Unlike conventional showers that rely on high water flow, Kelda’s High-Efficiency Showers use a combination of air and water to create larger, high-impact droplets. This allows them to deliver a strong, full-coverage spray at low flow rates, reducing water, energy, and carbon without compromising performance.

Yes – Kelda showers are designed to be eco-friendly by significantly reducing water, energy, and carbon use.

Using Air-Powered™ technology, Keldas High-Efficiency Showers use as little as 4.5 litres per minute, compared to typical showers at 10–15 litres per minute. Because much of this water is heated, lower water use also means lower energy consumption.

Kelda showers can reduce water and energy use by up to 55%, helping to lower carbon emissions and household running costs without compromising performance.

Yes, water-saving showers can significantly reduce both water and energy bills, especially in homes with high hot water use. Technologies like Kelda’s Air-Powered™ High-Efficiency Showers maintain strong performance while lowering demand, making them effective without requiring changes in user behaviour.

Many low-flow showers can feel weak, but Kelda High-Efficiency Shower Panels are designed differently. By using air to increase droplet size and impact, they deliver a powerful and immersive experience even at flow rates as low as 4–5 litres per minute.

Standard aerated showers simply mix air with water to reduce flow, which can reduce pressure. Kelda’s Air-Powered™ technology uses high-velocity air to accelerate water droplets, increasing their size and impact for a stronger, more effective spray.

Kelda’s High-Efficiency Showers reduce the amount of hot water used, which directly lowers the energy required to heat it. This can reduce water, energy, and carbon emissions by up to 55%, or more when combined with systems like heat pumps and waste water heat recovery – saving households of 4 an average of £400 a year.

Yes, Kelda’s High-Efficiency Showers reduce hot water demand, which helps heat pumps operate more efficiently. Lower demand can also support smaller system sizing and improved overall performance in low-carbon homes.