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Membrane processes are of increased interest in water and wastewater treatment, food, biotechnological, chemical, and pharmaceutical industries, because of their versatility and effectiveness. However, a common problem encountered during the application of membrane filtration is membrane fouling. Membrane fouling results in increased operating costs due to the higher pressures required to maintain permeate flux, the time and materials needed for membrane cleaning, and membrane replacement. This study systematically investigated the mechanism and efficiency of an innovative ultrasonic technique…mehr

Produktbeschreibung
Membrane processes are of increased interest in water and wastewater treatment, food, biotechnological, chemical, and pharmaceutical industries, because of their versatility and effectiveness. However, a common problem encountered during the application of membrane filtration is membrane fouling. Membrane fouling results in increased operating costs due to the higher pressures required to maintain permeate flux, the time and materials needed for membrane cleaning, and membrane replacement. This study systematically investigated the mechanism and efficiency of an innovative ultrasonic technique to control ceramic membrane fouling caused by silica particles and dissolved organic matter. It was found that ultrasound reduced membrane fouling significantly. Based on the mechanistic understanding of the sono-physical and sono-chemical effects of ultrasound, the technical guidelines were proposed to optimize the ultrasonic efficiency to improve the performance of membrane filtration. This study should be especially useful to professionals in water and wastewater treatment, membrane manufactures, or anyone else who may be interested in utilizing ultrasound in engineering processes.
Autorenporträt
Assistant Professor, Department of Engineering, Indiana University-Purdue University, Fort Wayne, IN 46805. Ph.D. in Civil Engineering, The Ohio State University, Columbus, Ohio, 2005. Registered Professional Engineer in Ohio. Active Research Areas: membrane filtration; sonochemistry; natural organic matters; and photooxidation.