Single-molecule DNA conductance in water solutions: Role of explicit water-counterion sheath and chemical modification of nucleobases
Biophysical Reviews and Letters 4, 231 (2009).
E. B. Starikov, C. Nganou, K. H. Lee, G. Cuniberti, and W. Wenzel.
Journal DOI: https://doi.org/10.1142/S1793048009001046

Dependence of charge transmission through several conventional and extended DNA duplexes on the explicit presence of their water-counterion surrounding has been theoretically studied. We show here that: (a) the latter does not form specific charge transmission channels in addition to those available in DNA duplexes themselves; (b) chemically modifying DNA bases to extend their -electronic systems does not significantly alter time-averaged charge transmission probability through DNA duplexes.

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Single-molecule DNA conductance in water solutions: Role of explicit water-counterion sheath and chemical modification of nucleobases
Biophysical Reviews and Letters 4, 231 (2009).
E. B. Starikov, C. Nganou, K. H. Lee, G. Cuniberti, and W. Wenzel.
Journal DOI: https://doi.org/10.1142/S1793048009001046

Dependence of charge transmission through several conventional and extended DNA duplexes on the explicit presence of their water-counterion surrounding has been theoretically studied. We show here that: (a) the latter does not form specific charge transmission channels in addition to those available in DNA duplexes themselves; (b) chemically modifying DNA bases to extend their -electronic systems does not significantly alter time-averaged charge transmission probability through DNA duplexes.

Cover
©https://doi.org/10.1142/S1793048009001046
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Involved Scientists