462
Y. Kageyama
42. Since friction is required for generating work from a molecular motor, a value of 100% does
not indicate that a particular molecular motor will be good for an assembled working system
43. Nakata S, Pimienta V, Lagzi I, Kitahata H, Suematsu JN (2019) Self-organized motion. Royal
Society of Chemistry, Cambridge
44. Yamada M, Kondo M, Mamiya J, Yu Y, Kinoshita M, Barrett C, Ikeda T (2008) Photomobile
polymer materials: towards light-driven plastic motors. Angew Chem Int Ed 47:4986–4988
45. Serak S, Tabiryan N, Vergara R, White TJ, Vaia RA, Bunning TJ (2010) Liquid crystalline
polymer cantilever oscillators fueled by light. Soft Matter 6:779–783
46. White TJ, Tabiryan NV, Serak SV, Hrozhyk UA, Tondiglia VP, Koerner H, Vaia RA, Bunning
TJ (2008) A high frequency photodriven polymer oscillator. Soft Matter 4:1796–1798
47. Vantomme G, Gelebart AH, Broer DJ, Meijer EW (2017) Preparation of liquid crystal networks
for macroscopic oscillatory motion induced by light. J Vis Exp e56266
48. Vantomme G, Gelebart AH, Broer DJ, Meijer EW (2018) Self-sustained actuation from heat
dissipation in liquid crystal polymer networks. J Polym Sci A: Polym Chem 56:1331–1336
49. Gelebart AH, Vantomme G, Meijer EW, Broer DJ (2017) Mastering the photothermal effect in
liquid crystal networks: a general approach for self-sustained mechanical oscillators. Adv Mat
29:1606712
50. Vantomme G, Gelebart AH, Broer DJ, Meijer EW (2017) A four-blade light-driven plastic mill
based on hydrazone liquid-crystal networks. Tetrahedron 73:4963–4967
51. Gelebart AH, Jan Mulder D, Varga M, Konya A, Vantomme G, Meijer EW, Selinger RLB,
Broer DJ (2017) Making waves in a photoactive polymer film. Nature 546:632–636
52. Kageyama Y (2019) Light-powered self-sustainable macroscopic motion for the active
locomotion of materials. ChemPhotoChem 3:327–336
53. Ikegami T, Kageyama Y, Obara K, Takeda S (2016) Dissipative and autonomous squarewave self-oscillation of a macroscopic hybrid self-assembly under continuous light irradiation.
Angew Chem Int Ed 55:8239–8243
54. Nicolis G, Prigogine I (1977) Self-organization in nonequilibrium systems. John Wiley Inc,
Canada
55. Nitzan A, Ross J (1973) Oscillations, multiple steady states, and instabilities in illuminated
systems. J Chem Phys 59:241–250
56. Yamazaki I, Fujita M, Baba H (1976) Oscillatory behavior in photoreaction of 1,5-naphthyridine
in cyclohexane solution. Photochem Photobiol 23:69–70
57. Laplante JP, Pottier RH (1982) Study of the oscillatory behavior in irradiated 9,10dimethylanthracene/chloroform solutions. J Phys Chem 86:4759–4766
58. Bose RJ, Ross J, Wrighton MS (1977) Aperiodic and periodic oscillations in fluorescence
intensity from irradiated chlorocarbon solutions of anthracene and 9,10-dimethylanthracene. J
Am Chem Soc 99:6119–6120
59. Kageyama Y, Ikegami T, Hiramatsu N, Takeda S, Sugawara T (2015) Structure and growth
behavior of centimeter-sized helical oleate assemblies formed with assistance of medium-length
carboxylic acids. Soft Matter 11:3550–3558
60. Kageyama Y, Tanigake N, Kurokome Y, Iwaki S, Takeda S, Suzuki K, Sugawara T
(2013) Macroscopic motion of supramolecular assemblies actuated by photoisomerization of
azobenzene derivatives. Chem Commun 49:9386–9388
61. Kageyama Y, Ikegami T, Kurokome Y, Takeda S (2016) Mechanism of macroscopic motion
of oleate helical assemblies: cooperative deprotonation of carboxyl groups triggered by
photoisomerization of azobenzene derivatives. Chem Eur J 22:8669–8675
62. Kageyama Y, Ikegami T, Satonaga S, Obara K, Sato H, Takeda S (2020) Light-driven flipping
of azobenzene assemblies — sparse crystal structures and responsive behavior to polarized
light. Chem Eur J DOI: https://doi.org/10.1002/chem.202000701
63. Obara K, Kageyama Y, Takeda S (2019) Swimming motion of micro-sized thin crystals with
autonomous and rapid flipping under blue light irradiation. In: The 99th annual meeting 2019
of chemical society of Japan, Kobe, Japan, 2I7–50
64. Obara K, Kageyama Y, Takeda S. Unpublished result
65. Kageyama Y, Ikegami T, Satonaga S, Yazaki D, Takeda S. Unpublished result
