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- W2022043018 abstract "Magnetic Pd–Co bimetallic nanoparticles supported on reduced graphene oxide sheets (Pd–Co/RGO) with excellent electrocatalytic performance have been synthesized by a rapid reducing method, using sodium hypophosphite as the reducing agent. The loading and crystalline phase of cobalt in the Pd–Co/RGO hybrids varied as to the initial amount of cobalt salt and reducing agent. Transmission electron microscopy images show that the mean size of the Pd–Co bimetallic nanoparticles was about 10–13 nm and without significant agglomeration. At the same Pd loading on graphene, the current densities of the forward anodic peak of the different Pd–Co/RGO catalysts was decreased by about 25% when compared with that of the pure Pd nanoparticles supported on reduced graphene oxide for both methanol and ethanol oxidation. However, chronoamperometry tests confirmed that the stability was increased by up to 240% and 225% for methanol oxidation and ethanol oxidation, respectively. It is hypothesized that the Co layer on Pd partially blocks Pd sites sacrificing a small portion of the activity of the catalysts, but it leaves the remaining Pd more active and thus enhances alcohol oxidation kinetics and tolerance to poisoning intermediates. Catalytic performance of the Pd–Co/RGO hybrids for alcohol oxidation is primarily affected by the interaction among Pd, Co, and graphene." @default.
- W2022043018 created "2016-06-24" @default.
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- W2022043018 date "2014-01-01" @default.
- W2022043018 modified "2023-10-15" @default.
- W2022043018 title "Synthesis and electrocatalytic alcohol oxidation performance of Pd–Co bimetallic nanoparticles supported on graphene" @default.
- W2022043018 cites W1965371144 @default.
- W2022043018 cites W1970927027 @default.
- W2022043018 cites W1978690797 @default.
- W2022043018 cites W1980623871 @default.
- W2022043018 cites W1986340745 @default.
- W2022043018 cites W1987455488 @default.
- W2022043018 cites W1989597045 @default.
- W2022043018 cites W1990102275 @default.
- W2022043018 cites W1993739680 @default.
- W2022043018 cites W1997164642 @default.
- W2022043018 cites W1998857117 @default.
- W2022043018 cites W1999235232 @default.
- W2022043018 cites W2000012828 @default.
- W2022043018 cites W2000249280 @default.
- W2022043018 cites W2000365149 @default.
- W2022043018 cites W2007159183 @default.
- W2022043018 cites W2007293350 @default.
- W2022043018 cites W2008173219 @default.
- W2022043018 cites W2009931844 @default.
- W2022043018 cites W2010035078 @default.
- W2022043018 cites W2010971702 @default.
- W2022043018 cites W2014607415 @default.
- W2022043018 cites W2015280582 @default.
- W2022043018 cites W2016884175 @default.
- W2022043018 cites W2017824955 @default.
- W2022043018 cites W2019889716 @default.
- W2022043018 cites W2019907191 @default.
- W2022043018 cites W2022574668 @default.
- W2022043018 cites W2023477752 @default.
- W2022043018 cites W2023694785 @default.
- W2022043018 cites W2024509406 @default.
- W2022043018 cites W2026241856 @default.
- W2022043018 cites W2027069246 @default.
- W2022043018 cites W2030432418 @default.
- W2022043018 cites W2034619601 @default.
- W2022043018 cites W2034711707 @default.
- W2022043018 cites W2040698930 @default.
- W2022043018 cites W2041578606 @default.
- W2022043018 cites W2041744493 @default.
- W2022043018 cites W2042697969 @default.
- W2022043018 cites W2051393837 @default.
- W2022043018 cites W2056780306 @default.
- W2022043018 cites W2058501819 @default.
- W2022043018 cites W2059275884 @default.
- W2022043018 cites W2064388714 @default.
- W2022043018 cites W2065090407 @default.
- W2022043018 cites W2066070486 @default.
- W2022043018 cites W2067109287 @default.
- W2022043018 cites W2068267854 @default.
- W2022043018 cites W2069201597 @default.
- W2022043018 cites W2070346471 @default.
- W2022043018 cites W2072135356 @default.
- W2022043018 cites W2072851026 @default.
- W2022043018 cites W2073654855 @default.
- W2022043018 cites W2074131184 @default.
- W2022043018 cites W2075184863 @default.
- W2022043018 cites W2075456371 @default.
- W2022043018 cites W2083072981 @default.
- W2022043018 cites W2083274401 @default.
- W2022043018 cites W2086302588 @default.
- W2022043018 cites W2093896534 @default.
- W2022043018 cites W2094889895 @default.
- W2022043018 cites W2112289827 @default.
- W2022043018 cites W2114351820 @default.
- W2022043018 cites W2141484758 @default.
- W2022043018 cites W2146564548 @default.
- W2022043018 cites W2316325957 @default.
- W2022043018 cites W2343498834 @default.
- W2022043018 cites W2736099982 @default.
- W2022043018 cites W4233194460 @default.
- W2022043018 doi "https://doi.org/10.1016/j.ijhydene.2013.11.002" @default.
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