Infinite Focus Microscope (IFM): Microbiologically influenced corrosion (MIC) behavior on mild steel by Pseudomonas aeruginosa

M. Mahat, Ahmad Hisham Mohamed Aris, U. S. Jais, M. Yahya, R. Ramli
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引用次数: 1

Abstract

This study investigates the coosion behavior of mild steel immersed in artificial seawater based medium in the presence and absence of bacteria Pseudcmonas aerugnosa. The bacterium was chosen because of its abundance in the seawater and meet metals are inclined to be attacked by this bacterium. Pitting ccrrcsicnen the mild steel coupon as a result of the bacteria attack was investigated. A set of mild steel coupon sample was immersed in sterile artificial seawater while another set was immesed in bacteia inoculated artificial seawater for 12 days The samples were viewed under Infinite Focus Microscope to obtain information on the biofilm surface and thickness and dimension of the pits It was found that biofilm with thickness of 37μm was formed on the mild steel surface after 12 days of immersion in bacteria inoculated medium This finding suggested that Ml C had taken place The existence of pitting corrosion on mild steel coupon immersed in bacteria inoculated medium was attributed to the concentration cells originating from the heterogeneous surface of biofilm, while the absence of pitting corrosion on mild steel coupon exposed to sterile medium further proved that heterogeneous biofilm is a crucial factor for the initiation of pitting corrosion.
无限聚焦显微镜(IFM):铜绿假单胞菌对低碳钢的微生物影响腐蚀(MIC)行为
本文研究了在铜绿假单胞菌存在和不存在的情况下,低碳钢在人工海水介质中的凝固行为。之所以选择这种细菌,是因为它在海水中含量丰富,金属容易被这种细菌攻击。研究了细菌侵染对低碳钢钢板的点蚀作用。一组低碳钢优惠券样本沉浸在无菌人工海水而另一组在人工海水细菌接种immesed 12天样本无限聚焦显微镜下看获取信息在生物膜表面和厚度和尺寸的坑发现生物膜厚度的37μm成立在低碳钢表面经过12天的沉浸在细菌接种介质这一发现表明,毫升C发生了浸渍在细菌接种培养基中的低碳钢试样出现点蚀的原因是源于生物膜非均质表面的浓聚细胞,而浸渍在无菌培养基中的低钢试样未出现点蚀,进一步证明非均质生物膜是引发点蚀的关键因素。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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