Abstract
With the increasing consumption of fossil energy, more and more refractory pollutants are released into the environment. Using eco-friendly ways to treat the pollutants and gain energy is urgently needed. By using microbial fuel cells (MFCs), contaminant degradation and energy recovery can be achieved simultaneously but limited by the finite kinds of degradation of pollutants and the low power production efficiency. To promote the energy productivity and pollutant degradation ability, some researchers are focused on introducing solar energy into the system. Some semiconductors can absorb solar energy and convert it into electricity. Meanwhile, the typical structure of the photo-excited semiconductor can improve the performance of contaminant removal. Another ideal energy convention way is the photosynthesis. Some researchers use aquatic microalgae to harness the solar energy and then release the energy by MFC. In addition to producing oxygen and capturing CO2 and other nutrient, the microalga is a promising combination material. The coupling system of MFC and one of semiconductors or microalgae can be seen as microbial-photo-electro-chemical cell (MPEC) systems. The development background and research advances on MPECs are briefly introduced in this chapter. The existing coupling forms of the technology are classified, and the coupling mechanisms of various forms are explained in detail. Finally, the future development of this coupling technology is prospected.
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Wang, SS., Sharif, H.M.A., Cheng, HY., Wang, AJ. (2019). Bioelectrochemical System Integrated with Photocatalysis: Principle and Prospect in Wastewater Treatment. In: Wang, AJ., Liang, B., Li, ZL., Cheng, HY. (eds) Bioelectrochemistry Stimulated Environmental Remediation. Springer, Singapore. https://doi.org/10.1007/978-981-10-8542-0_9
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