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Electronic transport investigation of redox-switching of azulenequinones/hydroquinones first-principles studies
The redox switching of non-alternant azulenequinone/hydroquinone molecules is investigated using density functional theory and the nonequilibrium Green's function. We examined the electronic transport properties of these molecules when subtended between gold electrodes. The results indicated th...
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Published in: | Physical chemistry chemical physics : PCCP 2019-08, Vol.21 (32), p.17859-17867 |
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container_title | Physical chemistry chemical physics : PCCP |
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creator | Haidar, El-Abed Tawfik, Sherif Abdulkader Stampfl, Catherine Hirao, Kimihiko Yoshizawa, Kazunari El-Demerdash, Safinaz H Nakajima, Takahito El-Nahas, Ahmed M |
description | The redox switching of non-alternant azulenequinone/hydroquinone molecules is investigated using density functional theory and the nonequilibrium Green's function. We examined the electronic transport properties of these molecules when subtended between gold electrodes. The results indicated that the reduction of 1,5-azulenequinone and oxidation of 1,7-azulene hydroquinone 2,6-dithiolate lead to a significant enhancement of the current compared to the respective oxidation of 1,5-azulene hydroquinone and reduction of 1,7-azulenequinone, thus switching on the transmission. The significance of the position of the functional group on the switching behavior has been analyzed and whether destructive quantum interference exists in the electron transport of the 1,5 position in particular has been addressed. Our work provides theoretical foundations for organic redox switching components in nanoelectronic circuits.
Azulenequinone undergoes destructive quantum interference that leads to molecular switching behavior, as demonstrated by a combined first principles calculations and diagrammatic approaches. |
doi_str_mv | 10.1039/c9cp03233a |
format | article |
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title | Electronic transport investigation of redox-switching of azulenequinones/hydroquinones first-principles studies |
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