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Contributed Papers

The Cholesteric Pitch in Lyotropic Solutions of a Semi-Rigid Macromolecule: Hydroxypropyl-Cellulose

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Pages 209-221 | Received 31 Jan 1983, Published online: 17 Oct 2011

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Ana P. C. Almeida, João P. Canejo, Pedro L. Almeida & Maria Helena Godinho. (2019) Cholesteric-type cellulosic structures: from plants to applications. Liquid Crystals 46:13-14, pages 1937-1949.
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M.H. Godinho, D.G. Gray & P. Pieranski. (2017) Revisiting (hydroxypropyl) cellulose (HPC)/water liquid crystalline system. Liquid Crystals 44:12-13, pages 2108-2120.
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Katsufumi Tanaka, Takashi Araki, Takatoshi Nozaki, Raita Tanaka, Haruki Kobayashi & Ryuichi Akiyama. (2012) The effects of carbon nanofibre on the liquid crystalline behaviour and cholesteric pitch of aqueous solutions of hydroxypropyl cellulose. Liquid Crystals 39:3, pages 285-294.
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P. Maïssa & P. Sixou. (1989) Mixtures of liquid-crystalline polymers. Liquid Crystals 5:6, pages 1861-1873.
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StigE. Friberg, ChangSup Wohn, Yuh-Jye Uang & FrancesE. Lockwood. (1987) SOLUBILIZATION IN LYOTROPIC LIQUID CRYSTALS. Journal of Dispersion Science and Technology 8:5-6, pages 429-440.
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H. Hakemi & P.P. Varanasi. (1986) The determination of cholesteric pitch from the diffusion profile A new experimental approach. Liquid Crystals 1:1, pages 63-71.
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S.N. Bhadani & D.G. Gray. (1984) Crosslinked Cholesteric Network from the Acrylic Acid Ester of (Hydroxypropyl)Cellulose. Molecular Crystals and Liquid Crystals 102:8-9, pages 255-260.
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Articles from other publishers (28)

