“…The rate of electrophoretic deposition depends primarily on the charges on the particles, the electrophoretic mobility of the particles in the solvent, and the applied electric field. The EPD technique has been used successfully in biomedical applications [20,21], luminescent materials [22][23][24], gas diffusion electrodes [25], oxidation resistant coatings [26], multi-layer composites [27], oxide nanorods [28], carbon nanotube films [29], functionally graded ceramics [30,31], layered ceramics [32], superconductors [33], piezoelectric materials [34], thick film of silica [35], and nano-size zeolite membranes [36]. Considering these vast fields of application, the EPD technique is being recognized to hold a great potential for economic fabrication of thin, dense electrolyte as well as porous electrodes for SOFC applications.…”