4.8 Article

A nanoscale bio-inspired light-harvesting system developed from self-assembled alkyl-functionalized metallochlorin nano-aggregates

Journal

NANOSCALE
Volume 6, Issue 16, Pages 9625-9631

Publisher

ROYAL SOC CHEMISTRY
DOI: 10.1039/c4nr01661k

Keywords

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Funding

  1. Scientific and Technological Research Council of Turkey, TUBITAK [110M803]
  2. Polish National Science Center in the framework of European Science Foundation [844/N-ESF-EuroSolarFuels/10/2011/0, ESF-EUROCORES-EuroSolarFuels-10-FP-006]
  3. Higher Education Commission (HEC), Government of Pakistan

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Self-assembled supramolecular organization of nano-structured biomimetic light-harvesting modules inside solid-state nano-templates can be exploited to develop excellent light-harvesting materials for artificial photosynthetic devices. We present here a hybrid light-harvesting system mimicking the chlorosomal structures of the natural photosynthetic system using synthetic Zinc chlorin units (ZnChl-C-6, ZnChl-C-12 and ZnChl-C-18) that are self-aggregated inside the anodic aluminum oxide (MO) nano-channel membranes. MO nano-templates were modified with a TiO2 matrix and functionalized with long hydrophobic chains to facilitate the formation of supramolecular Zn-chlorin aggregates. The transparent Zn-chlorin nano-aggregates inside the alkyl-TiO2 modified AAO nano-channels have a diameter of similar to 120 nm in a 60 mu m length channel. UV-Vis studies and fluorescence emission spectra further confirm the formation of the supramolecular ZnChl aggregates from monomer molecules inside the alkyl-functionalized nano-channels. Our results prove that the novel and unique method can be used to produce efficient and stable light-harvesting assemblies for effective solar energy capture through transparent and stable nano-channel ceramic materials modified with bio-mimetic molecular self-assembled nano-aggregates.

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