第一章
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第二章
[1] G. S. Orf and R. E. Blankenship, Chlorosome antenna complexes from green photosynthetic bacteria. Photosynth. Res. 116, 315-331(2013).
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第三章
[1] L. A. Staehelin, J. R. Golecki, and G. Drews, Supramolecular organization of Chlorosomes (Chlorobium vesicles) and their membrane attachment sites in Chlorobium limicola. Biochim. Biophys. Acta 589, 30-45 (1980).
[2] J. Psencik, T. P. Ikonen, P. Laurinmaki, M. C. Merckel,S. J. Butcher, R. E. Serimaa, and R. Tuma, Lamellar organization of pigments in chlorosomes, the light harvesting complexes of green photosynthetic bacteria. Biophys.87,1165—1172 (2004).
[3] A. Egawa, T. Fiyiwara,'r. Mizoguchi, Y. Kakitani, Y. Koyama, and H. Akutsu, Structure of the light-harvesting bacteriochlorophyll c assembly in chlorosomes from Chlorobium limicola determined by solid-state NMR. Proc. Natl. Acad. Sci. U. S. A. 104,790-795 (2007).
[4] S. Ganapathy, G. T. Oostergetel, P. K. Wawrzyniak, M. Reus, A. G. M. Chew, F. Buda, E. J. Boekema, D. A. Bryant, A. R. Holzwarth, and H. J. M. de Groot, Alternating syn-anti bacteriochlorophylls form concentric helical nanotubes in chlorosomes. Proc. Natl. Acad. Sci. U. S. A. 106. 8525-8530 (2009).
[5] S. Snqji,「. Ogawa, T. Hashishin, S. Ogasawara, H. Watanabe, H. Usami, and H. Tamiaki, Nanotubes of biomimetic supramolecules constructed by synthetic metal chlorophyll derivatives. Nano Lett.16, 3650-3654 (2016).
[6] L. M. Gunther, A. Lohner, C. Reiher, T. Kunsel,T. L. C. Jansen, M. Tank, D. A. Bryant, J. Knoester, and J. Kohler, Structural variations in chlorosomes from wild-type and a bchQR mutant of Chlorobaculum tepidum revealed by single-molecule spectroscopy. J. Phys. Chern. 4122, 6712-6723 (2018).
[7] S. Ogi, K. Sugiyasu, S. Manna, S. Samitsu, and M. Takeuchi, Living supramolecular polymerization realized through a biomimetic approach. Nat. Chern. 2014, 6,188—195 (2014)
[8] J. Kang, D. Miyajima, T. Mori, Y. Inoue, Y. Itoh, and T. Aida, A rational strategy for the realization of chain-growth supramolecular polymerization. Science 347, 646-651(2015).
[9] A. Pal,M. Malakoutikhah, G. Leonetti, M. Tezcan, M. Colomb-Delsuc, V. D. Nguyen, J. van der Gucht, and S. Otto, Controlling the structure and length of self-synthesizing supramolecular polymers through nucleated growth and disassembly. An^ew. Chern. Int. Ed. 54, 7852-7856 (2015).
[10] X. Ma, Y. Zhang, Y. Zhang, Y. Liu, Y. Che, and J. Zhao, Fabrication of chiral-selective nanotubular heterojunctions through living supramolecular polymerization. Angew. Chem. Int. Ed. 55, 9539-9543 (2016).
[11]S. Ogi, V. Stepanenko, J. Thein, and F. Wurthner, Impact of alkyl spacer length on aggregation pathways in kinetically controlled supramolecular polymerization. J. Am. Chem. Soc. 138, 670-678 (2016).
[12] K. Zhang, M. C.-L. Yeung, S. Y.-L. Leung, and V. W.-W. Yam, Living supramolecular polymerization achieved by collaborative assembly of platinum(II) complexes and block copolymers. Proc. Natl. Acad. Sci. U. S. A.114,11844-11849 (2017).
[13] S. Ogi, K. Matsumoto, and S. Yamaguchi, Seeded polymerization through the interplay of folding and aggregation of an amino-acid-based diamide. Angew. Chem. Int. Ed. 57, 2339- 2343 (2018).
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[16] S. Matsubara and H. Tamiaki, Phototriggered dynamic and biomimetic growth of chlorosomal self^aggregates. J. Am. Chern. Soc. 141, 1207-1211(2019).
