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Artigos de revistas sobre o assunto "Thermotropic Ionic Liquid Crystals (TILCs)"
Axenov, Kirill V., e Sabine Laschat. "Thermotropic Ionic Liquid Crystals". Materials 4, n.º 1 (14 de janeiro de 2011): 206–59. http://dx.doi.org/10.3390/ma4010206.
Texto completo da fonteHuang, Zhaohui, Ping Qi, Yihan Liu, Chunxiao Chai, Yitong Wang, Aixin Song e Jingcheng Hao. "Ionic-surfactants-based thermotropic liquid crystals". Physical Chemistry Chemical Physics 21, n.º 28 (2019): 15256–81. http://dx.doi.org/10.1039/c9cp02697e.
Texto completo da fonteBruce, Duncan W., David A. Dunmur, Elena Lalinde, Peter M. Maitlis e Peter Styring. "Novel types of ionic thermotropic liquid crystals". Nature 323, n.º 6091 (outubro de 1986): 791–92. http://dx.doi.org/10.1038/323791a0.
Texto completo da fonteGridyakina, A. V. "Electric Properties of Ionic Thermotropic Liquid Crystals". Ukrainian Journal of Physics 61, n.º 6 (junho de 2016): 502–7. http://dx.doi.org/10.15407/ujpe61.06.0502.
Texto completo da fonteRizzo, Carla, Ignazio Fiduccia, Silvestre Buscemi, Antonio Palumbo Piccionello, Andrea Pace e Ivana Pibiri. "Shaping 1,2,4-Triazolium Fluorinated Ionic Liquid Crystals". Applied Sciences 13, n.º 5 (24 de fevereiro de 2023): 2947. http://dx.doi.org/10.3390/app13052947.
Texto completo da fonteWang, Yong-Lei, Bin Li e Aatto Laaksonen. "Coarse-grained simulations of ionic liquid materials: from monomeric ionic liquids to ionic liquid crystals and polymeric ionic liquids". Physical Chemistry Chemical Physics 23, n.º 35 (2021): 19435–56. http://dx.doi.org/10.1039/d1cp02662c.
Texto completo da fonteQiao, Xuanxuan, Panpan Sun, Aoli Wu, Na Sun, Bin Dong e Liqiang Zheng. "Supramolecular Thermotropic Ionic Liquid Crystals Formed via Self-Assembled Zwitterionic Ionic Liquids". Langmuir 35, n.º 5 (18 de dezembro de 2018): 1598–605. http://dx.doi.org/10.1021/acs.langmuir.8b03448.
Texto completo da fonteBhowmik, Pradip, Haesook Han, Ivan Nedeltchev e James Cebe. "Room-Temperature Thermotropic Ionic Liquid Crystals: Viologen Bis(Triflimide) Salts". Molecular Crystals and Liquid Crystals 419, n.º 1 (janeiro de 2004): 27–46. http://dx.doi.org/10.1080/15421400490478272.
Texto completo da fonteVeltri, Lucia, Gabriella Cavallo, Amerigo Beneduci, Pierangelo Metrangolo, Giuseppina Anna Corrente, Maurizio Ursini, Roberto Romeo, Giancarlo Terraneo e Bartolo Gabriele. "Synthesis and thermotropic properties of new green electrochromic ionic liquid crystals". New Journal of Chemistry 43, n.º 46 (2019): 18285–93. http://dx.doi.org/10.1039/c9nj03303c.
Texto completo da fontePhillips, M. L., T. M. Barbara, S. Plesko e J. Jonas. "Thermotropic ionic liquid crystals. V. Deuterium NMR study of sodiumn‐alkanoates". Journal of Chemical Physics 84, n.º 9 (maio de 1986): 5143–51. http://dx.doi.org/10.1063/1.450667.
Texto completo da fonteTeses / dissertações sobre o assunto "Thermotropic Ionic Liquid Crystals (TILCs)"
Pung, Hélène. "Cristaux liquides ioniques thermotropes : Relations structure/propriétés de transport ionique". Electronic Thesis or Diss., Université Grenoble Alpes, 2024. http://www.theses.fr/2024GRALV007.
