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- W4312194101 abstract "Abstract In the field of artificial photosynthesis with semiconductor light harvesters, the default cocatalyst morphologies are isotropic, 0D nanoparticles. Herein, the use of highly anisotropic 2D ruthenium oxide nanosheet (RONS) cocatalysts as an approach to enhance photocatalytic oxygen evolution (OER) rates on commercial WO 3 nanoparticles (0D light harvester) is presented. At optimal cocatalyst loadings and identical photocatalysis conditions, WO 3 impregnated with RONS (RONS/WO 3 ) shows a fivefold increase in normalized photonic efficiency compared to when it is impregnated with conventional ruthenium oxide (rutile) nanoparticles (RONP/WO 3 ). The superior RONS/WO 3 performance is attributed to two special properties of the RONS: i) lower electrochemical water oxidation overpotential for RONS featuring highly active edge sites, and ii) decreased parasitic light absorption on RONS. Evidence is presented that OER photocatalytic performance can be doubled with control of RONS edges and it is shown that compared to WO 3 impregnated with RONP, the advantageous optical properties and geometry of RONS decrease the fraction of light absorbed by the cocatalyst, thus reducing the parasitic light absorption on the RONS/WO 3 composite. Therefore, the results presented in the current study are expected to promote engineering of cocatalyst morphology as a complementary concept to optimize light harvester‐cocatalyst composites for enhanced photocatalytic efficiency." @default.
- W4312194101 created "2023-01-04" @default.
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- W4312194101 date "2022-12-22" @default.
- W4312194101 modified "2023-10-03" @default.
- W4312194101 title "Morphology Matters: 0D/2D WO<sub>3</sub> Nanoparticle‐Ruthenium Oxide Nanosheet Composites for Enhanced Photocatalytic Oxygen Evolution Reaction Rates" @default.
- W4312194101 cites W1883006189 @default.
- W4312194101 cites W1912217051 @default.
- W4312194101 cites W1969111467 @default.
- W4312194101 cites W1973429908 @default.
- W4312194101 cites W1979112470 @default.
- W4312194101 cites W1980181380 @default.
- W4312194101 cites W1997098789 @default.
- W4312194101 cites W2009876205 @default.
- W4312194101 cites W2012513544 @default.
- W4312194101 cites W2025806519 @default.
- W4312194101 cites W2029198215 @default.
- W4312194101 cites W2031706603 @default.
- W4312194101 cites W2043035923 @default.
- W4312194101 cites W2076614020 @default.
- W4312194101 cites W2085187957 @default.
- W4312194101 cites W2107019101 @default.
- W4312194101 cites W2123449021 @default.
- W4312194101 cites W2126351671 @default.
- W4312194101 cites W2137525974 @default.
- W4312194101 cites W2138007064 @default.
- W4312194101 cites W2146349866 @default.
- W4312194101 cites W2146505269 @default.
- W4312194101 cites W2159433467 @default.
- W4312194101 cites W2163162480 @default.
- W4312194101 cites W2165332053 @default.
- W4312194101 cites W2215217864 @default.
- W4312194101 cites W2289094291 @default.
- W4312194101 cites W2297655526 @default.
- W4312194101 cites W2298068275 @default.
- W4312194101 cites W2302934534 @default.
- W4312194101 cites W2315892119 @default.
- W4312194101 cites W2316152954 @default.
- W4312194101 cites W2317104789 @default.
- W4312194101 cites W2319304948 @default.
- W4312194101 cites W2320216879 @default.
- W4312194101 cites W2325593871 @default.
- W4312194101 cites W2330825700 @default.
- W4312194101 cites W2419263803 @default.
- W4312194101 cites W2474049064 @default.
- W4312194101 cites W2512824101 @default.
- W4312194101 cites W2514233363 @default.
- W4312194101 cites W2521973612 @default.
- W4312194101 cites W2559874752 @default.
- W4312194101 cites W2560456485 @default.
- W4312194101 cites W2560655910 @default.
- W4312194101 cites W2576332317 @default.
- W4312194101 cites W2615076233 @default.
- W4312194101 cites W2735153813 @default.
- W4312194101 cites W2741257603 @default.
- W4312194101 cites W2763525349 @default.
- W4312194101 cites W2766998401 @default.
- W4312194101 cites W2786530619 @default.
- W4312194101 cites W2789426963 @default.
- W4312194101 cites W2797053326 @default.
- W4312194101 cites W2797654891 @default.
- W4312194101 cites W2888197577 @default.
- W4312194101 cites W2888760721 @default.
- W4312194101 cites W2888944255 @default.
- W4312194101 cites W2896858547 @default.
- W4312194101 cites W2917007993 @default.
- W4312194101 cites W2921275266 @default.
- W4312194101 cites W2930194321 @default.
- W4312194101 cites W2942690935 @default.
- W4312194101 cites W2948342548 @default.
- W4312194101 cites W2950423376 @default.
- W4312194101 cites W2967197658 @default.
- W4312194101 cites W2980319131 @default.
- W4312194101 cites W2989971411 @default.
- W4312194101 cites W3035572072 @default.
- W4312194101 cites W3035994161 @default.
- W4312194101 cites W3036131297 @default.
- W4312194101 cites W3045708179 @default.
- W4312194101 cites W3047500401 @default.
- W4312194101 cites W3119044046 @default.
- W4312194101 cites W3126737524 @default.
- W4312194101 cites W3127363584 @default.
- W4312194101 cites W3160348014 @default.
- W4312194101 cites W3164017933 @default.
- W4312194101 cites W4234979959 @default.
- W4312194101 doi "https://doi.org/10.1002/aenm.202203315" @default.
- W4312194101 hasPublicationYear "2022" @default.
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