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Energy Transfer from Photosystem I to Thermally Reduced Graphene Oxide

机译:能量从光系统I转移到热还原的氧化石墨烯

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摘要

The energy transfer from photosynthetic complex photosystem I to thermally reduced graphene oxide was studied using fluorescence microscopy and spectroscopy, and compared against the structure in which monolayer epitaxial graphene was used as the energy acceptor. We find that the properties of reduced graphene oxide (rGO) as an energy acceptor is qualitatively similar to that of epitaxial graphene. Fluorescence quenching, which in addition to shortening of fluorescence decay, is a signature of energy transfer varies across rGO substrates and correlates with the transmission pattern. We conclude that the efficiency of the energy transfer depends on the number of rGO layers in the flakes and decreases with this number. Furthermore, careful analysis of fluorescence imaging data confirms that the energy transfer efficiency dependence on the excitation wavelength, also varies with the number of rGO flakes.
机译:使用荧光显微镜和光谱学研究了从光合复合光系统I到热还原氧化石墨烯的能量转移,并将其与以单层外延石墨烯作为能量受体的结构进行了比较。我们发现,还原的氧化石墨烯(rGO)作为能量受体的性质在质量上与外延石墨烯相似。除缩短荧光衰减外,荧光猝灭是能量转移的标志,其跨rGO底物变化并与透射模式相关。我们得出的结论是,能量转移的效率取决于薄片中rGO层的数量,并随着数量的增加而降低。此外,对荧光成像数据的仔细分析证实,能量传输效率取决于激发波长,也随rGO薄片的数量而变化。

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