Matches in SemOpenAlex for { <https://semopenalex.org/work/W4213458362> ?p ?o ?g. }
- W4213458362 endingPage "231209" @default.
- W4213458362 startingPage "231209" @default.
- W4213458362 abstract "In this study, a novel molybdenum disulfide (MoS2) nano-carbon (NC) coated cathode was developed for hydrogen production in a microbial electrolysis cell (MEC), while treating simulated urine with 2–6 times dilution (conductivity <20 mS cm−1). MoS2 nanoparticles were electrodeposited on the NC coated cathodes at −100, −150 and −200 μA cm−2 and their performances were evaluated in the MEC. The chronopotentiometry (CP) tests showed the improved catalytic activity of MoS2-NC cathodes with much lower cathode overpotential than non-MoS2 coated electrodes. The MoS2-NC200 cathode, electrodeposited at −200 μA cm−2, showed the maximum hydrogen production rate of 0.152 ± 0.002 m3 H2 m−2 d−1 at 0.9V of Eap, which is comparable to the previously reported Pt electrodes. It was found that high solution conductivity over 20 mS cm−1 (>600 mg L−1 NH3-N) can adversely affect the biofilm architecture and the bacterial activity at the anode of the MEC. Exoelectrogenic bacteria for this system at the anode were identified as Tissierella (Clostridia) and Bacteroidetes taxa. Maximum ammonia-nitrogen (NH3-N) and phosphorus (PO43--P) removal were 68.7 and 98.6%, respectively. This study showed that the newly fabricated MoS2-NC cathode can be a cost-effective alternative to the Pt cathode for renewable bioelectrochemical hydrogen production from urine." @default.
- W4213458362 created "2022-02-25" @default.
- W4213458362 creator A5005106393 @default.
- W4213458362 creator A5012164354 @default.
- W4213458362 creator A5013082323 @default.
- W4213458362 creator A5043227741 @default.
- W4213458362 creator A5047700866 @default.
- W4213458362 creator A5057859260 @default.
- W4213458362 creator A5088987036 @default.
- W4213458362 date "2022-04-01" @default.
- W4213458362 modified "2023-10-15" @default.
- W4213458362 title "Recycling urine for bioelectrochemical hydrogen production using a MoS2 nano carbon coated electrode in a microbial electrolysis cell" @default.
- W4213458362 cites W1496528267 @default.
- W4213458362 cites W1805206068 @default.
- W4213458362 cites W1970377394 @default.
- W4213458362 cites W1973195162 @default.
- W4213458362 cites W1981539053 @default.
- W4213458362 cites W1988355368 @default.
- W4213458362 cites W1991757102 @default.
- W4213458362 cites W1991885140 @default.
- W4213458362 cites W1992842627 @default.
- W4213458362 cites W1994877124 @default.
- W4213458362 cites W2008310830 @default.
- W4213458362 cites W2008552541 @default.
- W4213458362 cites W2015676447 @default.
- W4213458362 cites W2017878380 @default.
- W4213458362 cites W2020354602 @default.
- W4213458362 cites W2022907529 @default.
- W4213458362 cites W2024335574 @default.
- W4213458362 cites W2036828920 @default.
- W4213458362 cites W2043775186 @default.
- W4213458362 cites W2045935314 @default.
- W4213458362 cites W2046957311 @default.
- W4213458362 cites W2055967907 @default.
- W4213458362 cites W2062965233 @default.
- W4213458362 cites W2065376809 @default.
- W4213458362 cites W2069105502 @default.
- W4213458362 cites W2079163027 @default.
- W4213458362 cites W2087273401 @default.
- W4213458362 cites W2096620293 @default.
- W4213458362 cites W2097734660 @default.
- W4213458362 cites W2108487722 @default.
- W4213458362 cites W2108718991 @default.
- W4213458362 cites W2132848185 @default.
- W4213458362 cites W2135628195 @default.
- W4213458362 cites W2140289296 @default.
- W4213458362 cites W2158714788 @default.
- W4213458362 cites W2159772134 @default.
- W4213458362 cites W2165838798 @default.
- W4213458362 cites W2166171121 @default.
- W4213458362 cites W2170546539 @default.
- W4213458362 cites W2296154467 @default.
- W4213458362 cites W2429417444 @default.
- W4213458362 cites W2558659093 @default.
- W4213458362 cites W2587700245 @default.
- W4213458362 cites W2591904306 @default.
- W4213458362 cites W2592804210 @default.
- W4213458362 cites W2767683381 @default.
- W4213458362 cites W2769215390 @default.
- W4213458362 cites W2789443625 @default.
- W4213458362 cites W2794220056 @default.
- W4213458362 cites W2804015519 @default.
- W4213458362 cites W2806552799 @default.
- W4213458362 cites W2811277216 @default.
- W4213458362 cites W2888024630 @default.
- W4213458362 cites W2902822774 @default.
- W4213458362 cites W2912164231 @default.
- W4213458362 cites W2942211013 @default.
- W4213458362 cites W2985885290 @default.
- W4213458362 cites W2996797270 @default.
- W4213458362 cites W3005153810 @default.
- W4213458362 cites W3011759618 @default.
- W4213458362 cites W3101032984 @default.
- W4213458362 cites W3109928485 @default.
- W4213458362 doi "https://doi.org/10.1016/j.jpowsour.2022.231209" @default.
- W4213458362 hasPubMedId "https://pubmed.ncbi.nlm.nih.gov/35582347" @default.
- W4213458362 hasPublicationYear "2022" @default.
- W4213458362 type Work @default.
- W4213458362 citedByCount "7" @default.
- W4213458362 countsByYear W42134583622022 @default.
- W4213458362 countsByYear W42134583622023 @default.
- W4213458362 crossrefType "journal-article" @default.
- W4213458362 hasAuthorship W4213458362A5005106393 @default.
- W4213458362 hasAuthorship W4213458362A5012164354 @default.
- W4213458362 hasAuthorship W4213458362A5013082323 @default.
- W4213458362 hasAuthorship W4213458362A5043227741 @default.
- W4213458362 hasAuthorship W4213458362A5047700866 @default.
- W4213458362 hasAuthorship W4213458362A5057859260 @default.
- W4213458362 hasAuthorship W4213458362A5088987036 @default.
- W4213458362 hasBestOaLocation W42134583621 @default.
- W4213458362 hasConcept C104779481 @default.
- W4213458362 hasConcept C127413603 @default.
- W4213458362 hasConcept C140205800 @default.
- W4213458362 hasConcept C147789679 @default.
- W4213458362 hasConcept C159985019 @default.
- W4213458362 hasConcept C163127949 @default.
- W4213458362 hasConcept C165337572 @default.
- W4213458362 hasConcept C17525397 @default.