Time-dependent density-functional theory for open electronic systems

Time-dependent density-functional theory(TDDFT)has been successfully applied to predict excited-state properties of isolated and periodic systems.However,it cannot address a system coupled to an environment or whose number of electrons is not conserved.To tackle these problems,TDDFT needs to be exte...

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Veröffentlicht in:Science China. Chemistry 2014, Vol.57 (1), p.26-35
Hauptverfasser: Zheng, Xiao, Wang, RuLin
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description Time-dependent density-functional theory(TDDFT)has been successfully applied to predict excited-state properties of isolated and periodic systems.However,it cannot address a system coupled to an environment or whose number of electrons is not conserved.To tackle these problems,TDDFT needs to be extended to accommodate open systems.This paper provides a comprehensive account of the recent developments of TDDFT for open systems(TDDFT-OS),including both theoretical and practical aspects.The practicality and accuracy of a latest TDDFT-OS method is demonstrated with two numerical examples:the time-dependent electron transport through a series of quasi-one-dimensional atomic chains,and the real-time electronic dynamics on a two-dimensional graphene surface.The advancement of TDDFT-OS may lead to promising applications in various fields of chemistry,including energy conversion and heterogeneous catalysis.
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subjects Chemistry
Chemistry and Materials Science
Chemistry/Food Science
density
Density functional theory
dynamics,hierarchical
Electron transport
electronic
Electronic systems
Energy conversion
equations
Feature Articles
functional
Graphene
motion
Open systems
theory,real-time
Time dependence
time-dependent
title Time-dependent density-functional theory for open electronic systems
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