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Light harvesting , energy transfer

Light harvesting Energy transfer Light emission 1 2 3... [Pg.228]

Chrisstoffels, L. A. J. Adronov, A. Frechet, J. M. J. Surface-Confined Light Harvesting, Energy Transfer, and Amplification of Fluorescence Emission in Chromophore-Labeled Self-Assembled Monolayers. Angew. Chem. Int. Ed. 2000, 39, 2163-2167... [Pg.112]

Keywords Dendrimer Light harvesting Energy transfer FRET... [Pg.88]

PHOTOSYNTHETIC LIGHT-HARVESTING -ENERGY TRANSFER AND TRAPPING... [Pg.144]

Schematic representation of a photosynthetic reaction center in a molecular assembly with an A/S/D triad and an antenna molecule (H) for light harvesting Energy diagram for energy transfer and... [Pg.121]

Fig. 31 Schematic representation of the artificial photosynthetic reaction center by a monolayer assembly of antenna (H) and A-S-D triad molecules for light harvesting, energy migration and transfer, and charge separation via multistep electron transfer. Fig. 31 Schematic representation of the artificial photosynthetic reaction center by a monolayer assembly of antenna (H) and A-S-D triad molecules for light harvesting, energy migration and transfer, and charge separation via multistep electron transfer.
With tlie development of femtosecond laser teclmology it has become possible to observe in resonance energy transfer some apparent manifestations of tire coupling between nuclear and electronic motions. For example in photosyntlietic preparations such as light-harvesting antennae and reaction centres [32, 46, 47 and 49] such observations are believed to result eitlier from oscillations between tire coupled excitonic levels of dimers (generally multimers), or tire nuclear motions of tire cliromophores. This is a subject tliat is still very much open to debate, and for extensive discussion we refer tire reader for example to [46, 47, 50, 51 and 55]. A simplified view of tire subject can nonetlieless be obtained from tire following semiclassical picture. [Pg.3027]

Polivka, T., M. Pellnor, E. Melo, T. Pascher, V. Sundstrom, A. Osuka, and K. R. Naqvi. 2007. Polarity-tuned energy transfer efficiency in artificial light-harvesting antennae containing carbonyl carotenoids peridi-nin and fucoxanthin. J. Phys. Chem. C 110 467 -76. [Pg.156]


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