CIESC Journal ›› 2019, Vol. 70 ›› Issue (7): 2411-2425.DOI: 10.11949/0438-1157.20190011
• Reviews and monographs • Previous Articles Next Articles
Zhengzhong MAO(),Yi SUN,Zhipeng HUANG,Chaochao LI,Haobin HUANG,Shao an CHENG()
Received:
2019-01-04
Revised:
2019-04-03
Online:
2019-07-05
Published:
2019-07-05
Contact:
Shao an CHENG
通讯作者:
成少安
作者简介:
毛政中(1994—),男,博士研究生,<email>11627025@zju.edu.cn</email>
基金资助:
CLC Number:
Zhengzhong MAO, Yi SUN, Zhipeng HUANG, Chaochao LI, Haobin HUANG, Shao an CHENG. Progress of research on methanogenic microbial electrolysis cell[J]. CIESC Journal, 2019, 70(7): 2411-2425.
毛政中, 孙怡, 黄志鹏, 李超超, 黄浩斌, 成少安. 微生物电解池产甲烷技术研究进展[J]. 化工学报, 2019, 70(7): 2411-2425.
Fig.3 Summary of methanogenic biocathode electron transport pathways and properties(All chemical substances involved in the calculation of the theoretical electrode potential are 1 mol·L-1 or 0.1 MPa, pH 7 and temperature 298 K) [6,33]
Exp. Num. | Type | Voltage①/V | Inoculum/substrate | vCH4(v)/(L·L-1·d-1) | Location | Dominant archaea genus | Ref. |
---|---|---|---|---|---|---|---|
(1) | DC②(20ml each) | 0.7 | ADS③/acetate | - | anode | Methanobacterium (65%) | [10] |
(2) | DC(20ml each) | 0.7 | ADS/propionate | - | anode | Methanobacterium(57%) | [10] |
(3) | SC④ | 0.6 | raw waste sludge | 0.083 | anode | Methanocorpusculum(93%) | [13] |
(4) | SC | 0.6 | alkali pretreatment of the waste sludge | 0.1 | anode | Methanocorpusculum(85%) | [13] |
(5) | SC(15 L) | 0.3 | food waste leachate | 0.34 L·g-1TCODremoved | bulk sludge | Methanosarcina(45%) | [53] |
(6) | SC(20 L) | 0.3 | AD sludge FWTP | (0.34 ± 0.02) L·g-1TCODremoved | bulk sludge | Methanosarcina(24%), Methanobacterium(19%) | [54] |
(7) | SC(0.8m3) | 4 | FTWW⑤/ADS from winery WWTP⑥ | 1.16 ± 0.06 | matured sludge | Methanomassillicoccus(22%), Methanosphaerula(14%) | [15] |
(8) | SC(0.8m3)(anaerobic effluent recycling of 200%) | 4 | FTWW /ADS from winery WWTP | 2.01±0.13 | matured sludge | Methanothrix(37.33%), Methanosphaerula(11.17%) | [15] |
(9) | SC (Φ80×120 mm) | 0.6 | waste activated sludge | 2.26±0.16 | suspended sludge | Methanosaeta(74%) | [55] |
(10) | DC (300 ml each bottle) | -0.8 | CO2 | 5 L·m-2·d-1 | cathode | Methanobacterium(86.7%) | [1] |
(11) | DC(800ml cathode working volume)continuous mode | -0.7 | AGS/ethanol and organic acids | — | cathode | Methanobacterium(77%) | [56] |
(12) | DC(800ml cathode working volume)batch mode | -0.7 | AGS/ethanol and organic acids | — | cathode | Methanobacterium(84%) | [56] |
(13) | SC | 0.6 | raw waste sludge | 0.083 | cathode | Methanocorpusculum(77%) | [13] |
(14) | SC | 0.6 | alkali pretreatment of the waste sludge | 0.1 | cathode | Methanobacterium(98%) | [13] |
(15) | SC(open circuit) | 0 | raw waste sludge | 0.064 | cathode | Methanosaeta(48.2%) | [13] |
Table 1 Main composition of archaea in methanogenic microbial electrolysis cell
Exp. Num. | Type | Voltage①/V | Inoculum/substrate | vCH4(v)/(L·L-1·d-1) | Location | Dominant archaea genus | Ref. |
---|---|---|---|---|---|---|---|
(1) | DC②(20ml each) | 0.7 | ADS③/acetate | - | anode | Methanobacterium (65%) | [10] |
(2) | DC(20ml each) | 0.7 | ADS/propionate | - | anode | Methanobacterium(57%) | [10] |
(3) | SC④ | 0.6 | raw waste sludge | 0.083 | anode | Methanocorpusculum(93%) | [13] |
