Abstract Using spin polarized DFT, we performed mechanistic studies of methane dry reforming on Cu-Ni bimetallic surfaces. We computed the local density of states (LDOS) of intermediates/surfaces to analyse chemical… Click to show full abstract
Abstract Using spin polarized DFT, we performed mechanistic studies of methane dry reforming on Cu-Ni bimetallic surfaces. We computed the local density of states (LDOS) of intermediates/surfaces to analyse chemical bonding on different Cu-Ni alloys. Our results show that carbon resistance of low Cu amount surfaces is related to a reduced interaction of CH 1π orbital with 3d states. Likewise, the lowering of (1π, 2π* −3d) binding intensity, catalyses CO desorption rather than its retention and/or activation, enhancing CO anti-poisoning.
               
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