photoelectrochemical water splitting;
electric fields;
molecular simulation;
hydrogen;
DYNAMICAL PROPERTIES;
MOLECULAR-DYNAMICS;
CHARGE SEPARATION;
WATER;
HYDROGEN;
PHOTOANODE;
CATALYSIS;
PHOTOELECTROLYSIS;
PHOTOCATALYSIS;
RECOMBINATION;
D O I:
10.3390/en15041553
中图分类号:
TE [石油、天然气工业];
TK [能源与动力工程];
学科分类号:
0807 ;
0820 ;
摘要:
The grand challenges in renewable energy lie in our ability to comprehend efficient energy conversion systems, together with dealing with the problem of intermittency via scalable energy storage systems. Relatively little progress has been made on this at grid scale and two overriding challenges still need to be addressed: (i) limiting damage to the environment and (ii) the question of environmentally friendly energy conversion. The present review focuses on a novel route for producing hydrogen, the ultimate clean fuel, from the Sun, and renewable energy source. Hydrogen can be produced by light-driven photoelectrochemical (PEC) water splitting, but it is very inefficient; rather, we focus here on how electric fields can be applied to metal oxide/water systems in tailoring the interplay with their intrinsic electric fields, and in how this can alter and boost PEC activity, drawing both on experiment and non-equilibrium molecular simulation.
机构:
UNIV CARLOS III MADRID,ESCUELA POLIT SUPERIOR,GRP INTERDISCIPLINAR SISTEMAS COMPLICADOS,LEGANES,MADRID,SPAINUNIV CARLOS III MADRID,ESCUELA POLIT SUPERIOR,GRP INTERDISCIPLINAR SISTEMAS COMPLICADOS,LEGANES,MADRID,SPAIN
Castro, M
DominguezAdame, F
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h-index: 0
机构:
UNIV CARLOS III MADRID,ESCUELA POLIT SUPERIOR,GRP INTERDISCIPLINAR SISTEMAS COMPLICADOS,LEGANES,MADRID,SPAINUNIV CARLOS III MADRID,ESCUELA POLIT SUPERIOR,GRP INTERDISCIPLINAR SISTEMAS COMPLICADOS,LEGANES,MADRID,SPAIN