AI Article Synopsis
- Researchers are focusing on enhancing electron transfer between donor-acceptor interfaces, a field that remains underexplored.
- The study demonstrates a significant 120% improvement in electron injection efficiency from cationic porphyrin to graphene carboxylate by using β-cyclodextrin to control charge localization.
- The text also outlines the detailed mechanism behind this enhanced electron transfer process.
Article Abstract
Controlling the electron transfer process at donor-acceptor interfaces is a research direction that has not yet seen much progress. Here, with careful control of the charge localization on the porphyrin macrocycle using β-cyclodextrin as an external cage, we are able to improve the electron injection efficiency from cationic porphyrin to graphene carboxylate by 120%. The detailed reaction mechanism is also discussed.
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| http://dx.doi.org/10.1039/c5cp02362a | DOI Listing |
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