ETC Membrane (Carbon Dioxide (CO2) Removal Membrane)

Product Overview

We are Making and Supplying ETC Membrane (Carbon Dioxide (CO2) Removal Membrane) in Xiamen, Fujian, China. ETC membrane is used to remove dissolved carbon dioxide in water. Product water carbon dioxide content can be decreased to 0.5ppm. membrane contactor is a kind of special hydrophobic hollow fiber array made of polymer material. Then the array is spiral-wounded onto a water distribution tube, and then the tube is installed into a housing (at the same time, a baffler is formulated inside the housing). Hollow fiber a Knitted fiber (under microscope) a Knitted fiber (naked eyes) a End surface Structure of membrane contactor: Features of membrane contactor: 1) Hollow fibers are knitted into an array, so that a certain space can be kept between these fibers. In this way, thousands of fibers are connected as a whole array which can resist strong water flow and will not break. Besides, the mass transfer efficiency can be improved in the array structure. 2) High fiber density makes it possible of ultimate gas removal from water; 3) Central tube water distribution + Middle baffler structure, change the water flow direction to flush vertically towards hollow fibers, which can improve the mass transfer efficiency between shell side and lumen side.

Product Description

We are Making and Supplying ETC Membrane (Carbon Dioxide (CO2) Removal Membrane) in Xiamen, Fujian, China. ETC membrane is used to remove dissolved carbon dioxide in water. Product water carbon dioxide content can be decreased to 0.5ppm. membrane contactor is a kind of special hydrophobic hollow fiber array made of polymer material. Then the array is spiral-wounded onto a water distribution tube, and then the tube is installed into a housing (at the same time, a baffler is formulated inside the housing). Hollow fiber a Knitted fiber (under microscope) a Knitted fiber (naked eyes) a End surface Structure of membrane contactor: Features of membrane contactor: 1) Hollow fibers are knitted into an array, so that a certain space can be kept between these fibers. In this way, thousands of fibers are connected as a whole array which can resist strong water flow and will not break. Besides, the mass transfer efficiency can be improved in the array structure. 2) High fiber density makes it possible of ultimate gas removal from water; 3) Central tube water distribution + Middle baffler structure, change the water flow direction to flush vertically towards hollow fibers, which can improve the mass transfer efficiency between shell side and lumen side.