(4) | SC | 0.6 | alkali pretreatment of the waste sludge | 0.1 | anode | Methanocorpusculum(85%) | [13] |
(5) | SC(15 L) | 0.3 | food waste leachate | 0.34 L·g-1TCODremoved | bulk sludge | Methanosarcina(45%) | [53] |
(6) | SC(20 L) | 0.3 | AD sludge FWTP | (0.34 ± 0.02) L·g-1TCODremoved | bulk sludge | Methanosarcina(24%), Methanobacterium(19%) | [54] |
(7) | SC(0.8m3) | 4 | FTWW⑤/ADS from winery WWTP⑥ | 1.16 ± 0.06 | matured sludge | Methanomassillicoccus(22%), Methanosphaerula(14%) | [15] |
(8) | SC(0.8m3)(anaerobic effluent recycling of 200%) | 4 | FTWW /ADS from winery WWTP | 2.01±0.13 | matured sludge | Methanothrix(37.33%), Methanosphaerula(11.17%) | [15] |
(9) | SC (Φ80×120 mm) | 0.6 | waste activated sludge | 2.26±0.16 | suspended sludge | Methanosaeta(74%) | [55] |
(10) | DC (300 ml each bottle) | -0.8 | CO2 | 5 L·m-2·d-1 | cathode | Methanobacterium(86.7%) | [1] |
(11) | DC(800ml cathode working volume)continuous mode | -0.7 | AGS/ethanol and organic acids | — | cathode | Methanobacterium(77%) | [56] |
(12) | DC(800ml cathode working volume)batch mode | -0.7 | AGS/ethanol and organic acids | — | cathode | Methanobacterium(84%) | [56] |
(13) | SC | 0.6 | raw waste sludge | 0.083 | cathode | Methanocorpusculum(77%) | [13] |
(14) | SC | 0.6 | alkali pretreatment of the waste sludge | 0.1 | cathode | Methanobacterium(98%) | [13] |
(15) | SC(open circuit) | 0 | raw waste sludge | 0.064 | cathode | Methanosaeta(48.2%) | [13] |
Coupling system | Effective volume/L | OLR①/(g TCOD·L-1·d-1) | HRT/d | Applied voltage/V | Current density/ (A·m-2) | TCOD removal/% | Other contaminants removal indicators/% | Ce②/% | CCE③/% | vCH4(v)④/ (L·L-1·d-1) | Ref. |
---|---|---|---|---|---|---|---|---|---|---|---|
AD-MEC DW⑤ treatment | 3 | 0.08 | 1 | 1 | — | 50 | — | 95 | 80 | 0.012 | [58] |
AD-MEC | 0.5 | 2.02 | 24 | 0.8 | 0.0501±0.0028 | 87.5±2.2 | 36.9±1.7(VSS) | 56.37±3.31 | >100 | 0.073±0.001 | [65] |
AD-MEC FWTP⑥ wastewater treatment | 20 | 3.0 | 20 | 0.3 | — | 76.1±3.3 | 73.2±2.1%(TVS⑦) | — | — | (0.34±0.02) L·(g COD)-1 | [54] |
AD-MEC SEOR⑧ wastewater treatment | 0.022 | 0.21 | 20 | 1.2 | 80 A·m-3 | 95.8 | — | — | — | 0.133±0.0045 | [61] |
TP-AD-MEC(fermentate-digestate mixture, 55℃) | anode:0.86; cathode:0.86 | 1.5 | 20 | anode: +0.2 V vs SHE | 0.723±0.048 (830 cm2) | 28±3 | — | 119±28(particulate COD) | 51±1 | 0.111±0.010 | [12] |
UAR⑨-MEC | 0.6 | 1.5—2 | 1 | 0.8±0.01 | 8.6 mA | 83 | 97%(carbohydrate) 62%(protein) 83%(TOC) | 15 | — | 142.8 ml·(g COD)-1 | [23] |
MEC-AnMBR? | 12000 | 5.88—7.85 | 10 | 0.6 | — | 88.8 | 72.1%(TN⑩) 87.4%( 86.9%(BOD5) | — | — | 0.123 | [75] |
AD-MEC (PS?treatment) | anode:0.5; cathode:0.1 | 0.89 | 9 | anode:-0.03 V vs SHE | 2 | 70±4 | 61±9 (VSS) | 63 | — | — | [79] |
ABR?-MFC-MEC fecal wastewater treatment | ABR:28;MFC:9.6; MEC:9.6 | 0.75 | 48 | MFC output voltage:(452.5±10.5)mV | — | 95.9 | 95%( | — | — | biogas components: CH4:55%–65% | [77] |
PEC?-MEC | anode:0.08; cathode:0.15 | — | 3 | galvanostatic electrolysis at 2.5 mA | 3.33(7.5 cm2) | — | — | — | 82±10 | 0.0391 | [80] |
PEC-MEC | anode:0.45;cathode:0.45 | — | — | — | 0.275(40 cm2) | — | — | — | 96 | (192.0 ± 3.6) μl·d-1·cm-2 | [81] |
MEC-UASB?(pilot scale F-T? wastewater treatment) | 800 | 30.23±1.07 | MEC:0.11 UASB:1.67 | 4.0 | — | 93.5±1.6 | — | — | — | 2.01±0.13 | [15] |