[17] H. Watanabe, Y. Kamatani, and H. Tamiaki, Coordination-driven dimerization of zinc chlorophyll derivatives possessing a dialkylamino group. Chem. Asian J.12,759—767 (2017).
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[19] S. Shoji,'E Ogawa, S. Matsubara, and H. Tamiaki, Bioinspired supramolecular nanosheets of zinc chlorophyll assemblies. Sci. Rep. 9.14006 (2019).
[20] H. Tamiaki, M. Amakawa, Y. Shimono, R. Tanikaga, A. R. Holzwarth, and K. Schaffner, Synthetic zinc and magnesium chlorin aggregates as models for supramolecular antenna complexes in chlorosomes of green photosynthetic bacteria. Photochem. Photobiol. 63, 92- 99(1996).
[21] Y Saga, Y Nakai, and H. Tamiaki, Temperature-dependent spectral changes of self aggregates of zinc chlorophylls esterified by different linear alcohols at the 17-propionate. Supramol. Chem. 21,738—746 (2009).
[22] H. Tamiaki, R. Shibata, and T. Mizoguchi, The 17-propionate function of in chains esterifying long Biological implication their of (bacterio)chlorophylls:photosynthetic systems. Photochem. Photobiol. 83,152-162 (2007).
[23] S. Matsubara, M. Kunieda, A Wada, S. Sasaki, and H. Tamiaki, Visible and near-infrared spectra of chlorosomal zinc chlorin self-aggregates dependent on their peripheral substituents at the 8-position. J. Photochem. Photobiol. A: Chern. 330, 195-199 (2016).
[24] S. Matsubara, S. Shoji, and H. Tamiaki, Self-Aggregation of synthetic chlorophyll-c derivative and effect of C17-acrylate residue on bridging green gap in chlorosomal model.ノ Photochem. Photobiol. A: か.340, 53-61(2017).
[25] H. Tamiaki, A. Wada, and S. Matsubara, 20-Substitution effect on self-aggregation of synthetic zinc bacteriochlorophyll-^ analogs. J Photochem. Photobiol. A: Chern. 353, 581- 590 (2018).
[26] S. Matsubara and H. Tamiaki, Synthesis and self-aggregation of 兀-expanded chlorophyll derivatives to construct light-harvesting antenna models. J. Org. Chern. 83, 4355ロ364 (2018).
[27] S. Shqp, T. Mizoguchi, and H. Tamiaki, In vitro self-assemblies of bacteriochlorophylls-c from Chlorobaculum tepidum and their supramolecular nanostructures. J. Photochem. Photobiol. A: Chern. 331, 190-196 (2016).
[28] S. Shoji, T. Hashishin, and H. Tamiaki, Construction of chlorosomal rod self-aggregates in the solid state on any substrates from synthetic chlorophyll derivatives possessing an oligomethylene chain at the 17-propionate residue. Chern. Eur. J.18,13331—13341(2012).
[29] S. Ogi, C. Grzeszkiewicz, and F. Wurthner, Pathway complexity in the self-assembly of a zinc chlorin model system of natural bacteriochI orophy 11 J-aggregates. Chern. Sci. 9,2768- 2773 (2018).
[30] S. Sengupta, D. Ebeling, S. Patwardhan, X. Zhang, H. Berlepsch, C. Bottcher, V. Stepanenko, S. Uemura, C. Hentschel,H. Fuchs, F. C. Grozema, L. D. Siebbeles, A. R. Holzwarth, L. Chi, and F. Wiirthner, Biosupramolecular nanowires from chlorophyll dyes with exceptional charge-transport properties. Angew. Chern. Int. Ed. 51,6378-6382 (2012).
第四章
[1] L. A. Staehelin, J. R. Golecki, and G. Drews, Supramolecular organization of chlorosomes (Chlorobium vesicles) and their membrane attachment sites in Chlorobium limicola. Biochim. Biophys. Acta 589, 30-45 (1980).
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[4] J. P§endik, T. P. Ikonen, P. Laurinmaki, M. C. Merckel,S. J. Butcher, R. E. Serimaa, and R. Tuma, Lamellar organization of pigments in chlorosomes, the light harvesting complexes of green photosynthetic bacteria. Biophys. J. 87,1165-1172 (2004).
