材料选择和微流体在微生物燃料电池优化能量转换中的作用

G. Massaglia, M. Quaglio
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引用次数: 2

摘要

本章书的目的是提出一些关键方面,这对优化微生物燃料电池(mfc)中发生的能量转换过程起着至关重要的作用:流体动力学和材料选择作为阳极电极。mfc是一种(生物)电化学装置,可以直接将化学能转化为电能,这要归功于一些细菌的代谢活动。在阳极室中,这些被称为外电菌的细菌能够氧化有机物,直接将电子释放到阳极表面。转化过程会受到包含碳能量源的电解质溶液在装置内部移动的方式的深刻影响。因此,流体动力学建模是解释流体流动与功率输出之间相关性的重要工具,也可以优化整体MFC性能。此外,阳极电极的形态对保证和促进细菌在其上的增殖,提高能量转化率至关重要。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
The Role of Material Selection and Microfluidics for Optimized Energy Conversion in Microbial Fuel Cells
This chapter book aims to present some key aspects, which play a crucial role to optimize the energy conversion process occurring in microbial fuel cells (MFCs): fluid dynamics and the materials selected as anodic electrodes. MFCs are (bio)-electrochemical devices that directly convert chemical energy into electrical energy, thanks to the metabolic activity of some bacteria. In the anodic compartment, these bacteria, named exoelectrogens, are able to oxidize the organic matter, directly releasing the electrons to the anode surface. The conversion process can be deeply influenced by how the electrolyte solution, containing the carbon-energy source, moves inside the device. For this reason, fluid dynamic modeling is an important tool to explain the correlation between the fluid flow and power output production, optimizing also the overall MFC performance. Moreover, the morphology of anode electrodes results to be essential to guarantee and enhance the bacteria proliferation on them, improving the energy conversion.
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