Abstract
We have constructed a variety of molecular assemblies of porphyrin as a donor and fullerene as an acceptor on electrodes for molecular photoelectrochemical devices. Highly efficient energy- and electron-transfer processes have been realized at gold electrodes modified with self-assembled monolayers of porphyrin- or fullerene linked systems mimicking light-harvesting and charge separation in bacterial photosynthesis. Highly ordered organization of porphyrins and fullerenes has also been achieved using step-by-step self-assembly of porphyrin and fullerene units by association with gold nanoparticles or dendrimers on tin oxide electrodes, which exhibit high power-conversion efficiency of up to 1.5%. These results will provide valuable information on the design of donor–acceptor type molecular assemblies that can be tailored to construct highly efficient organic solar cells.
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Abbreviations
- CR:
-
charge recombination
- CS:
-
charge separation
- Fc:
-
ferrocene
- FF:
-
fill factor
- IPCE:
-
incident photon-to-photocurrent efficiency
- ITO:
-
indium tin oxide
- MV2+ :
-
methyl viologen
- P:
-
porphyrin
- SAM:
-
self-assembled monolayer
- SnO2 :
-
tin oxide
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Umeyama, T., Imahori, H. Self-Organization of Porphyrins and Fullerenes for Molecular Photoelectrochemical Devices. Photosynth Res 87, 63–71 (2006). https://doi.org/10.1007/s11120-005-4632-z
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DOI: https://doi.org/10.1007/s11120-005-4632-z