water cooler attached with stainless steel body. Additional filter is equipped with this device to arrest the dust particles present in the water. Auto cut-off switch is available in this body. Separate storage tank available for normal and cold water Terms and conditions Warranty 1 year Service issues will be solved within 24 hrs (As per report) Installation – As per site condition within 24 Hours Installation Type – Standard installation free Transport Extra Delivery period – maximum 3 to 7 days(Across India), Return and refund policy – Refer website link

RO+Cold Water Dispenser 12 LPH RO attached with stainless steel body. Additional filter is equipped with this device to arrest the dust particles present in the water. Auto cut-off switch is available in this body. RO machine can also attached with this dispenser as inbuild. Terms and conditions Warranty 1 year Service issues will be solved within 24 hrs (As per report) Installation – As per site condition within 24 Hours Installation Type – Standard installation free Transport Extra Delivery period – maximum 3 to 7 days(Across India), Return and refund policy – Refer website link

An Air Source Heat Pump (ASHP) is an energy-efficient system that transfers heat from the outside air to either heat or cool indoor spaces. It operates on the principle of thermodynamics, using electricity to power a refrigerant cycle that absorbs heat from the air (even in cold temperatures) and transfers it into a building. Key Components Outdoor Unit: Contains a fan, evaporator coil, and compressor to absorb heat from the air. Indoor Unit: Distributes the heat into the building, often through ductwork or a fan coil. Refrigerant: Circulates between the outdoor and indoor units to transfer heat. Expansion Valve: Regulates refrigerant pressure for efficient operation. How It Works Heating Mode: The refrigerant absorbs heat from the outdoor air. The compressor increases the temperature and pressure of the refrigerant. Heat is released indoors via the condenser coil. Cooling Mode (Reversible Heat Pumps): The cycle is reversed, absorbing heat from inside the building and releasing it outdoors. Advantages Energy Efficiency: Provides more energy output compared to the electricity it consumes, often achieving efficiencies of 300% or higher. Lower Carbon Footprint: Reduces reliance on fossil fuels when powered by renewable electricity. Versatility: Can be used for heating, cooling, and sometimes water heating. Year-Round Operation: Works in a wide range of climates, though efficiency may decrease in extremely cold temperatures. Disadvantages Initial Cost: Higher upfront installation costs compared to traditional heating systems. Performance in Cold Climates: May require a supplemental heating source in extreme cold. Space Requirements: Needs an outdoor unit with good airflow. Applications Residential, commercial, and industrial heating and cooling. Often integrated with solar panels for further energy savings. ASHPs are a popular choice for eco-friendly heating and cooling, especially as part of efforts to reduce carbon emissions and reliance on fossil fuels.

An Air Source Heat Pump (ASHP) is an energy-efficient system that transfers heat from the outside air to either heat or cool indoor spaces. It operates on the principle of thermodynamics, using electricity to power a refrigerant cycle that absorbs heat from the air (even in cold temperatures) and transfers it into a building. Key Components Outdoor Unit: Contains a fan, evaporator coil, and compressor to absorb heat from the air. Indoor Unit: Distributes the heat into the building, often through ductwork or a fan coil. Refrigerant: Circulates between the outdoor and indoor units to transfer heat. Expansion Valve: Regulates refrigerant pressure for efficient operation. How It Works Heating Mode: The refrigerant absorbs heat from the outdoor air. The compressor increases the temperature and pressure of the refrigerant. Heat is released indoors via the condenser coil. Cooling Mode (Reversible Heat Pumps): The cycle is reversed, absorbing heat from inside the building and releasing it outdoors. Advantages Energy Efficiency: Provides more energy output compared to the electricity it consumes, often achieving efficiencies of 300% or higher. Lower Carbon Footprint: Reduces reliance on fossil fuels when powered by renewable electricity. Versatility: Can be used for heating, cooling, and sometimes water heating. Year-Round Operation: Works in a wide range of climates, though efficiency may decrease in extremely cold temperatures. Disadvantages Initial Cost: Higher upfront installation costs compared to traditional heating systems. Performance in Cold Climates: May require a supplemental heating source in extreme cold. Space Requirements: Needs an outdoor unit with good airflow. Applications Residential, commercial, and industrial heating and cooling. Often integrated with solar panels for further energy savings. ASHPs are a popular choice for eco-friendly heating and cooling, especially as part of efforts to reduce carbon emissions and reliance on fossil fuels.

An Air Source Heat Pump (ASHP) is an energy-efficient system that transfers heat from the outside air to either heat or cool indoor spaces. It operates on the principle of thermodynamics, using electricity to power a refrigerant cycle that absorbs heat from the air (even in cold temperatures) and transfers it into a building. Key Components Outdoor Unit: Contains a fan, evaporator coil, and compressor to absorb heat from the air. Indoor Unit: Distributes the heat into the building, often through ductwork or a fan coil. Refrigerant: Circulates between the outdoor and indoor units to transfer heat. Expansion Valve: Regulates refrigerant pressure for efficient operation. How It Works Heating Mode: The refrigerant absorbs heat from the outdoor air. The compressor increases the temperature and pressure of the refrigerant. Heat is released indoors via the condenser coil. Cooling Mode (Reversible Heat Pumps): The cycle is reversed, absorbing heat from inside the building and releasing it outdoors. Advantages Energy Efficiency: Provides more energy output compared to the electricity it consumes, often achieving efficiencies of 300% or higher. Lower Carbon Footprint: Reduces reliance on fossil fuels when powered by renewable electricity. Versatility: Can be used for heating, cooling, and sometimes water heating. Year-Round Operation: Works in a wide range of climates, though efficiency may decrease in extremely cold temperatures. Disadvantages Initial Cost: Higher upfront installation costs compared to traditional heating systems. Performance in Cold Climates: May require a supplemental heating source in extreme cold. Space Requirements: Needs an outdoor unit with good airflow. Applications Residential, commercial, and industrial heating and cooling. Often integrated with solar panels for further energy savings. ASHPs are a popular choice for eco-friendly heating and cooling, especially as part of efforts to reduce carbon emissions and reliance on fossil fuels.

