and potassium permanganate feed systems.

Pressure Booster System consists of an automatic pressure controlled pump and a tank, which contains an air filled poly-ether-urethane (PEU) bladder. The water gets pumped in this tank that compresses it and pressurizes the bladder which in turn maintains a desired pressure within the whole water system. This automatic system requires no manual intervention and is built for low maintenance. As the entire home plumbing is kept under pressure by the system it is vital that good standards have been used in water piping and fixtures.

The Pressure Booster System consists of the following components:

• Water Holding Tank - this tank consists of an air filled bladder. The water enters this tank and compresses the air cell and pressurizes the air, which in turn pressurizes the water. This water is delivered to your water supply system under consistent pressure.


• A Pump - this pump supplies water to the Water Holding tank and to your water supply system. It is controlled through an automatic pressure controlled switching device.


• Pressure switch - the pump is electrically connected to the pressure switch, which controls the pressure at which water is delivered.

Features

• Automatic operation of the system, water under pressure whenever required.


• Pressure booster system will work in homes with and without the overhead tank. They can replace the overhead tank provided continuous power is available. The composite material (FRP) tank ensures that the vessel never corrodes and no harmful traces of metal (as in steel tanks) pass into your water.


• The tank is made of Food & Drug Administration (FDA) and National Sanitation Federation (NSF) listed materials, thus environmentally safe and will not introduce any undesirable chemicals or elements.
  
  

You need Pressure Booster System if

• Water trickles from your taps and showers


• You do not have an overhead tank


• All floors of your building do not get water with equal force
  
  

Benefits

• Consistent water pressure on all floors.


• Pressurized full flow shower, which you always wanted.


• Consistent water flow in bathtubs, dishwashers, showers and garden hose.


• The modern fittings like mixers require an optimum pressure to function efficiently. Since this pressure is normally not available with an overhead tank, the booster system makes the presence of such fittings more meaningful.


• Complete and efficient management of water pressure.

As the system is switched on, the pump which is connected to the raw water source, starts pumping water into the hydro-pneumatic booster tank. The pressurized water from the tank is pumped to your water supply system.

When the taps are closed in your supply system, pressure builds in the tank. As the pressure reaches the optimum level, the pump is shut off. When the taps are opened, you get pressurized water from the water holding tank. As the pressure reduces and reaches a certain undesired level, the pump is automatically started. The pressure controlled automatic pump switching device in the system frees you from the problem of switching the pump on and off again.

Hydrp pneumatic booster system is designed either with single or with multiple pumps to have continuous water pressure. Systems are also designed with Variable Frequency Drive Unit.

Various types of Pumps are used for pneumatic booster system depending upon application and use. Booster Tank is used to get smooth operation of the Pump allowing pump to work for minium 1/2 to 1 min.

Ion exchange is an exchange of ions between two electrolytes or between an electrolyte solution and a complex. In most cases the term is used to denote the processes of purification, separation, and decontamination of aqueous and other ion-containing solutions with solid polymeric or mineralic 'ion exchangers'.

Typical ion exchangers are ion exchange resins (functionalized porous or gel polymer), zeolites, montmorillonite, clay, and soil humus. Ion exchangers are either cation exchangers that exchange positively charged ions (cations) or anion exchangers that exchange negatively charged ions (anions). There are also amphoteric exchangers that are able to exchange both cations and anions simultaneously. However, the simultaneous exchange of cations and anions can be more efficiently performed in mixed beds that contain a mixture of anion and cation exchange resins, or passing the treated solution through several different ion exchange materials.

Ion exchangers can be unselective or have binding preferences for certain ions or classes of ions, depending on their chemical structure. This can be dependent on the size of the ions, their charge, or their structure. Typical examples of ions that can bind to ion exchangers are:

• H+ (proton) and OH- (hydroxide)?


• Single charged monoatomic ions like Na+, K+, or Cl-


• Double charged monoatomic ions like Ca2+ or Mg2+


• Polyatomic inorganic ions like SO42- or PO43-


• Organic bases, usually molecules containing the amino functional group -NR2H+


• Organic acids, often molecules containing -COO- (carboxylic acid) functional groups


• Biomolecules which can be ionized: amino acids, peptides, proteins, etc.

Ion exchange is widely used in the food & beverage, hydrometallurgical, metals finishing, chemical & petrochemical, pharmaceutical, sugar & sweeteners, ground & potable water, nuclear, softening & industrial water, semiconductor, power, and a host of other industries.

Most typical example of application is preparation of high purity water for power engineering, electronic and nuclear industries; i.e. polymeric or mineralic insoluble ion exchangers are widely used for water softening, water purification, waterdecontamination, etc.

Ion exchange is a method widely used in household (laundry detergents and water filters) to produce soft water. This is accomplished by exchanging calcium Ca2+ and magnesium Mg2+ cations against Na+ or H+ cations (see water softening).

Ion exchange resins in the form of thin membranes are used in chloralkali process, fuel cells and vanadium redox batteries. Ion exchange can also be used to remove hardness from water by exchanging calcium and magnesium ions for hydrogen and chlorine ions in an ion exchange column.

