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- W2555532919 abstract "Methane dry reforming (MDR) is a very important reaction, which can efficiently use two kinds of greenhouse gases (CO2 and CH4) to prepare synthesis gas or produce green hydrogen energy. What inhibits the industrialization of MDR is the sintering of active Ni nanoparticles and severe carbon deposition for Ni-based catalysts. To resolve these problems, a novel structured catalyst with multiple ultra-small Ni nanoparticles (4.3 nm) as the core and microporous silica as the shell was rationally fabricated by a facial one-pot reverse micelle method and applied for MDR. The multiple-cores@shell (M-Ni@SiO2) catalyst displays superior carbon resistance and long-term durability with the methane and carbon dioxide conversion close to thermodynamic equilibrium and a H2 to CO molar ratio near 1, whereas the commercial catalyst, Ni/Al2O3, and Ni directly supported on silica spheres (Ni/SiO2) show low stability and notable carbon deposition. The ultra-small Ni particle size and confinement effect of the porous silica shell are believed to be the determining factors for the outstanding performance of the multiple-cores@shell catalyst. The novel multiple-cores@shell structure catalyst could be potentially used for industrial applications of MDR." @default.
- W2555532919 created "2016-11-30" @default.
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- W2555532919 date "2016-12-14" @default.
- W2555532919 modified "2023-10-18" @default.
- W2555532919 title "One-Pot Facile Fabrication of Multiple Nickel Nanoparticles Confined in Microporous Silica Giving a Multiple-Cores@Shell Structure as a Highly Efficient Catalyst for Methane Dry Reforming" @default.
- W2555532919 cites W1409429471 @default.
- W2555532919 cites W1496473416 @default.
- W2555532919 cites W1757516076 @default.
- W2555532919 cites W1802105146 @default.
- W2555532919 cites W1840655355 @default.
- W2555532919 cites W1885984895 @default.
- W2555532919 cites W1963877576 @default.
- W2555532919 cites W1966124416 @default.
- W2555532919 cites W1967232849 @default.
- W2555532919 cites W1967654082 @default.
- W2555532919 cites W1968881082 @default.
- W2555532919 cites W1969636624 @default.
- W2555532919 cites W1972538597 @default.
- W2555532919 cites W1982307633 @default.
- W2555532919 cites W1992535219 @default.
- W2555532919 cites W1993665813 @default.
- W2555532919 cites W1999885356 @default.
- W2555532919 cites W2004817851 @default.
- W2555532919 cites W2012225586 @default.
- W2555532919 cites W2012283563 @default.
- W2555532919 cites W2025431475 @default.
- W2555532919 cites W2026037644 @default.
- W2555532919 cites W2034495469 @default.
- W2555532919 cites W2035649370 @default.
- W2555532919 cites W2040870539 @default.
- W2555532919 cites W2044222934 @default.
- W2555532919 cites W2044658035 @default.
- W2555532919 cites W2051649381 @default.
- W2555532919 cites W2062081304 @default.
- W2555532919 cites W2065218737 @default.
- W2555532919 cites W2067963049 @default.
- W2555532919 cites W2070415453 @default.
- W2555532919 cites W2085996281 @default.
- W2555532919 cites W2086057517 @default.
- W2555532919 cites W2086848717 @default.
- W2555532919 cites W2088034900 @default.
- W2555532919 cites W2088518183 @default.
- W2555532919 cites W2094094665 @default.
- W2555532919 cites W2094612090 @default.
- W2555532919 cites W2097065715 @default.
- W2555532919 cites W2104201894 @default.
- W2555532919 cites W2113498396 @default.
- W2555532919 cites W2113720400 @default.
- W2555532919 cites W2119741652 @default.
- W2555532919 cites W2119851128 @default.
- W2555532919 cites W2122690037 @default.
- W2555532919 cites W2127950659 @default.
- W2555532919 cites W2143844135 @default.
- W2555532919 cites W2155365079 @default.
- W2555532919 cites W2159981836 @default.
- W2555532919 cites W2161581779 @default.
- W2555532919 cites W2212829861 @default.
- W2555532919 cites W2223573019 @default.
- W2555532919 cites W2228258319 @default.
- W2555532919 cites W2258028467 @default.
- W2555532919 cites W2288850403 @default.
- W2555532919 cites W2301250784 @default.
- W2555532919 cites W2314143031 @default.
- W2555532919 cites W2320709400 @default.
- W2555532919 cites W2324545713 @default.
- W2555532919 cites W2329808910 @default.
- W2555532919 cites W2330515242 @default.
- W2555532919 cites W2331890616 @default.
- W2555532919 cites W2333272809 @default.
- W2555532919 cites W234089688 @default.
- W2555532919 cites W2343172743 @default.
- W2555532919 cites W2346342427 @default.
- W2555532919 cites W4241719945 @default.
- W2555532919 cites W4252866408 @default.
- W2555532919 cites W820280006 @default.
- W2555532919 doi "https://doi.org/10.1002/cctc.201601263" @default.
- W2555532919 hasPublicationYear "2016" @default.
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