Enviro structured water units are fully automatic water conditioning devices that have no moving parts & require minimum maintenance. These units reduce the scaling properties of water and reduce salt deposits in pipelines and plumbing systems. These devices do not need filters or replacement parts. They have numerous benefits when used in a residence, apartments & individual flats. A Natural Solution to Tough Water Scaling Getting rid of water scaling is a challenge. The dissolved calcium and magnesium in the hard water add additional efforts to household cleaning. Enviro structured water units are natural water conditioners that help in preventing water scaling from happening in the first place. Passing hard water through these devices reduces its scale forming properties and prevents spots on dishes, glasses, and surfaces.

Ultrafiltration (UF) is a membrane filtration process similar to Reverse Osmosis, using hydrostatic pressure to force water through a semi-permeable membrane. The pore size of the ultrafiltration membrane is usually 103 - 106 Daltons. Ultrafiltration (UF) is a pressure-driven barrier to suspended solids, bacteria, viruses, endotoxins and other pathogens to produce water with very high purity and low silt density. Ultrafiltration (UF) is a variety of membrane filtration in which hydrostatic pressure forces a liquid against a semi permeable membrane. Suspended solids and solutes of high molecular weight are retained, while water and low molecular weight solutes pass through the membrane. Ultrafiltration is not fundamentally different from reverse osmosis, microfiltration or nanofiltration, except in terms of the size of the molecules it retains. A membrane or, more properly, a semi permeable membrane, is a thin layer of material capable of separating substances when a driving force is applied across the membrane. Once considered a viable technology only for desalination, membrane processes are increasingly employed for removal of bacteria and other microorganisms, particulate material, and natural organic material, which can impart color, tastes, and odors to the water and react with disinfectants to form disinfection byproducts (DBP). As advancements are made in membrane production and module design, capital and operating costs continue to decline. The pressure-driven membrane processes discussed in this fact sheet are microfiltration (MF), ultrafiltration (UF), nanofiltration (NF), and reverse osmosis (RO).

Ultrafiltration (UF) is a membrane filtration process similar to Reverse Osmosis, using hydrostatic pressure to force water through a semi-permeable membrane. The pore size of the ultrafiltration membrane is usually 103 - 106 Daltons. Ultrafiltration (UF) is a pressure-driven barrier to suspended solids, bacteria, viruses, endotoxins and other pathogens to produce water with very high purity and low silt density. Ultrafiltration (UF) is a variety of membrane filtration in which hydrostatic pressure forces a liquid against a semi permeable membrane. Suspended solids and solutes of high molecular weight are retained, while water and low molecular weight solutes pass through the membrane. Ultrafiltration is not fundamentally different from reverse osmosis, microfiltration or nanofiltration, except in terms of the size of the molecules it retains. A membrane or, more properly, a semi permeable membrane, is a thin layer of material capable of separating substances when a driving force is applied across the membrane. Once considered a viable technology only for desalination, membrane processes are increasingly employed for removal of bacteria and other microorganisms, particulate material, and natural organic material, which can impart color, tastes, and odors to the water and react with disinfectants to form disinfection byproducts (DBP). As advancements are made in membrane production and module design, capital and operating costs continue to decline. The pressure-driven membrane processes discussed in this fact sheet are microfiltration (MF), ultrafiltration (UF), nanofiltration (NF), and reverse osmosis (RO).

Ultrafiltration (UF) is a membrane filtration process similar to Reverse Osmosis, using hydrostatic pressure to force water through a semi-permeable membrane. The pore size of the ultrafiltration membrane is usually 103 - 106 Daltons. Ultrafiltration (UF) is a pressure-driven barrier to suspended solids, bacteria, viruses, endotoxins and other pathogens to produce water with very high purity and low silt density. Ultrafiltration (UF) is a variety of membrane filtration in which hydrostatic pressure forces a liquid against a semi permeable membrane. Suspended solids and solutes of high molecular weight are retained, while water and low molecular weight solutes pass through the membrane. Ultrafiltration is not fundamentally different from reverse osmosis, microfiltration or nanofiltration, except in terms of the size of the molecules it retains. A membrane or, more properly, a semi permeable membrane, is a thin layer of material capable of separating substances when a driving force is applied across the membrane. Once considered a viable technology only for desalination, membrane processes are increasingly employed for removal of bacteria and other microorganisms, particulate material, and natural organic material, which can impart color, tastes, and odors to the water and react with disinfectants to form disinfection byproducts (DBP). As advancements are made in membrane production and module design, capital and operating costs continue to decline. The pressure-driven membrane processes discussed in this fact sheet are microfiltration (MF), ultrafiltration (UF), nanofiltration (NF), and reverse osmosis (RO).