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Еxcitation Energy Relaxation Processes Involving Chlorophyll Molecules In Vitro: Solutions and Self-Organized Nanoassemblies

  • Selected articles originally published in Russian in Rossiiskii Khimicheskii Zhurnal (Russian Chemistry Journal)
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Abstract

The review presents the main results obtained by the Belorussian scientific school of Acad. G.P. Gurinovich and his followers in the in the research on the spectral kinetic properties and photonics of pigment-pigment interactions of chlorophyll and its close analogs in vitro (from highly concentrated solutions to structurally organized heterogeneous nanoassemblies of various morphology), as well as on the interactions of multiporphyrin nanoassemblies with molecular oxygen. The adequacy of various theoretical models that describe the primary processes of photosynthesis (electronic excitation energy transfer and photoinduced charge transport) at short interchromophore distances, considering the properties of the medium and the conformational dynamics of interacting subunits, is substantiated. Application-oriented aspects concerning the use of multicomponent nanostructures on the basis of photostable tetrapyrrole compounds with controllable electron-transport properties and conformational mobility for the development of element base in molecular electronics, photonics, medicine, and nanobiotechnology are considered in brief.

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Acknowledgments

The research, the results of which are described and discussed in the present review, have been carried out for many years. A number of publications cited here were created in the co-authorship of Belarussian scientists with scientists from Russia, Ukraine, Germany, Finland, and Poland. I consider it my pleasant duty to express gratitude to all the co-authors (highly qualified specialists in chemistry, spectroscopy, and photonics), the collaborative work with whom was interesting and fruitful.

Funding

Over the past years these studies have been supported by national projects in the frameworks of the “Nanomaterials and Nanotechnologies 6.18 Light-Harvesting Antenna Systems on the Basis of Self-Assembled Ensembles of Semiconductor Nanoparticles” State integrated scientific research program; #x201C;Convergence” 3.2.08 Photophysics of Nanobioconjugates, Semiconductor and Metal Nanostructures and Supramolecular Complexes and Their Biomedical Applications” State program for scientific research; “Convergence,” Task: Convergence- 2020 3.03: Investigate the Properties of Integrated Nanostructures and Develop Methods of Diagnosis and Propose Their Applications” State program for scientific research, as well as a number of international grants in the frameworks of the “Self-Organization of Single Molecules on Single Quantum Dots” Volkswagen International Project (no. 1/79 435); #x201C;Spectroscopy of Single Nano-objects Immobilized on Heterogeneous Surfaces” Grant of the German Society for Academic Exchanges (DAAD) (no. A/08/08573); “Controlled Diffusion in nanomaterials” International project DFG Priority Unit FOR 877, Sachsischen Forschengruppe; “Metal Complexes of Macrocyclic Compounds for Photonic Devices” International project H2020-MSCA-RISE-2014-METCOPH (grant no. 645628); and “Electronic Properties of Light-Harvesting Proteins” International project ECO-NET (program no. 18905YD).

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    E. I. Zenkevich

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Russian Text © The Author(s), 2017, published in Rossiiskii Khimicheskii Zhurnal, 2017, Vol. 61, No. 3, pp. 110–142.

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Zenkevich, E.I. Еxcitation Energy Relaxation Processes Involving Chlorophyll Molecules In Vitro: Solutions and Self-Organized Nanoassemblies. Russ J Gen Chem 89, 2650–2681 (2019). https://doi.org/10.1134/S1070363219120442

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