Matches in SemOpenAlex for { <https://semopenalex.org/work/W4200438243> ?p ?o ?g. }
- W4200438243 endingPage "133465" @default.
- W4200438243 startingPage "133465" @default.
- W4200438243 abstract "The development of low-temperature selective catalytic reduction of NOx with NH3 (NH3-SCR) catalysts is desirable but still challenging. Herein, a low-cost Mn-Fe/SAPO-34 catalyst was successfully synthesized using natural ferromanganese ore (FO) and industrial waste lithium-silicon-powder (LSP) by solid-state ion exchange (SSIE) method, and showed high NH3-SCR activity at low temperature range (150-200 °C) with high N2 selectivity. After loading FO, Mn-O and Fe-O bonds on Mn-Fe/SAPO-34 were weakened, which were beneficial to electron transfer and the oxidation-reduction cycle of SCR. The coexisting of Mn and Fe promoted the dispersion of Fe, resulted in high amounts of Oa, Mn4+ and Fe3+ which facilitated the adsorption and activization of NH3 over Mn-Fe/SAPO-34 catalyst. The Brønsted and Lewis acid sites participate in NH3-SCR, and the adsorbed nitrate species could quickly react with the adsorbed NH3 species via the Langmuir-Hinshelwood (L-H) mechanism. The Mn-Fe/SAPO-34 integrated the advantages of low-cost, resource saving and environment friendly, giving a low-carbon and sustainable choice for the industrial application of NOx abatement." @default.
- W4200438243 created "2021-12-31" @default.
- W4200438243 creator A5021317456 @default.
- W4200438243 creator A5023818485 @default.
- W4200438243 creator A5025644170 @default.
- W4200438243 creator A5057836481 @default.
- W4200438243 creator A5088637185 @default.
- W4200438243 date "2022-04-01" @default.
- W4200438243 modified "2023-10-09" @default.
- W4200438243 title "Low-cost Mn–Fe/SAPO-34 catalyst from natural ferromanganese ore and lithium-silicon-powder waste for efficient low-temperature NH3-SCR removal of NO" @default.
- W4200438243 cites W1435335107 @default.
- W4200438243 cites W1469230442 @default.
- W4200438243 cites W1819425411 @default.
- W4200438243 cites W1969731086 @default.
- W4200438243 cites W1971930081 @default.
- W4200438243 cites W1995932750 @default.
- W4200438243 cites W2001969779 @default.
- W4200438243 cites W2015493479 @default.
- W4200438243 cites W2019037438 @default.
- W4200438243 cites W2021583259 @default.
- W4200438243 cites W2024988396 @default.
- W4200438243 cites W2027134037 @default.
- W4200438243 cites W2038486653 @default.
- W4200438243 cites W2057809354 @default.
- W4200438243 cites W2096035924 @default.
- W4200438243 cites W2171957714 @default.
- W4200438243 cites W2314311161 @default.
- W4200438243 cites W2316433103 @default.
- W4200438243 cites W2316588721 @default.
- W4200438243 cites W2321568999 @default.
- W4200438243 cites W2330491655 @default.
- W4200438243 cites W2415204498 @default.
- W4200438243 cites W2514447620 @default.
- W4200438243 cites W2576447202 @default.
- W4200438243 cites W2587763597 @default.
- W4200438243 cites W2590099529 @default.
- W4200438243 cites W2673480290 @default.
- W4200438243 cites W268170083 @default.
- W4200438243 cites W2790849930 @default.
- W4200438243 cites W2790989351 @default.
- W4200438243 cites W2860117484 @default.
- W4200438243 cites W2922148984 @default.
- W4200438243 cites W2942145485 @default.
- W4200438243 cites W2945233008 @default.
- W4200438243 cites W2965233424 @default.
- W4200438243 cites W2981886173 @default.
- W4200438243 cites W2990601224 @default.
- W4200438243 cites W2999711024 @default.
- W4200438243 cites W2999846658 @default.
- W4200438243 cites W3000023365 @default.
- W4200438243 cites W3009841942 @default.
- W4200438243 cites W3013087927 @default.
- W4200438243 cites W3020504339 @default.
- W4200438243 cites W3020698698 @default.
- W4200438243 cites W3025148384 @default.
- W4200438243 cites W3027577685 @default.
- W4200438243 cites W3135787164 @default.
- W4200438243 cites W3172261195 @default.
- W4200438243 doi "https://doi.org/10.1016/j.chemosphere.2021.133465" @default.
- W4200438243 hasPubMedId "https://pubmed.ncbi.nlm.nih.gov/34973259" @default.
- W4200438243 hasPublicationYear "2022" @default.
- W4200438243 type Work @default.
- W4200438243 citedByCount "9" @default.
- W4200438243 countsByYear W42004382432022 @default.
- W4200438243 countsByYear W42004382432023 @default.
- W4200438243 crossrefType "journal-article" @default.
- W4200438243 hasAuthorship W4200438243A5021317456 @default.
- W4200438243 hasAuthorship W4200438243A5023818485 @default.
- W4200438243 hasAuthorship W4200438243A5025644170 @default.
- W4200438243 hasAuthorship W4200438243A5057836481 @default.
- W4200438243 hasAuthorship W4200438243A5088637185 @default.
- W4200438243 hasConcept C105923489 @default.
- W4200438243 hasConcept C134018914 @default.
- W4200438243 hasConcept C150394285 @default.
- W4200438243 hasConcept C15752686 @default.
- W4200438243 hasConcept C161790260 @default.
- W4200438243 hasConcept C178790620 @default.
- W4200438243 hasConcept C179104552 @default.
- W4200438243 hasConcept C185592680 @default.
- W4200438243 hasConcept C203032635 @default.
- W4200438243 hasConcept C2778541603 @default.
- W4200438243 hasConcept C528890316 @default.
- W4200438243 hasConcept C544956773 @default.
- W4200438243 hasConcept C67443715 @default.
- W4200438243 hasConcept C71924100 @default.
- W4200438243 hasConceptScore W4200438243C105923489 @default.
- W4200438243 hasConceptScore W4200438243C134018914 @default.
- W4200438243 hasConceptScore W4200438243C150394285 @default.
- W4200438243 hasConceptScore W4200438243C15752686 @default.
- W4200438243 hasConceptScore W4200438243C161790260 @default.
- W4200438243 hasConceptScore W4200438243C178790620 @default.
- W4200438243 hasConceptScore W4200438243C179104552 @default.
- W4200438243 hasConceptScore W4200438243C185592680 @default.
- W4200438243 hasConceptScore W4200438243C203032635 @default.
- W4200438243 hasConceptScore W4200438243C2778541603 @default.
- W4200438243 hasConceptScore W4200438243C528890316 @default.
- W4200438243 hasConceptScore W4200438243C544956773 @default.
- W4200438243 hasConceptScore W4200438243C67443715 @default.