N-MEC? (3 groups: M/C/N) | 1 | M:1.6 C/N:0.9 | M:0.58 C/N:1 | M:1.3 C/N:1 | — | M:80.9±3 C/N:99 | C: 65%±2.4% N: 83%±3% ( | — | — | M: 0.451 | [74] |
UT?-UASB-MEC | UASB-MEC:35; UT:10 | 0.92±0.02 | 7 | 0.5 | 45 mA | 71.4 | 37.86%(VSS/SS) | — | — | — | [82] |
Table 2 Summary of MEC coupled other systems for methane production
Coupling system | Effective volume/L | OLR①/(g TCOD·L-1·d-1) | HRT/d | Applied voltage/V | Current density/ (A·m-2) | TCOD removal/% | Other contaminants removal indicators/% | Ce②/% | CCE③/% | vCH4(v)④/ (L·L-1·d-1) | Ref. |
---|---|---|---|---|---|---|---|---|---|---|---|
AD-MEC DW⑤ treatment | 3 | 0.08 | 1 | 1 | — | 50 | — | 95 | 80 | 0.012 | [58] |
AD-MEC | 0.5 | 2.02 | 24 | 0.8 | 0.0501±0.0028 | 87.5±2.2 | 36.9±1.7(VSS) | 56.37±3.31 | >100 | 0.073±0.001 | [65] |
AD-MEC FWTP⑥ wastewater treatment | 20 | 3.0 | 20 | 0.3 | — | 76.1±3.3 | 73.2±2.1%(TVS⑦) | — | — | (0.34±0.02) L·(g COD)-1 | [54] |
AD-MEC SEOR⑧ wastewater treatment | 0.022 | 0.21 | 20 | 1.2 | 80 A·m-3 | 95.8 | — | — | — | 0.133±0.0045 | [61] |
TP-AD-MEC(fermentate-digestate mixture, 55℃) | anode:0.86; cathode:0.86 | 1.5 | 20 | anode: +0.2 V vs SHE | 0.723±0.048 (830 cm2) | 28±3 | — | 119±28(particulate COD) | 51±1 | 0.111±0.010 | [12] |
UAR⑨-MEC | 0.6 | 1.5—2 | 1 | 0.8±0.01 | 8.6 mA | 83 | 97%(carbohydrate) 62%(protein) 83%(TOC) | 15 | — | 142.8 ml·(g COD)-1 | [23] |
MEC-AnMBR? | 12000 | 5.88—7.85 | 10 | 0.6 | — | 88.8 | 72.1%(TN⑩) 87.4%( 86.9%(BOD5) | — | — | 0.123 | [75] |
AD-MEC (PS?treatment) | anode:0.5; cathode:0.1 | 0.89 | 9 | anode:-0.03 V vs SHE | 2 | 70±4 | 61±9 (VSS) | 63 | — | — | [79] |
ABR?-MFC-MEC fecal wastewater treatment | ABR:28;MFC:9.6; MEC:9.6 | 0.75 | 48 | MFC output voltage:(452.5±10.5)mV | — | 95.9 | 95%( | — | — | biogas components: CH4:55%–65% | [77] |
PEC?-MEC | anode:0.08; cathode:0.15 | — | 3 | galvanostatic electrolysis at 2.5 mA | 3.33(7.5 cm2) | — | — | — | 82±10 | 0.0391 | [80] |
PEC-MEC | anode:0.45;cathode:0.45 | — | — | — | 0.275(40 cm2) | — | — | — | 96 | (192.0 ± 3.6) μl·d-1·cm-2 | [81] |
MEC-UASB?(pilot scale F-T? wastewater treatment) | 800 | 30.23±1.07 | MEC:0.11 UASB:1.67 | 4.0 | — | 93.5±1.6 | — | — | — | 2.01±0.13 | [15] |
N-MEC? (3 groups: M/C/N) | 1 | M:1.6 C/N:0.9 | M:0.58 C/N:1 | M:1.3 C/N:1 | — | M:80.9±3 C/N:99 | C: 65%±2.4% N: 83%±3% ( | — | — | M: 0.451 | [74] |
UT?-UASB-MEC | UASB-MEC:35; UT:10 | 0.92±0.02 | 7 | 0.5 | 45 mA | 71.4 | 37.86%(VSS/SS) | — | — | — | [82] |
1 | ChengS A, XingD F, CallD F, et al. Direct biological conversion of electrical current into methane by electromethanogenesis[J]. Environmental Science & Technology, 2009, 43(10): 3953-3958. |
2 | AryalN, TremblayP, LizakD M, et al. Performance of different Sporomusa species for the microbial electrosynthesis of acetate from carbon dioxide[J]. Bioresource Technology, 2017, 233: 184-190. |
3 | BajracharyaS, YuliasniR, VanbroekhovenK, et al. Long-term operation of microbial electrosynthesis cell reducing CO2 to multi-carbon chemicals with a mixed culture avoiding methanogenesis[J]. Bioelectrochemistry, 2017, 113: 26-34. |
4 | SchlagerS, HaberbauerM, FuchsbauerA, et al. Bio-electrocatalytic application of microorganisms for carbon dioxide reduction to methane[J]. Chemsuschem, 2017, 10(1SI): 226-233. |
