FRINK Linked Data Fragments server

Matches in SemOpenAlex for { <https://semopenalex.org/work/W4311762477> ?p ?o ?g. }

• W4311762477 endingPage "130551" @default.
• W4311762477 startingPage "130551" @default.
• W4311762477 abstract "Heavy metals (HMs) often coexist with organic pollutants (OPs) in real surface water. Is it possible to find a general way that the removal of one from these two pollutants will promote the elimination of another pollutant? Herein, the bi-directional promotion effects (BPEs) on synchronous removal of Cr(VI) (i.e., hexavalent chromium) and OPs were achieved by a SnNb2O6/CuInS2 S-scheme heterojunction. Specifically, the apparent rate constants are 0.161 min-1 [(Cr(VI)] and 0.019 min-1 [Tetracycline hydrochloride (TCH)] in coexisting Cr(VI)/TCH system (which are 3.74 and 1.58 times, respectively, compared to the mono-pollutant system), indicating OPs indeed can act as hole scavengers (electron donors) to consume plenty of photoinduced holes and enable more photoexcited electrons to attend to Cr(VI) photoreduction. More significantly, OPs (i.e., TCH, atrazine and 4-chlorophenol) with different molecular structures possess different adiabatic ionization potentials (AIPs), in an inversely linear relationship with BPEs, i.e., the lower AIP value is, the higher electron-donating ability is, the better BPEs present. Finally, TCH and its degradation intermediates toxicity was forecasted via quantitative structure-activity relationship, demonstrating the toxicity decrease of TCH during the photocatalytic process. This work provides a general strategy for simultaneous removal of contaminants, contributing to wastewater purification." @default.
• W4311762477 created "2022-12-28" @default.
• W4311762477 creator A5003360183 @default.
• W4311762477 creator A5039497508 @default.
• W4311762477 creator A5065482772 @default.
• W4311762477 creator A5088731371 @default.
• W4311762477 date "2023-03-01" @default.
• W4311762477 modified "2023-10-16" @default.
• W4311762477 title "A general way to realize the bi-directional promotion effects on the photocatalytic removal of heavy metals and organic pollutants in real water by a novel S-scheme heterojunction: Experimental investigations, QSAR and DFT calculations" @default.
• W4311762477 cites W2042533040 @default.
• W4311762477 cites W2055775813 @default.
• W4311762477 cites W2076548033 @default.
• W4311762477 cites W2081673713 @default.
• W4311762477 cites W2191309176 @default.
• W4311762477 cites W2239728965 @default.
• W4311762477 cites W2292913696 @default.
• W4311762477 cites W2340536000 @default.
• W4311762477 cites W2403047595 @default.
• W4311762477 cites W2523880057 @default.
• W4311762477 cites W2550657007 @default.
• W4311762477 cites W2595889240 @default.
• W4311762477 cites W2757955066 @default.
• W4311762477 cites W2763101436 @default.
• W4311762477 cites W2782306991 @default.
• W4311762477 cites W2784122426 @default.
• W4311762477 cites W2789425555 @default.
• W4311762477 cites W2792125676 @default.
• W4311762477 cites W2794692883 @default.
• W4311762477 cites W2796190831 @default.
• W4311762477 cites W2800046105 @default.
• W4311762477 cites W2886550443 @default.
• W4311762477 cites W2891840445 @default.
• W4311762477 cites W2898359180 @default.
• W4311762477 cites W2903512369 @default.
• W4311762477 cites W2912281648 @default.
• W4311762477 cites W2922049152 @default.
• W4311762477 cites W2944866157 @default.
• W4311762477 cites W2946271859 @default.
• W4311762477 cites W2954795984 @default.
• W4311762477 cites W2955374189 @default.
• W4311762477 cites W2956146756 @default.
• W4311762477 cites W2997044285 @default.
• W4311762477 cites W2999998096 @default.
• W4311762477 cites W3006395991 @default.
• W4311762477 cites W3006814228 @default.
• W4311762477 cites W3009264743 @default.
• W4311762477 cites W3012831238 @default.
• W4311762477 cites W3021127223 @default.
• W4311762477 cites W3037440917 @default.
• W4311762477 cites W3040023888 @default.
• W4311762477 cites W3043223855 @default.
• W4311762477 cites W3047949052 @default.
• W4311762477 cites W3084736287 @default.
• W4311762477 cites W3085189088 @default.
• W4311762477 cites W3090978086 @default.
• W4311762477 cites W3098082877 @default.
• W4311762477 cites W3105662064 @default.
• W4311762477 cites W3123476836 @default.
• W4311762477 cites W3125788736 @default.
• W4311762477 cites W3137165107 @default.
• W4311762477 cites W3139929902 @default.
• W4311762477 cites W3159279135 @default.
• W4311762477 cites W3163411855 @default.
• W4311762477 cites W3165506513 @default.
• W4311762477 cites W3173246481 @default.
• W4311762477 cites W3175337863 @default.
• W4311762477 cites W3196780085 @default.
• W4311762477 cites W3197172937 @default.
• W4311762477 cites W3199356042 @default.
• W4311762477 cites W3200104281 @default.
• W4311762477 cites W3200494581 @default.
• W4311762477 cites W3209154883 @default.
• W4311762477 cites W4200018586 @default.
• W4311762477 cites W4200272577 @default.
• W4311762477 cites W4210279075 @default.
• W4311762477 cites W4210303782 @default.
• W4311762477 cites W4210702468 @default.
• W4311762477 cites W4214540415 @default.
• W4311762477 cites W4214554191 @default.
• W4311762477 cites W4221048986 @default.
• W4311762477 cites W4221063763 @default.
• W4311762477 cites W4224252367 @default.
• W4311762477 cites W4224885831 @default.
• W4311762477 cites W4225097369 @default.
• W4311762477 cites W4226193248 @default.
• W4311762477 cites W4280582179 @default.
• W4311762477 cites W4281716659 @default.
• W4311762477 cites W4281912009 @default.
• W4311762477 cites W4282561510 @default.
• W4311762477 cites W4293050965 @default.
• W4311762477 cites W4294554381 @default.
• W4311762477 cites W4306645404 @default.
• W4311762477 cites W4308039021 @default.
• W4311762477 cites W4312565181 @default.
• W4311762477 cites W924875005 @default.
• W4311762477 doi "https://doi.org/10.1016/j.jhazmat.2022.130551" @default.
• W4311762477 hasPubMedId "https://pubmed.ncbi.nlm.nih.gov/37055965" @default.
• W4311762477 hasPublicationYear "2023" @default.

• next