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较为显著（P <0.05）；随着试验时间的延长（30 ～105 Characterization of the internal resistance of a plant microbial
d），阳极未加入颗粒活性炭 的 CW-MF 耦合系统的 fuel cell[J]. Electrochimica Acta，2012，72：165-171.
C
［11］ 王海燕, 赵远哲, 王文富, 等.人工湿地脱氮影响因素及强化措
氨氮和总氮去除效果优于阳极加入颗粒活性炭的
施研究进展[J]. 环境工程技术学报，2020，10（4）：585-597.
CW-MF 耦合系统。
C
WANG H Y, ZHAO Y Z, WANG W F, et al. A review of
(3) 阳极颗粒活性炭的加入 对 CW-MF 耦合系 influencing factors and enhanced measures for nitrogen removal
C
统阳极的微生物群落组成影响较小，但却造成阴极 of constructed wetlands[J]. Journal of Environmental Engineering
微生物群落产生较大差异。未加入颗粒活性炭的 Technology，2020，10（4）：585-597.
CW-MF 耦合系统阴极的主要脱氮功能菌群为巨大 ［12］ LI H F, LIU F, LUO P, et al. Stimulation of optimized influent C: N
C
芽殖杆菌属、地杆菌属、黄杆菌属、不动杆菌属和脱 ratios on nitrogen removal in surface flow constructed wetlands:
performance and microbial mechanisms[J]. Science of the Total
氯单胞菌属等，而加入颗粒活性碳 的 CW-MF 耦合
C
Environment，2019，694：133575.
系统则为未分类蓝细菌、硫杆菌属、假单胞菌属和 ［13］ ODEDISHEMI AJIBADE F, WANG H C, GUADIE A, et al.
硝化螺菌属。 Total nitrogen removal in biochar amended non-aerated vertical
flow constructed wetlands for secondary wastewater effluent with
参考文献 low C/N ratio: microbial community structure and dissolved
organic carbon release conditions[J]. Bioresource Technology，
［ 1 ］ LOGAN B E, RABAEY K. Conversion of wastes into
2021，322：124430.
bioelectricity and chemicals by using microbial electrochemical
［14］ JADHAV G S, GHANGREKAR M M. Performance of microbial
technologies[J]. Science，2012，337（6095）：686-690.
［ 2 ］ KUMAR G G, SARATHI V G S, NAHM K S. Recent advances fuel cell subjected to variation in pH, temperature, external load
and substrate concentration[J]. Bioresource Technology，2009，
and challenges in the anode architecture and their modifications
100（2）：717-723.
for the applications of microbial fuel cells[J]. Biosensors and
［15］ XU L, ZHAO Y Q, WANG X D, et al. Applying multiple bio-
Bioelectronics，2013，43：461-475.
［ 3 ］ LEOPOLD HEYDORN R, ENGEL C, KRULL R, et al. cathodes in constructed wetland-microbial fuel cell for promoting
Strategies for the targeted improvement of anodic electron energy production and bioelectrical derived nitrification-
transfer in microbial fuel cells[J]. ChemBioEng Reviews，2020， denitrification process[J]. Chemical Engineering Journal，2018，
7（1）：4-17. 344：105-113.
［ 4 ］ XU G H, WANG Y K, SHENG G P, et al. An MFC-based online ［16］ COBAN O, KUSCHK P, KAPPELMEYER U, et al. Nitrogen
monitoring and alert system for activated sludge process[J]. transforming community in a horizontal subsurface-flow
Scientific Reports，2014，4：6779. constructed wetland[J]. Water Research，2015，74：203-212.
［ 5 ］ HOU B, LIU X Y, ZHANG R, et al. Investigation and evaluation ［17］ 侯俊青, 赵吉, 李佳, 等.自然生境中厌氧氨氧化功能微生物生
of membrane fouling in a microbial fuel cell-membrane 态学研究进展[J]. 环境科学研究，2019，32（12）：1984-1992.
bioreactor systems (MFC-MBR)[J]. Science of the Total HOU J Q, ZHAO J, LI J, et al. Current insight on microbial
Environment，2022，814：152569. ecology of anaerobic ammonium oxidation in natural
［ 6 ］ YANG Y, ZHAO Y Q, TANG C, et al. Role of macrophyte environment[J]. Research of Environmental Sciences，2019，
species in constructed wetland-microbial fuel cell for 32（12）：1984-1992.
simultaneous wastewater treatment and bioenergy generation[J]. ［18］ INOUE J I, OSHIMA K, SUDA W, et al. Distribution and
Chemical Engineering Journal，2020，392：123708. evolution of nitrogen fixation genes in the Phylum
［ 7 ］ WU D, YANG L Y, GAN L, et al. Potential of novel wastewater Bacteroidetes[J]. Microbes and Environments，2015，30（1）：44-
treatment system featuring microbial fuel cell to generate 50.
electricity and remove pollutants[J]. Ecological Engineering， ［19］ CHENG C, SUN T Y, LI H J, et al. New insights in correlating
2015，84：624-631. greenhouse gas emissions and microbial carbon and nitrogen
［ 8 ］ XU D, XIAO E R, XU P, et al. Effects of influent organic transformations in wetland sediments based on genomic and
loading rates and electrode locations on the electrogenesis functional analysis[J]. Journal of Environmental Management，
capacity of constructed wetland-microbial fuel cell systems[J]. 2021，297：113280.
Environmental Progress & Sustainable Energy，2017 ，36 （2 ） ： ［20］ 姚倩, 彭党聪, 赵俏迪, 等.活性污泥中硝化螺菌(Nitrospira)的
435-441. 富集及其动力学参数[J]. 环境科学，2017，38（12）：5201-5207.
［ 9 ］ SRIVASTAVA P, YADAV A K, MISHRA B K. The effects of YAO Q, PENG D C, ZHAO Q D, et al. Enrichment of Nitrospira
microbial fuel cell integration into constructed wetland on the in activated sludge and kinetic characterization[J]. Environmental
performance of constructed wetland[J]. Bioresource Technology， Science，2017，38（12）：5201-5207.
2015，195：223-230. ［21］ CAI W, LI Y, NIU L H, et al. New insights into the spatial
［10］ TIMMERS R A, STRIK D P B T B, HAMELERS H V M, et al. variability of biofilm communities and potentially negative