5 | RabaeyK, RozendalR A. Microbial electrosynthesis - revisiting the electrical route for microbial production[J]. Nature Reviews Microbiology, 2010, 8(10): 706. |
6 | GeppertF, LiuD, van Eerten-JansenM, et al. Bioelectrochemical power-to-gas: state of the art and future perspectives[J]. Trends in Biotechnology, 2016, 34(11): 879-894. |
7 | VillanoM, ScardalaS, AulentaF, et al. Carbon and nitrogen removal and enhanced methane production in a microbial electrolysis cell[J]. Bioresource Technology, 2013, 130(1): 366. |
8 | LiF, LiY X, CaoY X, et al. Modular engineering to increase intracellular NAD(H/+) promotes rate of extracellular electron transfer of Shewanella oneidensis[J]. Nature Communications, 2018, 9(1): 3637. |
9 | ThauerR K, KasterA K, SeedorfH, et al. Methanogenic archaea: ecologically relevant differences in energy conservation[J]. Nature Reviews Microbiology, 2008, 6(8): 579-591. |
10 | HariA R, VenkidusamyK, KaturiK P, et al. Temporal microbial community dynamics in microbial electrolysis cells - influence of acetate and propionate concentration[J]. Frontiers in Microbiology, 2017, 8: 1371. |
11 | SteinbuschK J J, HamelersH V M, SchaapJ D, et al. Bioelectrochemical ethanol production through mediated acetate reduction by mixed cultures[J]. Environmental Science & Technology, 2010, 44(1): 513-517. |
12 | ZeppilliM, PavesiD, GottardoM, et al. Using effluents from two-phase anaerobic digestion to feed a methane-producing microbial electrolysis[J]. Chemical Engineering Journal, 2017, 328: 428-433. |
13 | LiuQ, RenZ J, HuangC, et al. Multiple syntrophic interactions drive biohythane production from waste sludge in microbial electrolysis cells[J]. Biotechnology for Biofuels, 2016, 9: 162. |
14 | CusickR D, KielyP D, LoganB E. A monetary comparison of energy recovered from microbial fuel cells and microbial electrolysis cells fed winery or domestic wastewaters[J]. International Journal of Hydrogen Energy, 2010, 35(17): 8855-8861. |
15 | WangD X, HanY X, HanH J, et al. Enhanced treatment of Fischer-Tropsch wastewater using up-flow anaerobic sludge blanket system coupled with micro-electrolysis cell: a pilot scale study[J]. Bioresource Technology, 2017, 238: 333-342. |
16 | YuZ S, LengX Y, ZhaoS, et al. A review on the applications of microbial electrolysis cells in anaerobic digestion[J]. Bioresource Technology, 2018, 255: 340-348. |
17 | ZhenG Y, LuX Q, KumarG, et al. Microbial electrolysis cell platform for simultaneous waste biorefinery and clean electrofuels generation: current, situation, challenges and future perspectives[J]. Progress in Energy and Combustion Science, 2017, 63: 119-145. |
18 | ZhenG Y, ZhengS J, LuX Q, et al. A comprehensive comparison of five different carbon-based cathode materials in CO2 electromethanogenesis: long-term performance, cell-electrode contact behaviors and extracellular electron transfer pathways[J]. Bioresource Technology, 2018, 266: 382-388. |
19 | FuQ, KuramochiY, FukushimaN, et al. Bioelectrochemical analyses of the development of a thermophilic biocathode catalyzing electromethanogenesis[J]. Environmental Science & Technology, 2015, 49(2): 1225-1232. |
20 | VillanoM, AulentaF, CiucciC, et al. Bioelectrochemical reduction of CO2 to CH4via direct and indirect extracellular electron transfer by a hydrogenophilic methanogenic culture[J]. Bioresource Technology, 2010, 101(9): 3085-3090. |