Simona G. Fine & Cécile A. C. Chazot. (2023) Unraveling the Governing Mechanisms Behind the Chiral Nematic Self-Assembly of Cellulose-Based Polymers. Chemistry of Materials 35:21, pages 8774-8787.
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Mark A. Davies. (2023) Rotational Isomerism of the Side Chains of Hydroxypropyl Cellulose in Aqueous Solution Observed Using Attenuated Total Reflectance Infrared Spectroscopy. Spectroscopy Journal 1:3, pages 111-120.
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Gen Kamita, Silvia Vignolini & Ahu Gümrah Dumanli. (2023) Edible cellulose-based colorimetric timer. Nanoscale Horizons 8:7, pages 887-891.
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Hongning Ren, Tadeusz Balcerowski & Ahu Gümrah Dumanli. (2023) Achieving a full color palette with thickness, temperature, and humidity in cholesteric hydroxypropyl cellulose. Frontiers in Photonics 4.
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Kyle George, Mohsen Esmaeili, Junyi Wang, Nader Taheri-Qazvini, Alireza Abbaspourrad & Monirosadat Sadati. (2023) 3D printing of responsive chiral photonic nanostructures. Proceedings of the National Academy of Sciences 120:12.
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S. A. Vshivkov & E. V. Rusinova. (2018) Effect of Component Nature on Liquid-Crystalline Transitions in Solutions of Cellulose Ethers. Polymer Science, Series A 60:1, pages 65-73.
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Johanna Ricarda BrucknerJohanna Ricarda Bruckner. 2016. A First Example of a Lyotropic Smectic C* Analog Phase. A First Example of a Lyotropic Smectic C* Analog Phase 49 104 .
O. A. Khanchich & S. A. Kuznetsova. (2011) Temperature-concentration conditions of liquid-crystalline-phase formation in cellulose ethers and esters in trifluoroacetic acid. Polymer Science Series A 53:4, pages 311-316.
Crossref
A. E. Grishchenko, G. M. Pavlov & L. P. Bushneva. (2008) The structure and spontaneous orientational order in surface layers of water-soluble methyl- and hydroxypropylmethyl cellulose films. Polymer Science Series B 50:1-2, pages 20-24.
Crossref
Xuesong Zhou & Yong Huang. (2005) Cellulose derivative‐based cholesteric networks. Journal of Applied Polymer Science 96:5, pages 1648-1653.
Crossref
A. Thomas & M. Antonietti. (2003) Silica Nanocasting of Simple Cellulose Derivatives: Towards Chiral Pore Systems with Long‐Range Order and Chiral Optical Coatings. Advanced Functional Materials 13:10, pages 763-766.
Crossref
Tada-Aki Yamagishi & Pierre Sixou. (1995) Preparation and characteristics of cholesteric gel from pentyl ether of hydroxypropyl cellulose. Polymer 36:11, pages 2315-2317.
Crossref
I. Rusig, M. H. Godinho, L. Varichon, P. Sixou, J. Dedier, C. Filliatre & A. F. Martins. (2003) Optical properties of cholesteric (2‐hydroxypropyl) cellulose (HPC) esters. Journal of Polymer Science Part B: Polymer Physics 32:11, pages 1907-1914.
Crossref
M. M. Abdel Moteleb, M. M. Naoum, M. M. Shalaby & G. R. Saad. (2003) Dielectric investigation of isotropic and anisotropic solutions of hydroxypropyl cellulose in dioxan. Polymer International 34:4, pages 363-367.
Crossref
J.‐X. Guo & D. G. Gray. (2003) Preparation, characterization, and mesophase formation of esters of ethylcellulose and methylcellulose. Journal of Polymer Science Part A: Polymer Chemistry 32:5, pages 889-896.
Crossref
S. Ambrosino & P. Sixou. (2003) Rheology of a mixture of liquid‐crystal polymers in solution. Journal of Polymer Science Part B: Polymer Physics 32:1, pages 77-84.
Crossref
M. A. Osipov. 1994. Liquid Crystalline and Mesomorphic Polymers. Liquid Crystalline and Mesomorphic Polymers 1 25 .
R.J. Spontak, M.A. El-Nokaly, R.G. Bartolo & J.L. Burns. 1992. Polymer Solutions, Blends, and Interfaces. Polymer Solutions, Blends, and Interfaces 273 298 .
Richard J. Spontak, Robert G. Bartolo, Magda El-Nokaly & George D. Hiler. (1992) Enhanced anisotropic ordering and phase separation in lyotropic polysaccharide blends. Polymer 33:24, pages 5343-5345.
Crossref
P. Haurand & P. Zugenmaier. (1991) Structure and phase behaviour of a lyotropic mesophase system: cellulose tricarbanilate-methyl acetoacetate. Polymer 32:16, pages 3026-3037.
Crossref
L.F. Wang, E.M. Pearce & T.K. Kwei. (1991) Mesophase formation of hydroxypropyl cellulose as affected by miscibility with a flexible polymer. Polymer 32:2, pages 249-259.
Crossref
Ye.V. Korneyeva, I.N. Shtennikova, V.P. Shibayev, S.I. Klenin, G.F. Kolbina, I.V. Yekayeva & S.A. Didenko. (1990) Hydrodynamic properties and equilibrium rigidity of oxypropyl cellulose molecules. Polymer Science U.S.S.R. 32:1, pages 41-47.
Crossref
E.V. Korneeva, I.N. Shtennikova, V.P. Shibaev, S.I. Klenin, G.F. Kolbina, I.V. Ekaeva & S.A. Didenko. (1990) Conformational properties of hydroxypropylcellulose—I. Hydrodynamic properties and equilibrium rigidity of its macromolecules. European Polymer Journal 26:7, pages 781-785.
Crossref
G. V. Laivins, P. Sixou & D. G. Gray. (2003) The liquid‐crystalline properties of (acetoxypropyl)cellulose: Effect of chain length and degree of acetylation. Journal of Polymer Science Part B: Polymer Physics 24:12, pages 2779-2792.
Crossref
P. Navard & J. M. Haudin. (2003) Rheology of hydroxypropylcellulose solutions. Journal of Polymer Science Part B: Polymer Physics 24:1, pages 189-201.
Crossref
Gunar V. Laivins & Derek G. Gray. (1985) Optical properties of (acetoxypropyl)cellulose mesophases: factors influencing the cholesteric pitch. Polymer 26:10, pages 1435-1442.
Crossref

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