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Biography

Prof. Mauro Santos has completed his PhD at the age of 29 years from São Paulo University – São Paulo – Brazil and postdoctoral studies from Federal University of São Carlos – São Paulo - Brazil. He is the Coordinator of the Laboratory of Electrochemistry and Nanostructured Materials of ABC Federal University – Brazil. He has published more than 86 papers in reputed journals and has been serving as an editorial member of Electrocatalysis. Editor of a Special Number of Journal of Nanomaterials (2012). Academic Excellence Prize of Federal University of ABC (2015) – Area – Chemistry. 1,300 citations in ISI and H Index 23.

Abstract

This work describes the use of both carbon modified with nanostrucutres (nanoparticles, nanowires and nanospheres) containing metal and metals oxides and boron doped diamond electrodes in order to degradation of cyprofloxacine, fenol, dypirone, blue – evans dye. The main materials prepared are related to: carbon materials modified with fuctional groups by acidic and alkaline treatment and nanomarials modifying carbon support. The effects of increasing H2O2 electrogeneration are associated to the surface properties of the two materials which are completely different from those ones of pure carbon for further production of hydroxil radicals. For this reason, we have been developing changes of the carbon materials with acidic and alkaline treatment and using nanostructures of different oxides and metals with very small amounts on carbon and base materials for H2O2 electrogeneration. The main surface chemistry phenomena of this work is to discuss the modification of the carbon properties such as hidrophilicity, conductivity, structure and compostion of the surface species when we use both different carbon treatments and different proportions of nanostructures with several oxides and metals on carbon. In the case of the use of Boron-Doped Diamond Surfaces using Solar Photo-Electron-Fenton Processes as in the case of cyprofloxacione in synthetic urine. At the later case we are capable to promote the electrochemical incineration of the molecule yielding 96 % ciprofloxacin removal and 98 % mineralization after 360 min of electrolysis at optimum values of pH 3.0 and current density of 66.6 mA cm−2. The evolution of released inorganic ions was followed by ion chromatography.