Texto completo da fonteDeveloping multi-scale spatial (nano/meso/micro-macroscopic) and temporal studies is crucial to understand, control, and pilot the relationships linking the structure to the ionic transport properties of hierarchically self-assembled functional materials. It is along these research lines that this exploratory work is positioned to meet their associated scientific challenges. It aims in particular to bring together elements of understanding for designing families of electrolytes with tuneable-by-design (cat/an)ionic conductivity levels and that can be implemented by reliable manufacturing processes to authorize their scalable integration into more efficient electrochemical energy conversion and storage devices. The scrutinized model families of soft-matter electrolytes are Thermotropic Ionic Liquid Crystals (TILCs), which synergistically combine dynamic hierarchical self-assembly with self-healing functionalities to encode dimensionality (quasi-1D/ quasi-2D/3D) controlled ionic transport. This research work presents and discusses the molecular engineering, syntheses and detailed studies of these model stimuli-responsive (An/Cat)ionic (A/C)-TILCs conductors.The study of the supramolecular organization of a model family of K+ and Na+ cation-conducting C-TILCs has unravelled i) a monotropic (i.e. which develops only during of the first heating scan) bicontinuous Cubic mesophase (Cubbi) with an Ia3d symmetry and ii) a hexagonal Columnar mesophase (Colhex), encoding 3D and quasi-1D transport processes, respectively. Polar ionic sub-domains are localized at the heart of the columns decorated at their periphery by aliphatic chains. The experimental study and modelling of the confinement of charge carriers within a model family of C18C18Im+/X- (X= Br-, I-, N(CN)2-) A-TILCs forming interdigitated Smectic A mesophases (SmAd are hosting quasi-2D anisotropic ionic transport) reveals a regime of nanoconfinement of anions subjected to electrostatic interactions within the ca. 1 nm-"thick" polar sub-layers within their lamellar organizations. The study of these TILCs thus addresses the functional impact of mosaicity, i.e. how the coexistence of mesomorphic domains presenting different orientations and sizes is impacting ionic transport.A first direct experimental description allows to describe the role of this dynamic mosaicity both i) on the long-range organization of mesomorphic domains and ii) onto ion transport at the meso-/macro-scopic scale. Within mesophases formed by the K+-cation conducting C-TILC, the Cubbi mesophase presents conductivity values two orders of magnitude greater than those associated to the Colhex mesophase. As the Cubbi mesophase does not require specific defect management strategies (low density of defects/homophasic interfaces), it turns out that polar subdomains can thus percolate efficiently according to an intrinsically 3D mechanism. In contrast, the long-range ordering of the (dynamic) SmAd mesomorphic domains of the C18C18Im+/N(CN)2- A-TILC, induced by the application of an external stimulus (here, a magnetic field of 1 T), results in a ca. x1.6 increase (from 92 to 145 nm) of the average size of mesomorphic domains at 80°C. Due to the reduction of the disorder and of the number of homophasic interfaces (which can penalize the transport of anions), a natural (expected) increase in conductivity values by a factor ca. x2.6 (9 to 25 µS·cm-1) is observed.Ultimately, TILCs, i.e. 2.0 electrolytic materials encoding ionic transport properties and (bioinspired) dynamic self-assembly/repairing functionalities, are consisting in an original class of stimuli-sensitive functional materials for the electrochemical conversion and storage of energy
Hsin-wei, Huang, e 黃欣偉. "Thermotropic Properties of Ionic Liquid Crystals of Imidazolium Salts Containing Hydroxyl Group". Thesis, 2000. http://ndltd.ncl.edu.tw/handle/71363405129037651576.
Texto completo da fonte輔仁大學
化學系
88
The aim of our work is to synthesize and investigate liquid crystalline properties of N,N-dialkyl imidazolium derivatives (IM(OH)R2Br, n=10, 12, 14, 16, 18), N,N,O-trialkyl imidazolium (IMOR3Br, n=12, 14, 16, 18) and oligoethylene glycol substituted imidazolium salt. Because N,N,O-trialkyl imidazolium salts have hydroxyl group near the rigid part, we can compare these results with our previously reported simple N,N-dialkylimidazolium salts. Liquid crystalline behaviors of these compounds were investigated by differential scanning calorimetry and polarized optical microscopy. N,N,O-trialkyl imidazolium has higher melting point but smaller temperature range of liquid crystal phase. These may be due to the ether linkage near the rigid part. Both series exhibit smectic A mesophase. Attempts to synthesize oligoethylene glycol substituted imidazolium salts and the corresponding Pd-carbene complexes were unsuccessful.
Trabalhos de conferências sobre o assunto "Thermotropic Ionic Liquid Crystals (TILCs)"
Corrente, Giuseppina Anna, Amerigo Beneduci e Lucia Veltri. "Thermotropic properties of new electrochromic viologen-based ionic liquid crystals." In The 2nd International Online Conference on Crystals. Basel, Switzerland: MDPI, 2020. http://dx.doi.org/10.3390/iocc_2020-07721.
Texto completo da fonteGridyakina, A. V., G. V. Klimusheva, S. Bugaychuk, A. P. Polishchuk, T. A. Mirnaya e L. S. Sudovtsova. "Holographic properties of ionic smectic glasses of thermotropic liquid crystals". In Tenth International Conference on Nonlinear Optics of Liquid and Photorefractive Crystals. SPIE, 2005. http://dx.doi.org/10.1117/12.648186.
Texto completo da fonteMakara, Erin. "Quantum Chemical Investigation of Thermotropic Ionic Liquid Crystals to Predict Phase Transition Temperatures". In 2023 International Conference on Clean Electrical Power (ICCEP). IEEE, 2023. http://dx.doi.org/10.1109/iccep57914.2023.10247399.
Texto completo da fonte