In the Disc membranes based Reverse osmosis and Nanofiltration, HYDRO is the most advanced technology available today. HYDRO is made based on years of research and understanding of the effluent behaviour and suited perfectly to overcome the challenges faced in wastewater recycling.

HYDRO Module can handle a wide range of chemical, biological, suspended, and dissolved impurities from the feed water and produce high-quality product water with consistent performance. By offering a superior fluid-dynamic with unrestricted open channel flow and specialized membrane chemistry, HYDRO can deliver consistent performance on challenging feed conditions.

The HYDRO Module is provided with NONAGON Membrane cushions and HYDRGON Disc. Membrane cushions are placed between two HYDROGON disc. A module consists of many membrane cushions and disc packed in annular pattern to provide more filtration area per module. The stack of NONAGON membrane cushions and HYDROGON disc is inserted in tie rod and end flanges is provided both sides for distribution and collection of the feed. The entire stack is fitted into a pressure vessel and the tie rod is positioned with central axis so that it can assembled and de assembled very easily.

Applying the most advanced membrane chemistry of low fouling and near neutrally charged membranes sheets with a high-velocity design, NONAGON membrane cushions are known for their high performances, consistent flux, superior cleaning behaviour and long life. The NONAGON membrane cushions are made of low fouling composite material with advanced ultrasonic welding technology.

Our various years of research and on-site studies resulted in the design of the most suitable Hydraulic disc. HYDROGON disc provides the highest flow form with adequate Reynold number to achieve a fast surface flow rate and the necessary turbulence effect required to control the deposition and membrane fouling and scaling. The special design of the HYDRGON disc ensures open feed flow channel with short feed flow path and provides cleaning effect in the membrane surface with a minimum concentration polarisation.