Matches in SemOpenAlex for { <https://semopenalex.org/work/W2082273905> ?p ?o ?g. }
- W2082273905 endingPage "264" @default.
- W2082273905 startingPage "252" @default.
- W2082273905 abstract "A density matrix based description of charge transmission through a single molecule attached to two nano-electrodes is presented. By concentrating on a steady state situation the net current, electronic state populations and nonequilibrium vibrational distributions are computed. The dependence of these quantities on the applied voltage and on a cw-infrared as well as optical excitation is discussed. Effects are included of intra-molecular vibrational energy redistribution (IVR), of different charging states, and of an electron–hole pair generation in the leads. The considerations are valid for a sequential mechanism of charge transmission through the molecule. A possible current switch due to an infrared as well as an optical excitation is demonstrated and the crucial dependence of the switching mechanism on the strength of IVR is underlined. If the molecule attached to nano-electrodes is a part of an oligomer or supramolecular chromophore complex the current can be controlled by an external field induced Frenkel-exciton formation." @default.
- W2082273905 created "2016-06-24" @default.
- W2082273905 creator A5000408212 @default.
- W2082273905 creator A5025471644 @default.
- W2082273905 date "2010-10-01" @default.
- W2082273905 modified "2023-09-23" @default.
- W2082273905 title "Charge transmission through single molecules: Effects of nonequilibrium molecular vibrations and photoinduced transitions" @default.
- W2082273905 cites W1590414784 @default.
- W2082273905 cites W1596399639 @default.
- W2082273905 cites W1964577810 @default.
- W2082273905 cites W1966786039 @default.
- W2082273905 cites W1970752942 @default.
- W2082273905 cites W1976097916 @default.
- W2082273905 cites W1976456012 @default.
- W2082273905 cites W1976833291 @default.
- W2082273905 cites W1982390920 @default.
- W2082273905 cites W1986690216 @default.
- W2082273905 cites W1987097433 @default.
- W2082273905 cites W1989620013 @default.
- W2082273905 cites W1994410684 @default.
- W2082273905 cites W2000371464 @default.
- W2082273905 cites W2004542722 @default.
- W2082273905 cites W2007520927 @default.
- W2082273905 cites W2007750600 @default.
- W2082273905 cites W2008130147 @default.
- W2082273905 cites W2010195097 @default.
- W2082273905 cites W2010693584 @default.
- W2082273905 cites W2014208343 @default.
- W2082273905 cites W2019438098 @default.
- W2082273905 cites W2030751042 @default.
- W2082273905 cites W2042666888 @default.
- W2082273905 cites W2046300665 @default.
- W2082273905 cites W2046638735 @default.
- W2082273905 cites W2047322377 @default.
- W2082273905 cites W2048789600 @default.
- W2082273905 cites W2054281546 @default.
- W2082273905 cites W2058034832 @default.
- W2082273905 cites W2058895267 @default.
- W2082273905 cites W2062174774 @default.
- W2082273905 cites W2065283564 @default.
- W2082273905 cites W2079547732 @default.
- W2082273905 cites W2087634138 @default.
- W2082273905 cites W2089608306 @default.
- W2082273905 cites W2089896158 @default.
- W2082273905 cites W2094172353 @default.
- W2082273905 cites W2095424320 @default.
- W2082273905 cites W2105707599 @default.
- W2082273905 cites W2108313061 @default.
- W2082273905 cites W2109658437 @default.
- W2082273905 cites W2120276966 @default.
- W2082273905 cites W2136960835 @default.
- W2082273905 cites W2137269591 @default.
- W2082273905 cites W2158877556 @default.
- W2082273905 cites W2162811921 @default.
- W2082273905 cites W2165951674 @default.
- W2082273905 cites W2219038621 @default.
- W2082273905 cites W2964050414 @default.
- W2082273905 cites W3098012854 @default.
- W2082273905 cites W3098090004 @default.
- W2082273905 cites W3099841968 @default.
- W2082273905 cites W3101561721 @default.
- W2082273905 cites W3103616447 @default.
- W2082273905 cites W3105817444 @default.
- W2082273905 cites W2156265977 @default.
- W2082273905 doi "https://doi.org/10.1016/j.chemphys.2010.05.021" @default.
- W2082273905 hasPublicationYear "2010" @default.
- W2082273905 type Work @default.
- W2082273905 sameAs 2082273905 @default.
- W2082273905 citedByCount "21" @default.
- W2082273905 countsByYear W20822739052012 @default.
- W2082273905 countsByYear W20822739052013 @default.
- W2082273905 countsByYear W20822739052014 @default.
- W2082273905 countsByYear W20822739052015 @default.
- W2082273905 countsByYear W20822739052018 @default.
- W2082273905 countsByYear W20822739052019 @default.
- W2082273905 countsByYear W20822739052021 @default.
- W2082273905 countsByYear W20822739052022 @default.
- W2082273905 crossrefType "journal-article" @default.
- W2082273905 hasAuthorship W2082273905A5000408212 @default.
- W2082273905 hasAuthorship W2082273905A5025471644 @default.
- W2082273905 hasConcept C120665830 @default.
- W2082273905 hasConcept C121332964 @default.
- W2082273905 hasConcept C158355884 @default.
- W2082273905 hasConcept C159467904 @default.
- W2082273905 hasConcept C17729963 @default.
- W2082273905 hasConcept C178790620 @default.
- W2082273905 hasConcept C184779094 @default.
- W2082273905 hasConcept C185592680 @default.
- W2082273905 hasConcept C192468462 @default.
- W2082273905 hasConcept C26873012 @default.
- W2082273905 hasConcept C32909587 @default.
- W2082273905 hasConcept C41999313 @default.
- W2082273905 hasConcept C62520636 @default.
- W2082273905 hasConcept C74859849 @default.
- W2082273905 hasConcept C75473681 @default.
- W2082273905 hasConcept C83581075 @default.
- W2082273905 hasConceptScore W2082273905C120665830 @default.
- W2082273905 hasConceptScore W2082273905C121332964 @default.