Performance of pilot-scale horizontal subsurface flow constructed wetland coupled with a microbial fuel cell for treating wastewater

被引:74
作者
Srivastava, Pratiksha [1 ]
Abbassi, Rouzbeh [2 ]
Garaniya, Vikram [1 ]
Lewis, Trevor [3 ]
Yadav, Asheesh Kumar [4 ]
机构
[1] Univ Tasmania, Australian Maritime Coll, Coll Sci & Engn, Launceston, Tas 7248, Australia
[2] Macquarie Univ, Fac Sci & Engn, Sch Engn, Sydney, NSW 2109, Australia
[3] Univ Tasmania, Coll Sci & Engn, Sch Nat Sci, Launceston, Tas 7250, Australia
[4] CSIR, Environm & Sustainabil Dept, Inst Minerals & Mat Technol, Bhubaneswar 751013, Orissa, India
关键词
Constructed wetland; Microbial fuel cell; Constructed wetland-microbial fuel cell; Open circuit; Closed circuit; ELECTRICITY; TECHNOLOGY; REMOVAL; EFFICIENCY; OPERATION; DESIGN;
D O I
10.1016/j.jwpe.2019.100994
中图分类号
X [环境科学、安全科学];
学科分类号
08 ; 0830 ;
摘要
This work presents a new hybrid technology for treating wastewater along with electricity generation. The main objective of this work was to integrate a microbial fuel cell (MFC) into a horizontal subsurface constructed wetland (HSSF-CW-MFC) at a pilot scale for improving the wastewater treatment performance of HSSF-CW. The HSSF-CW-MFC was tested on three different organic loading rates: 0.15, 0.30, and 0.52 kg COD/m(3)/d at a set hydraulic retention time. The HSSF-CW-MFC was further studied for establishing the influence of electron transfer using conductive material (artificial electron acceptor) on wastewater treatment performance. During the efficient electron transfer (system run in closed-circuit operation), 33.7% higher chemical oxygen demand (COD) removal was achieved in comparison to the hindered electron transfer (system run in open circuit) condition. The results illustrate that efficient electron transfer from bottom anaerobic zones to the aerobic zone of the HSSF-CW helps in enhancing the treatment performance. The maximum power and current densities achieved were 11.67 mW/m(3) and 17.15 mA/m(3), respectively.
引用
收藏
页数:7
相关论文
共 36 条
  • [1] [Anonymous], 2005, Standard methods for the examination of water and waste- water
  • [2] [Anonymous], [No title captured]
  • [3] Ayed L., 2012, African Journal of Biotechnology, V11, P12339
  • [4] Development of an integrated wetland microbial fuel cell and sand filtration system for greywater treatment
    Bolton, Chloe Rose
    Randall, Dyllon Garth
    [J]. JOURNAL OF ENVIRONMENTAL CHEMICAL ENGINEERING, 2019, 7 (04):
  • [5] Improving domestic wastewater treatment efficiency with constructed wetland microbial fuel cells: Influence of anode material and external resistance
    Corbella, Clara
    Puigagut, Jaume
    [J]. SCIENCE OF THE TOTAL ENVIRONMENT, 2018, 631-632 : 1406 - 1414
  • [6] Operational, design and microbial aspects related to power production with microbial fuel cells implemented in constructed wetlands
    Corbella, Clara
    Guivernau, Miriam
    Vinas, Marc
    Puigagut, Jaume
    [J]. WATER RESEARCH, 2015, 84 : 232 - 242
  • [7] Vertical redox profiles in treatment wetlands as function of hydraulic regime and macrophytes presence: Surveying the optimal scenario for microbial fuel cell implementation
    Corbella, Clara
    Garfi, Marianna
    Puigagut, Jaume
    [J]. SCIENCE OF THE TOTAL ENVIRONMENT, 2014, 470 : 754 - 758
  • [8] Electricity from microorganisms
    Debabov, V. G.
    [J]. MICROBIOLOGY, 2008, 77 (02) : 123 - 131
  • [9] A review of a recently emerged technology: Constructed wetland - Microbial fuel cells
    Doherty, Liam
    Zhao, Yaqian
    Zhao, Xiaohong
    Hu, Yuansheng
    Hao, Xiaodi
    Xu, Lei
    Liu, Ranbin
    [J]. WATER RESEARCH, 2015, 85 : 38 - 45
  • [10] Diurnal fluctuations in root oxygen release rate and dissolved oxygen budget in wetland mesocosm
    Dong, C.
    Zhu, W.
    Zhao, Y. Q.
    Gao, M.
    [J]. DESALINATION, 2011, 272 (1-3) : 254 - 258