[5] G. S. Orf and R. E. Blankenship, Chlorosome antenna complexes from green photosynthetic bacteria. Photosynth. Res. 116, 315-331(2013).
[6] S. Sengupta, D. Ebeling, S. Patwardhan, X. Zhang, H. Berlepsch, C. Bottcher, V. Stepanenko, S. Uemura, C. Hentschel,H. Fuchs, F. C. Grozema, L. D. Siebbeles, A. R. Holzwarth, L. Chi, and F. Wurthner, Biosupramolecular nanowires from chlorophyll dyes with exceptional charge-transport properties. Angew. Chem. Int. Ed. 51,6378-6382 (2012).
[7] S. Shoji, T. Ogawa, T. Hashishin, S. Ogasawara, H. Watanabe, H. Usami, and H. Tamiaki, Nanotubes of biomimetic supramolecules constructed by synthetic metal chlorophyll derivatives. Nano Lett.16, 3650-3654 (2016).
[8] S. Matsubara and H. Tamiaki, Phototriggered dynamic and biomimetic growth of chlorosomal self-aggregates. J. Am. Chem. Soc. 141, 1207-1211(2019).
[9] H. Tamiaki, R. Shibata, and T. Mizoguchi, The 17-propionate function of their in Biological implication chains long esterifying of (bacterio)chlorophylls: photosynthetic systems. Photochem. Photobiol. 83,152-162 (2007).
[10] S. Matsubara, M. Kunieda, A Wada, S. Sasaki, and H. Tamiaki, Visible and near-infrared spectra of chlorosomal zinc chlorin self-aggregates dependent on their peripheral substituents at the 8-position. J. Photochem. Photobiol. A: Chern. 330, 195-199 (2016).
[11] S. Matsubara, S. Shoji, and H. Tamiaki, Self-Aggregation of synthetic chlorophyll-c derivative and effect of C17-acrylate residue on bridging green gap in chlorosomal model../ Photochem. Photobiol. A: Chern. 340, 53-61(2017).
[12] H. Tamiaki, A. Wada, and S. Matsubara, 20-Substitution effect on self-aggregation of synthetic zinc bacteriochlorophyll-d analogs. J. Photochem. Photobiol. A: Chern. 353, 581- 590 (2018).
[13] S. Matsubara and H. Tamiaki, Synthesis and self-aggregation of 兀-expanded chlorophyll derivatives to construct light-harvesting antenna models. J. Org. Chern. 83, 4355ロ364 (2018).
[14] G. T. Oostergetel, M. Reus, A. G. M. Chew, D. A. Bryant, E. J. Boekema, and A. R. Holzwarth, Long-range organization of bacteriochlorophyll in chlorosomes of Chlorobium tepidum investigated by cryo-electron microscopy. FEBS Lett. 581, 5435-5439 (2007).
[15] L. M. Gunther, M. Jendrny, E. A. Bloemsma, M. Tank, G. T. Oostergetel,D. A. Bryant, J. Knoester, and J. Kohler, Structure of light-harvesting aggregates in individual chlorosomes. J. Phys. Chern. B 120, 5367-5376 (2016).
[16] H. Tamiaki, R. Shibata, and T. Mizoguchi, The 17-propionate function of their in long Biological implication esterifying chains of (bacterio)chlorophylls:photosynthetic systems. Photochem. Photobiol. 83,152—162 (2007).
[17] S. Shoji, T. Hashishin, and H. Tamiaki, Construction of chlorosomal rod self-aggregates in the solid state on any substrates from synthetic chlorophyll derivatives possessing an oligomethylene chain at the 17-propionate residue. Chem. Eur. J.18,13331-13341(2012).
[18] V. Huber, M. Katterle, M. Lysetska, and F. Wiirthner, Reversible Self-organization of semisynthetic zinc chlorins into well-defined rod antennae. Angew. Chem. Int. Ed. 44,3147— 3151(2005).
[19] A. Lohner, T. Kunsel, M. I. S. Rohr, T. L. C. Jansen, S. Sengupta, F. Wurthner, J. Knoester, and J. Kohler, Spectral and structural variations of biomimetic light-harvesting nanotubes. J. Phys. Chem. Lett.10, 2715-2724 (2019).
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