DNA-mediated electron transfer: Chemistry at a distance
Creators
Abstract
The DNA double helix, containing a π-stacked array of base pairs in its core, represents a unique and efficient medium for long-range charge transport. DNA assemblies have been constructed containing tethered metallointercalators, and these provide chemically well-defined systems through which to probe the DNA π-stack. Using both spectroscopy and chemical assays of reactivity, we find electron transfer reactions mediated by the DNA base pairs to occur over long molecular distances. The structure of DNA facilitates chemistry at a distance. Importantly, these long-range reactions depend sensitively upon base pair stacking, and hence are modulated by and report on the characteristic stacking within the double helix.
Additional Information
© 1998 IUPAC. I am grateful to the NIH for their financial support of this work (GM33309 and GM49216). I am also indebted to my coworkers and collaborators for their efforts in the exploration of this chemistry.Attached Files
Published - _Pure_and_Applied_Chemistry__DNA-mediated_electron_transfer_Chemistry_at_a_distance.pdf
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_Pure_and_Applied_Chemistry__DNA-mediated_electron_transfer_Chemistry_at_a_distance.pdf
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Additional details
Identifiers
- Eprint ID
- 88653
- Resolver ID
- CaltechAUTHORS:20180808-100416627
Funding
- NIH
- GM33309
- NIH
- GM49216
Dates
- Created
-
2018-08-08Created from EPrint's datestamp field
- Updated
-
2021-11-16Created from EPrint's last_modified field