21 | van Eerten-JansenM, Ter HeijneA, BuismanC, et al. Microbial electrolysis cells for production of methane from CO2: long-term performance and perspectives[J]. International Journal of Energy Research, 2012, 36(6): 809-819. |
22 | van Eerten-JansenM, VeldhoenA B, PluggeC M, et al. Microbial community analysis of a methane-producing biocathode in a bioelectrochemical system[J]. Archaea-An International Microbiological Journal, 2013, 2013: 481784. |
23 | SangeethaT, GuoZ, LiuW, et al. Cathode material as an influencing factor on beer wastewater treatment and methane production in a novel integrated upflow microbial electrolysis cell (Upflow-MEC)[J]. International Journal of Hydrogen Energy, 2016, 41(4): 2189-2196. |
24 | LoganB, ChengS, WatsonV, et al. Graphite fiber brush anodes for increased power production in air-cathode microbial fuel cells[J]. Environmental Science & Technology, 2007, 41(9): 3341-3346. |
25 | ClauwaertP, VerstraeteW. Methanogenesis in membraneless microbial electrolysis cells[J]. Applied Microbiology and Biotechnology, 2009, 82(5): 829-836. |
26 | ZhenG Y, LuX Q, KobayashiT, et al. Promoted electromethanosynthesis in a two-chamber microbial electrolysis cells (MECs) containing a hybrid biocathode covered with graphite felt (GF)[J]. Chemical Engineering Journal, 2016, 284: 1146-1155. |
27 | JiaY, FengH, ShenD, et al. Enhanced production of methane from waste activated sludge by pretreatment using a gas-diffusion cathode[J]. Energy & Fuels, 2016, 30(12): 10511–10515. |
28 | ChengS A, YeY L, DingW J, et al. Enhancing power generation of scale-up microbial fuel cells by optimizing the leading-out terminal of anode[J]. Journal of Power Sources, 2014, 248: 931-938. |
29 | BajracharyaS, VanbroekhovenK, BuismanC J N, et al. Application of gas diffusion biocathode in microbial electrosynthesis from carbon dioxide[J]. Environmental Science and Pollution Research, 2016, 23(22): 22292-22308. |
30 | WangQ N, DongH, YuH B, et al. Enhanced electrochemical reduction of carbon dioxide to formic acid using a two-layer gas diffusion electrode in a microbial electrolysis cell[J]. RSC Advances, 2015, 5(14): 10346-10351. |
31 | AlqahtaniM F, KaturiK P, BajracharyaS, et al. Porous hollow fiber nickel electrodes for effective supply and reduction of carbon dioxide to methane through microbial electrosynthesis[J]. Advanced Functional Materials, 2018, 28(43): 1804860. |
32 | JourdinL, FreguiaS, DonoseB C, et al. Autotrophic hydrogen-producing biofilm growth sustained by a cathode as the sole electron and energy source[J]. Bioelectrochemistry, 2015, 102: 56-63. |
33 | van Eerten-JansenM, JansenN C, PluggeC M, et al. Analysis of the mechanisms of bioelectrochemical methane production by mixed cultures[J]. Journal of Chemical Technology and Biotechnology, 2015, 90(5): 963-970. |
34 | LienemannM, DeutzmannJ S, MiltonR D, et al. Mediator-free enzymatic electrosynthesis of formate by the Methanococcus maripaludis heterodisulfide reductase supercomplex[J]. Bioresource Technology, 2018, 254: 278-283. |
35 | RotaruA E, ShresthaP M, LiuF, et al. A new model for electron flow during anaerobic digestion: direct interspecies electron transfer to Methanosaeta for the reduction of carbon dioxide to methane[J]. Energy & Environmental Science, 2013, 7(1): 408-415. |