Pressure filters typically offer lower initial and operating costs than conventional systems, and the package nature of these systems greatly simplifies the design and installation for the engineer and contractor. Specifically, pressure filter systems have been developed to focus on common ground water problems like iron, manganese and hardness. For high iron and manganese applications, our pressure filters can be provided with manganese green sand and potassium permanganate feed systems.

Pressure Booster System consists of an automatic pressure controlled pump and a tank, which contains an air filled poly-ether-urethane (PEU) bladder. The water gets pumped in this tank that compresses it and pressurizes the bladder which in turn maintains a desired pressure within the whole water system. This automatic system requires no manual intervention and is built for low maintenance. As the entire home plumbing is kept under pressure by the system it is vital that good standards have been used in water piping and fixtures.

The Pressure Booster System consists of the following components:

• Water Holding Tank - this tank consists of an air filled bladder. The water enters this tank and compresses the air cell and pressurizes the air, which in turn pressurizes the water. This water is delivered to your water supply system under consistent pressure.


• A Pump - this pump supplies water to the Water Holding tank and to your water supply system. It is controlled through an automatic pressure controlled switching device.


• Pressure switch - the pump is electrically connected to the pressure switch, which controls the pressure at which water is delivered.

Features

• Automatic operation of the system, water under pressure whenever required.


• Pressure booster system will work in homes with and without the overhead tank. They can replace the overhead tank provided continuous power is available. The composite material (FRP) tank ensures that the vessel never corrodes and no harmful traces of metal (as in steel tanks) pass into your water.


• The tank is made of Food & Drug Administration (FDA) and National Sanitation Federation (NSF) listed materials, thus environmentally safe and will not introduce any undesirable chemicals or elements.
  
  

You need Pressure Booster System if

• Water trickles from your taps and showers


• You do not have an overhead tank


• All floors of your building do not get water with equal force
  
  

Benefits

• Consistent water pressure on all floors.


• Pressurized full flow shower, which you always wanted.


• Consistent water flow in bathtubs, dishwashers, showers and garden hose.


• The modern fittings like mixers require an optimum pressure to function efficiently. Since this pressure is normally not available with an overhead tank, the booster system makes the presence of such fittings more meaningful.


• Complete and efficient management of water pressure.

As the system is switched on, the pump which is connected to the raw water source, starts pumping water into the hydro-pneumatic booster tank. The pressurized water from the tank is pumped to your water supply system.

When the taps are closed in your supply system, pressure builds in the tank. As the pressure reaches the optimum level, the pump is shut off. When the taps are opened, you get pressurized water from the water holding tank. As the pressure reduces and reaches a certain undesired level, the pump is automatically started. The pressure controlled automatic pump switching device in the system frees you from the problem of switching the pump on and off again.

Hydrp pneumatic booster system is designed either with single or with multiple pumps to have continuous water pressure. Systems are also designed with Variable Frequency Drive Unit.

Various types of Pumps are used for pneumatic booster system depending upon application and use. Booster Tank is used to get smooth operation of the Pump allowing pump to work for minium 1/2 to 1 min.

Ion exchange is an exchange of ions between two electrolytes or between an electrolyte solution and a complex. In most cases the term is used to denote the processes of purification, separation, and decontamination of aqueous and other ion-containing solutions with solid polymeric or mineralic 'ion exchangers'.

Typical ion exchangers are ion exchange resins (functionalized porous or gel polymer), zeolites, montmorillonite, clay, and soil humus. Ion exchangers are either cation exchangers that exchange positively charged ions (cations) or anion exchangers that exchange negatively charged ions (anions). There are also amphoteric exchangers that are able to exchange both cations and anions simultaneously. However, the simultaneous exchange of cations and anions can be more efficiently performed in mixed beds that contain a mixture of anion and cation exchange resins, or passing the treated solution through several different ion exchange materials.

Ion exchangers can be unselective or have binding preferences for certain ions or classes of ions, depending on their chemical structure. This can be dependent on the size of the ions, their charge, or their structure. Typical examples of ions that can bind to ion exchangers are:

• H+ (proton) and OH- (hydroxide)?


• Single charged monoatomic ions like Na+, K+, or Cl-


• Double charged monoatomic ions like Ca2+ or Mg2+


• Polyatomic inorganic ions like SO42- or PO43-


• Organic bases, usually molecules containing the amino functional group -NR2H+


• Organic acids, often molecules containing -COO- (carboxylic acid) functional groups


• Biomolecules which can be ionized: amino acids, peptides, proteins, etc.

Ion exchange is widely used in the food & beverage, hydrometallurgical, metals finishing, chemical & petrochemical, pharmaceutical, sugar & sweeteners, ground & potable water, nuclear, softening & industrial water, semiconductor, power, and a host of other industries.

Most typical example of application is preparation of high purity water for power engineering, electronic and nuclear industries; i.e. polymeric or mineralic insoluble ion exchangers are widely used for water softening, water purification, waterdecontamination, etc.

Ion exchange is a method widely used in household (laundry detergents and water filters) to produce soft water. This is accomplished by exchanging calcium Ca2+ and magnesium Mg2+ cations against Na+ or H+ cations (see water softening).

Ion exchange resins in the form of thin membranes are used in chloralkali process, fuel cells and vanadium redox batteries. Ion exchange can also be used to remove hardness from water by exchanging calcium and magnesium ions for hydrogen and chlorine ions in an ion exchange column.