Wastewater from domestic bathrooms, laundries, and kitchen outlets is called grey water. Statistics says that around 30 to 50 percent of the wastewater discharged to the sewer is contributed by grey water. Therefore, by recycling it, we can significantly reduce the load on the infrastructure. With ENVIRO Grey water treatment Plant, you achieve excellent efficiency and productivity by recycling wastewater. Typically, grey water may be contaminated with a wide range of insoluble and soluble substances such as detergent, dirt, lint, human hair, saliva, skin and other impurities. Whether it is an organic contaminant or inorganic, particulate or microbial, and surfactant or detergent; appropriate grey water recycling systems can help get the desired water quality. It is to be noted that treating grey water becomes quite difficult when it gets mixed with the black water (wastewater from toilets), then it becomes greatly difficult to clean because the contamination levels go pretty high. We are the finest grey water treatment plant suppliers in town who simply aim to improve the quality of drinking water in your space. ENVIRO grey water filtration system should be installed in every household and commercial establishment so that there is a less burden on the public sewerage systems. It enhances the efficiency of municipal systems and ensures improved public health.

A swimming pool heat pump is a device used to efficiently heat pool water by transferring heat from the surrounding air to the pool water. It operates on the principle of heat exchange, making it a cost-effective and environmentally friendly way to maintain a comfortable swimming temperature. How It Works: Air Intake: The heat pump draws in ambient air through a fan. Heat Absorption: The air passes over an evaporator coil containing a refrigerant. This refrigerant absorbs the heat from the air and turns into a gas. Compression: The warm gas is compressed by a compressor, increasing its temperature significantly. Heat Transfer: The hot gas passes through a heat exchanger where it transfers its heat to the pool water. Recycling: The refrigerant cools down, returns to liquid form, and the cycle repeats. Features: Energy Efficiency: Heat pumps use electricity to operate but rely on extracting heat from the air, making them more energy-efficient than traditional electric or gas heaters. Temperature Control: They typically come with thermostats for precise temperature adjustments. Durability: Designed to withstand outdoor conditions and prolonged use. Eco-Friendly: Lower carbon footprint compared to fossil fuel-based heaters. Advantages: Lower Operating Costs: Despite the initial investment, they save money in the long run due to lower energy consumption. Consistent Heating: They provide steady and reliable heating, especially in moderate climates. Longevity: Can last for 10–20 years with proper maintenance. Disadvantages: Dependent on Air Temperature: Their efficiency decreases in very cold weather since they rely on heat from the air. Slower Heating: It takes longer to heat the pool compared to gas heaters. Ideal Use: A swimming pool heat pump is best suited for regions with mild to warm climates where outdoor temperatures remain above 50°F (10°C). It's an excellent choice for residential and commercial pools, offering an economical way to extend the swimming season.

RO+HOT Water dispenser 25 LPH RO is designed for efficiency and convenience, delivering purified water at a capacity of 25 liters per hour. Its ideal for home or office use, ensuring easy access to both purified and hot water whenever needed. It is available with202 SS and 304 SS. 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.

The Booster Pump System is a robust and efficient solution designed to enhance water pressure and flow in residential, commercial, and industrial applications. Engineered for reliability and performance, this system is ideal for ensuring consistent water supply in areas with low or fluctuating pressure. Key Features: High Performance: Equipped with a powerful motor and advanced impeller design, the booster pump delivers optimal pressure and flow rates, meeting the demands of various water delivery systems. Durability: Constructed with corrosion-resistant materials such as stainless steel and cast iron, ensuring a long service life even in challenging environments. Energy Efficiency: Features advanced energy-saving technology, reducing power consumption without compromising performance. User-Friendly Design: Compact and easy to install, the system includes intuitive controls and a digital interface for monitoring pressure and flow settings. Quiet Operation: Operates with minimal noise, making it suitable for indoor and residential use. Versatility: Compatible with municipal water supplies, wells, rainwater tanks, and irrigation systems. Applications: Residential water supply for homes and apartments Commercial buildings such as hotels, schools, and offices Industrial processes requiring consistent water pressure Agricultural irrigation systems Specifications: Flow Rate: Up to [XXX] gallons per minute Maximum Pressure: [XXX] PSI Voltage: Available in 110V/220V options Material: Stainless steel/cast iron housing Warranty: [XXX]-year limited warranty The Booster Pump System is the perfect choice for anyone looking to upgrade their water delivery system with a reliable, high-performance solution. Whether you need consistent pressure for your home or a dependable supply for commercial or industrial applications, this system offers unmatched quality and efficiency.

Structured water is important to agriculture because it has the same energy and vitality as rainwater. Simple water vortex energizing devices attached to your irrigation system restore water’s negative charge making it more bioavailable to plants and soil microbes. With better water efficiency plant health improves and water bills are reduced. Farmers love structured water because the energy they seek for their crops is now available through their pivot instead of waiting for rain.

Energized or structured water in agriculture is powered by the efficiency of nature. It is bioavailable and easily assimilated. Field moisture sensor data reveals crops watered with structured water pivot irrigation systems have reduced water consumption of at least 10% and as much as 30%. Less water and less pumping mean lower bills and greater profits. Structured water also has a descaling effect. While the results of this will be proven in the coming decades as structured water irrigation systems meet the test of time, we can all agree less mineral build-up supports equipment longevity. Our 2019 field results show a 32% reduction of water and higher product quality.