36 | AulentaF, CatapanoL, SnipL, et al. Linking bacterial metabolism to graphite cathodes: electrochemical insights into the H2-producing capability of Desulfovibrio sp.[J]. Chemsuschem, 2012, 5(6SI): 1080-1085. |
37 | FischerF, LieskeR, WinzerK. Biological gas reactions Ⅱ concerning the formation of acetic acid in the biological conversion of carbon oxide and carbonic acid with hydrogen to methane[J]. Biochemische Zeitschrift, 1932, 245: 2-12. |
38 | DanielsL, SparlingR, SprottG D. The bioenergetics of methanogenesis[J]. Biochimica et Biophysica Acta, 1984, 768(2): 113-163. |
39 | FerryJ G. Fundamentals of methanogenic pathways that are key to the biomethanation of complex biomass[J]. Current Opinion in Biotechnology, 2011, 22(3): 351-357. |
40 | WelteC, DeppenmeierU. Bioenergetics and anaerobic respiratory chains of aceticlastic methanogens[J]. Biochimica et Biophysica Acta-Bioenergetics, 2014, 1837(7SI): 1130-1147. |
41 | NevinK P, WoodardT L, FranksA E, et al. Microbial electrosynthesis: feeding microbes electricity to convert carbon dioxide and water to multicarbon extracellular organic compounds[J]. MBIO, 2010, 1:e00103-102. |
42 | FaraghiparapariN, ZenglerK. Production of organics from CO2 by microbial electrosynthesis (MES) at high temperature[J]. Journal of Chemical Technology and Biotechnology, 2017, 92(2): 375-381. |
43 | JourdinL, FreguiaS, DonoseB C, et al. A novel carbon nanotube modified scaffold as an efficient biocathode material for improved microbial electrosynthesis[J]. Journal of Materials Chemistry A, 2014, 2(32): 13093-13102. |
44 | JourdinL, GriegerT, MonettiJ, et al. High acetic acid production rate obtained by microbial electrosynthesis from carbon dioxide[J]. Environmental Science & Technology, 2015, 49(22): 13566-13574. |
45 | ShenL, ZhaoQ C, WuX E, et al. Interspecies electron transfer in syntrophic methanogenic consortia: from cultures to bioreactors[J]. Renewable & Sustainable Energy Reviews, 2016, 54: 1358-1367. |
46 | RotaruA, ShresthaP M, LiuF, et al. Direct interspecies electron transfer between Geobacter metallireducens and Methanosarcina barkeri[J]. Applied and Environmental Microbiology, 2014, 80(15): 4599-4605. |
47 | LiuF, RotaruA, ShresthaP M, et al. Promoting direct interspecies electron transfer with activated carbon[J]. Energy & Environmental Science, 2012, 5(10): 8982-8989. |
48 | ChenS, RotaruA, LiuF, et al. Carbon cloth stimulates direct interspecies electron transfer in syntrophic co-cultures[J]. Bioresource Technology, 2014, 173: 82-86. |
49 | ChenS, RotaruA, ShresthaP M, et al. Promoting interspecies electron transfer with biochar[J]. Scientific Reports, 2014, 4(1): 5019. |
50 | LovleyD R. Syntrophy goes electric: direct interspecies electron transfer[J]. Annual Review of Microbiology, 2017, 71: 643-664. |
51 | ParkJ H, KangH J, ParkK H, et al. Direct interspecies electron transfer via conductive materials: a perspective for anaerobic digestion applications[J]. Bioresource Technology, 2018, 254: 300-311. |
52 | FengQ, SongY C, AhnY. Electroactive microorganisms in bulk solution contribute significantly to methane production in bioelectrochemical anaerobic reactor[J]. Bioresource Technology, 2018, 259: 119-127. |
