@article { ISI:000407540400094,
	title = {Electrochemical Approach for Effective Antifouling and Antimicrobial Surfaces},
	journal = {ACS APPLIED MATERIALS \& INTERFACES},
	volume = {9},
	number = {31},
	year = {2017},
	month = {AUG 9},
	pages = {26503-26509},
	abstract = {Biofouling, the adsorption of organisms to a surface, is a major problem today in many areas of our lives. This includes: (i) health, as biofouling on medical device leads to hospital-acquired infections, (ii) water, since the accumulation of organisms on membranes and pipes in desalination systems harms the function of the system, and (iii) energy, due to the heavy load of the organic layer that accumulates on marine vessels and causes a larger consumption of fuel. This paper presents an effective electrochemical approach for generating antifouling and antimicrobial surfaces. Distinct from previously reported antifouling or antimicrobial electrochemical studies, we demonstrate the formation of a hydrogen gas bubble layer through the application of a low-voltage square waveform pulses to the conductive surface. This electrochemically generated gas bubble layer serves as a separation barrier between the surroundings and the target surface where the adhesion of bacteria can be deterred. Our results indicate that this barrier could effectively reduce the adsorption of bacteria to the surface by 99.5\%. We propose that the antimicrobial mechanism correlates with the fundamental of hydrogen evolution reaction (HER). HER leads to an arid environment that does not allow the existence of live bacteria. In addition, we show that this drought condition kills the preadhered bacteria on the surface due to water stress. This work serves as the basis for the exploration of future self-sustainable antifouling techniques such as incorporating it with photocatalytic and photoelectrochemical reactions.},
	issn = {1944-8244},
	doi = {10.1021/acsami.7b03761},
	author = {Gaw, Sheng Long and Sarkar, Sujoy and Nir, Sivan and Schnell, Yafit and Mandler, Daniel and Xu, Zhichuan J. and Lee, Pooi See and Reches, Meital}
}
