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采用棒状和粒状石墨电极的间歇式和连续流微生物燃料电池中苯酚的生物降解

Biodegradation of phenol in batch and continuous flow microbial fuel cells with rod and granular graphite electrodes.

作者信息

Moreno Lyman, Nemati Mehdi, Predicala Bernardo

机构信息

a Department of Chemical and Biological Engineering , University of Saskatchewan , Saskatoon , Canada.

b Prairie Swine Centre Inc. , Saskatoon , Canada.

出版信息

Environ Technol. 2018 Jan;39(2):144-156. doi: 10.1080/09593330.2017.1296895. Epub 2017 Mar 3.

DOI:10.1080/09593330.2017.1296895
PMID:28278769
Abstract

Phenol biodegradation was evaluated in batch and continuous flow microbial fuel cells (MFCs). In batch-operated MFCs, biodegradation of 100-1000 mg L phenol was four to six times faster when graphite granules were used instead of rods (3.5-4.8 mg L h vs 0.5-0.9 mg L h). Similarly maximum phenol biodegradation rates in continuous MFCs with granular and single-rod electrodes were 11.5 and 0.8 mg L h, respectively. This superior performance was also evident in terms of electrochemical outputs, whereby continuous flow MFCs with granular graphite electrodes achieved maximum current and power densities (3444.4 mA m and 777.8 mW m) that were markedly higher than those with single-rod electrodes (37.3 mA m and 0.8 mW m). Addition of neutral red enhanced the electrochemical outputs to 5714.3 mA m and 1428.6 mW m. Using the data generated in the continuous flow MFC, biokinetic parameters including μ, K, Y and K were determined as 0.03 h, 24.2 mg L, 0.25 mg cell (mg phenol) and 3.7 × 10 h, respectively. Access to detailed kinetic information generated in MFC environmental conditions is critical in the design, operation and control of large-scale treatment systems utilizing MFC technology.

摘要

在间歇式和连续流微生物燃料电池(MFC)中对苯酚的生物降解进行了评估。在间歇运行的MFC中,当使用石墨颗粒而非石墨棒时,100 - 1000 mg/L苯酚的生物降解速度快4至6倍(分别为3.5 - 4.8 mg/(L·h)和0.5 - 0.9 mg/(L·h))。同样,在带有颗粒电极和单棒电极的连续MFC中,最大苯酚生物降解速率分别为11.5 mg/(L·h)和0.8 mg/(L·h)。这种卓越性能在电化学输出方面也很明显,带有颗粒石墨电极的连续流MFC实现了最大电流密度和功率密度(分别为3444.4 mA/m²和777.8 mW/m²),显著高于带有单棒电极的MFC(分别为37.3 mA/m²和0.8 mW/m²)。添加中性红将电化学输出提高到5714.3 mA/m²和1428.6 mW/m²。利用连续流MFC中产生的数据,确定了包括μ、K、Y和Kd在内的生物动力学参数分别为0.03 h⁻¹、24.2 mg/L、0.25 mg细胞/(mg苯酚)和3.7×10⁻⁴ h⁻¹。获取在MFC环境条件下产生的详细动力学信息对于利用MFC技术的大规模处理系统的设计、运行和控制至关重要。

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