53 | LeeB, ParkJ G, ShinW B, et al. Microbial communities change in an anaerobic digestion after application of microbial electrolysis cells[J]. Bioresource Technology, 2017, 234: 273-280. |
54 | ParkJ, LeeB, TianD, et al. Bioelectrochemical enhancement of methane production from highly concentrated food waste in a combined anaerobic digester and microbial electrolysis cell[J]. Bioresource Technology, 2018, 247: 226-233. |
55 | ZhaoZ S, ZhangY B, QuanX, et al. Evaluation on direct interspecies electron transfer in anaerobic sludge digestion of microbial electrolysis cell[J]. Bioresource Technology, 2016, 200: 235-244. |
56 | XuH, WangK, HolmesD E. Bioelectrochemical removal of carbon dioxide (CO2): an innovative method for biogas upgrading[J]. Bioresource Technology, 2014, 173: 392-398. |
57 | ZhaoZ, ZhangY, QuanX, et al. Evaluation on direct interspecies electron transfer in anaerobic sludge digestion of microbial electrolysis cell[J]. Bioresource Technology, 2016, 200: 235-244. |
58 | MorenoR, San-MartinM I, EscapaA, et al. Domestic wastewater treatment in parallel with methane production in a microbial electrolysis cell[J]. Renewable Energy, 2016, 93: 442-448. |
59 | EscapaA, GilcarreraL, GarcíaV, et al. Performance of a continuous flow microbial electrolysis cell (MEC) fed with domestic wastewater[J]. Bioresource Technology, 2012, 117(10): 55-62. |
60 | TencaA, CusickR D, SchievanoA, et al. Evaluation of low cost cathode materials for treatment of industrial and food processing wastewater using microbial electrolysis cells[J]. International Journal of Hydrogen Energy, 2013, 38(4): 1859-1865. |
61 | YuN, XingD, LiW, et al. Electricity and methane production from soybean edible oil refinery wastewater using microbial electrochemical systems[J]. International Journal of Hydrogen Energy, 2017, 42(1): 96-102. |
62 | KielyP D, CusickR, CallD F, et al. Anode microbial communities produced by changing from microbial fuel cell to microbial electrolysis cell operation using two different wastewaters[J]. Bioresource Technology, 2011, 102(1): 388-394. |
63 | WagnerR C, ReganJ M, OhS E, et al. Hydrogen and methane production from swine wastewater using microbial electrolysis cells[J]. Water Research, 2009, 43(5): 1480-1488. |
64 | CerrilloM, VinasM, BonmatiA. Anaerobic digestion and electromethanogenic microbial electrolysis cell integrated system: Increased stability and recovery of ammonia and methane[J]. Renewable Energy, 2018, 120: 178-189. |
65 | ZhaoZ, ZhangY, YuQ, et al. Enhanced decomposition of waste activated sludge via anodic oxidation for methane production and bioenergy recovery[J]. International Biodeterioration & Biodegradation, 2016, 106: 161-169. |
66 | ZhenG Y, LuX Q, KobayashiT, et al. Continuous micro-current stimulation to upgrade methanolic wastewater biodegradation and biomethane recovery in an upflow anaerobic sludge blanket (UASB) reactor[J]. Chemosphere, 2017, 180: 229-238. |
67 | DouZ, DykstraC M, PavlostathisS G. Bioelectrochemically assisted anaerobic digestion system for biogas upgrading and enhanced methane production[J]. Science of the Total Environment, 2018, 633: 1012-1021. |
68 | BeegleJ R, BoroleA P. Energy production from waste: evaluation of anaerobic digestion and bioelectrochemical systems based on energy efficiency and economic factors[J]. Renewable & Sustainable Energy Reviews, 2018, 96: 343-351. |