Y. Kageyama
42. Since friction is required for generating work from a molecular motor, a value of 100% does
not indicate that a particular molecular motor will be good for an assembled working system
43. Nakata S, Pimienta V, Lagzi I, Kitahata H, Suematsu JN (2019) Self-organized motion. Royal
Society of Chemistry, Cambridge
44. Yamada M, Kondo M, Mamiya J, Yu Y, Kinoshita M, Barrett C, Ikeda T (2008) Photomobile
polymer materials: towards light-driven plastic motors. Angew Chem Int Ed 47:4986–4988
45. Serak S, Tabiryan N, Vergara R, White TJ, Vaia RA, Bunning TJ (2010) Liquid crystalline
polymer cantilever oscillators fueled by light. Soft Matter 6:779–783
46. White TJ, Tabiryan NV, Serak SV, Hrozhyk UA, Tondiglia VP, Koerner H, Vaia RA, Bunning
TJ (2008) A high frequency photodriven polymer oscillator. Soft Matter 4:1796–1798
47. Vantomme G, Gelebart AH, Broer DJ, Meijer EW (2017) Preparation of liquid crystal networks
for macroscopic oscillatory motion induced by light. J Vis Exp e56266
48. Vantomme G, Gelebart AH, Broer DJ, Meijer EW (2018) Self-sustained actuation from heat
dissipation in liquid crystal polymer networks. J Polym Sci A: Polym Chem 56:1331–1336
49. Gelebart AH, Vantomme G, Meijer EW, Broer DJ (2017) Mastering the photothermal effect in
liquid crystal networks: a general approach for self-sustained mechanical oscillators. Adv Mat
29:1606712
50. Vantomme G, Gelebart AH, Broer DJ, Meijer EW (2017) A four-blade light-driven plastic mill
based on hydrazone liquid-crystal networks. Tetrahedron 73:4963–4967
51. Gelebart AH, Jan Mulder D, Varga M, Konya A, Vantomme G, Meijer EW, Selinger RLB,
Broer DJ (2017) Making waves in a photoactive polymer film. Nature 546:632–636
52. Kageyama Y (2019) Light-powered self-sustainable macroscopic motion for the active
locomotion of materials. ChemPhotoChem 3:327–336
53. Ikegami T, Kageyama Y, Obara K, Takeda S (2016) Dissipative and autonomous squarewave self-oscillation of a macroscopic hybrid self-assembly under continuous light irradiation.
Angew Chem Int Ed 55:8239–8243
54. Nicolis G, Prigogine I (1977) Self-organization in nonequilibrium systems. John Wiley Inc,
Canada
55. Nitzan A, Ross J (1973) Oscillations, multiple steady states, and instabilities in illuminated
systems. J Chem Phys 59:241–250
56. Yamazaki I, Fujita M, Baba H (1976) Oscillatory behavior in photoreaction of 1,5-naphthyridine
in cyclohexane solution. Photochem Photobiol 23:69–70
57. Laplante JP, Pottier RH (1982) Study of the oscillatory behavior in irradiated 9,10dimethylanthracene/chloroform solutions. J Phys Chem 86:4759–4766
58. Bose RJ, Ross J, Wrighton MS (1977) Aperiodic and periodic oscillations in fluorescence
intensity from irradiated chlorocarbon solutions of anthracene and 9,10-dimethylanthracene. J
Am Chem Soc 99:6119–6120
59. Kageyama Y, Ikegami T, Hiramatsu N, Takeda S, Sugawara T (2015) Structure and growth
behavior of centimeter-sized helical oleate assemblies formed with assistance of medium-length
carboxylic acids. Soft Matter 11:3550–3558
60. Kageyama Y, Tanigake N, Kurokome Y, Iwaki S, Takeda S, Suzuki K, Sugawara T
(2013) Macroscopic motion of supramolecular assemblies actuated by photoisomerization of
azobenzene derivatives. Chem Commun 49:9386–9388
61. Kageyama Y, Ikegami T, Kurokome Y, Takeda S (2016) Mechanism of macroscopic motion
of oleate helical assemblies: cooperative deprotonation of carboxyl groups triggered by
photoisomerization of azobenzene derivatives. Chem Eur J 22:8669–8675
62. Kageyama Y, Ikegami T, Satonaga S, Obara K, Sato H, Takeda S (2020) Light-driven flipping
of azobenzene assemblies — sparse crystal structures and responsive behavior to polarized
light. Chem Eur J DOI: https://doi.org/10.1002/chem.202000701
63. Obara K, Kageyama Y, Takeda S (2019) Swimming motion of micro-sized thin crystals with
autonomous and rapid flipping under blue light irradiation. In: The 99th annual meeting 2019
of chemical society of Japan, Kobe, Japan, 2I7–50
64. Obara K, Kageyama Y, Takeda S. Unpublished result
65. Kageyama Y, Ikegami T, Satonaga S, Yazaki D, Takeda S. Unpublished result