69 | FengQ, SongY C, BaeB U. Influence of applied voltage on the performance of bioelectrochemical anaerobic digestion of sewage sludge and planktonic microbial communities at ambient temperature[J]. Bioresource Technology, 2016, 220: 500-508. |
70 | PantD, SinghA, BogaertG V, et al. An introduction to the life cycle assessment (LCA) of bioelectrochemical systems (BES) for sustainable energy and product generation: relevance and key aspects[J]. Renewable & Sustainable Energy Reviews, 2011, 15(2): 1305-1313. |
71 | EscapaA, SanmartínM I, MoránA. Potential use of microbial electrolysis cells in domestic wastewater treatment plants for energy recovery[J]. Frontiers in Energy Research, 2014, 2(51): 17519-17527. |
72 | ZhenG Y, LuX Q, KatoH, et al. Overview of pretreatment strategies for enhancing sewage sludge disintegration and subsequent anaerobic digestion: current advances, full-scale application and future perspectives[J]. Renewable & Sustainable Energy Reviews, 2017, 69: 559-577. |
73 | WangL, AzizT N, RdD L R F. Determining the limits of anaerobic co-digestion of thickened waste activated sludge with grease interceptor waste[J]. Water Research, 2013, 47(11): 3835. |
74 | HussainA, LebrunF M, TartakovskyB. Removal of organic carbon and nitrogen in a membraneless flow-through microbial electrolysis cell[J]. Enzyme and Microbial Technology, 2017, 102: 41-48. |
75 | 蔡文忠,张希晨,周耀辉. MEC/AnMBR反应器组合处理生活污水[J]. 南华大学学报(自然科学版), 2017, (2): 107-112. |
CaiW Z, ZhangX C, ZhouY H. MEC/AnMBR reactor combined treatment of domestic sewage[J]. Journal of Nanhua University(Natural Science), 2017, (2): 107-112. | |
76 | JiangY, SuM, LiD. Removal of sulfide and production of methane from carbon dioxide in microbial fuel cells-microbial electrolysis cell (MFCs-MEC) coupled system[J]. Applied Biochemistry and Biotechnology, 2014, 172(5): 2720-2731. |
77 | LiuH B, LengF, GuanY L, et al. Simultaneous pollutant removal and electricity generation in a combined ABR-MFC-MEC system treating fecal wastewater[J]. Water Air and Soil Pollution, 2017,228: 179. |
78 | HuangL, JiangL, WangQ, et al. Cobalt recovery with simultaneous methane and acetate production in biocathode microbial electrolysis cells[J]. Chemical Engineering Journal, 2014, 253: 281-290. |
79 | KiD, ParameswaranP, PopatS C, et al. Maximizing Coulombic recovery and solids reduction from primary sludge by controlling retention time and pH in a flat-plate microbial electrolysis cell[J]. Environmental Science-Water Research & Technology, 2017, 3(2): 333-339. |
80 | NicholsE M, GallagherJ J, LiuC, et al. Hybrid bioinorganic approach to solar-to-chemical conversion[J]. Proceedings of the National Academy of Sciences of the United States of America, 2015, 112(37): 11461-11466. |
81 | FuQ, XiaoS, LiZ, et al. Hybrid solar-to-methane conversion system with a Faradaic efficiency of up to 96%[J]. Nano Energy, 2018, 53: 232-239. |
82 | LiX J, ZhuT, ZhangK, et al. Enhanced sludge degradation process using a microbial electrolysis cell in an up-flow anaerobic sludge blanket reactor with ultrasound treatment[J]. Chemical Engineering Journal, 2016, 306: 17-21. |
83 | BarberJ, TranP D. From natural to artificial photosynthesis[J]. Journal of the Royal Society Interface, 2013, 10(81): 20120984. |
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