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1 lline phase Lc melts back to the equilibrium mesophase).
2  thermal annealing in the liquid crystalline mesophase.
3 n and led to a stabilization of the columnar mesophase.
4 s uses a spontaneously forming lipidic cubic mesophase.
5 to relieve distortion of an internal smectic mesophase.
6 -assembly required in the liquid-crystalline mesophase.
7  gyroid is a high-entropy high-heat-capacity mesophase.
8 ure of the mesogen or the composition of the mesophase.
9 he chiralities of the switch and of the host mesophase.
10  material exhibits a previously unidentified mesophase.
11 ctions and the ordering of the solute in the mesophase.
12  and the spatial dimensions of the resulting mesophase.
13 ed as a sequence of self-assembling micellar mesophases.
14 een the lamellar and columnar (2D hexagonal) mesophases.
15 ergent and/or lipids that often form various mesophases.
16 tallogenesis of membrane proteins in lipidic mesophases.
17 t of thionation on the formation of columnar mesophases.
18 acceptor columns within each of the observed mesophases.
19 ity to self-assemble into liquid crystalline mesophases.
20 al (space group p6mm) silica-block copolymer mesophases.
21 on types being cubic, hexagonal and lamellar mesophases.
22 ses, wedge-shaped units resulted in columnar mesophases.
23 phide were prepared from inverse cubic lipid mesophases.
24 bility of the nematic and twist-bend nematic mesophases.
25 ems exhibit both chiral nematic and columnar mesophases.
26  in the nematic, chiral-nematic, and smectic mesophases.
27 undamental behaviour and properties of these mesophases.
28 allization of membrane proteins from lipidic mesophases.
29 stallization of membrane proteins in lipidic mesophases.
30 or into the nematic, cholesteric and smectic mesophases.
31 , and alignment features inherent in nematic mesophases.
32 oardlike materials that display only nematic mesophases.
33                  The various kinds of chiral mesophases able to reveal enantiotopic discrimination in
34  confirmed the formation of a stable nematic mesophase above 37.5 degrees C for NPs in the 6-11 nm si
35 l twist-bend phase into a lamellar smectic A mesophase, additionally this material exhibits a previou
36              The bundle stoichiometry in the mesophase agrees well with the size found in solution fo
37 s of ionic volumes with the occurrence of LC mesophase and its stability are revealed, thus paving th
38  membrane protein crystallization in lipidic mesophases and for studies of the suitability of precipi
39       These materials display broad columnar mesophases and high clearing points and self-associate i
40 Sufficient levels of lipids forming lamellar mesophases and lipids forming hexagonal I mesophases, wh
41 ated assembly of carbon nanotubes using soft mesophases and the development of functional nanocomposi
42 xyldecyl) disfavor the formation of lamellar mesophases and, instead, induce higher ordered soft crys
43 lity, the level of lipids promoting lamellar mesophases and, thus, liquid condensed monolayers needs
44  organized morphology from processing in the mesophase, and the effects of exposure to both ambient a
45 melt exhibiting liquid crystalline and solid mesophases, and a quantum fluid of interacting bosons.
46 imal background due to the surrounding lipid mesophase ( approximately 1 thousand counts/s).
47  mechanisms based on the polar nature of the mesophase are required for this.
48                                      Nematic mesophases are much less commonly observed in discotic s
49 eir supramolecular organizations within both mesophases are proposed.
50 heir nonplanarity, the aromatic cores in the mesophases are tightly stacked within the column.
51 )H 1D/2D-NMR in chiral polypeptide lyotropic mesophases, are presented and analyzed.
52  the mechanism of crystallization in lipidic mesophases as discussed.
53 mplating, which use amphiphilic or colloidal mesophases as templates for inorganic mesoporous materia
54 ring of lamellar superstructures and smectic mesophases, as manifested by liquefaction and solidifica
55 port the spontaneous formation of stable A15 mesophases at ambient temperature.
56 xagonally ordered polyelectrolyte-surfactant mesophase based on the electrostatically induced co-asse
57 udies of the suitability of precipitants for mesophase-based crystallization methods.
58 on of a cubic Ia3d chitosan-ruthenium-silica mesophase before pyrolysis and silica removal.
59 id molecular structure and liquid crystal or mesophase behavior be established.
60 at dynamical disorder is crucial in defining mesophase behaviour, and that the apparent kinetic barri
61 osol-OT (AOT)/water mixtures in the lamellar mesophase, bicontinuous cubic (BC) phase, and in an anal
62 d via a phase transformation from a lamellar mesophase by hydrothermal reaction in the presence of an
63 0 instead directs the assembly into lamellar mesophases by increasing the proportion of pi-conjugated
64        We then probe the transitions between mesophases by varying the PEG solution osmotic pressure,
65 in concentration in the bilayer of the cubic mesophase can be ramped up stepwise from less than a mil
66 w the molecular organization inherent to the mesophase can control the polarization of light-emitting
67 and proton gradients, we show that the doped mesophase can operate as a charge separation device rely
68 ons in polyelectrolyte-azobenzene surfactant mesophases can be exploited for photo-induced long-range
69 sophase formation, and the potential to tune mesophase characteristics via manipulation of these fact
70 quid crystalline elastomers that exhibit two mesophases: chevron smectic C (cSmC) and smectic A (SmA)
71  In this work, we investigate the origins of mesophase chirality in cellulose nanocrystal suspensions
72                  LCP is a liquid-crystalline mesophase composed of lipids and water.
73    Self-assembled lamellar silica-surfactant mesophase composites have been prepared with crystal-lik
74                                          The mesophase comprises gold nanocrystals arranged within a
75 tal elastomer fibers and is achieved through mesophase control during extrusion.
76 ved in one of metallacycles, indicating that mesophases could be induced by metal-coordination intera
77  higher temperature to a surfactant-boehmite mesophase, denoted MSU-S/B, with a lathlike framework ma
78 ow) was observed upon crystallization of the mesophase due to a phase separation of the component don
79 NC micelles into ordered NC/silica thin-film mesophases during spin coating.
80 roperties depend crucially on the particular mesophase employed.
81 ive membrane protein transporters in lipidic mesophases, exemplified by the bacterial ClC exchanger f
82               We show that the polar smectic mesophase exhibited by the first molecule discovered to
83 sors, ion channels, self-healable materials, mesophases for the controlled release of bioactive compo
84                       The dramatic effect on mesophase formation and stability engendered via donor-a
85 ts into structure-property relationships for mesophase formation on the 1 nm length scale that will a
86  terms of the interplay of forces leading to mesophase formation, and the potential to tune mesophase
87 tational symmetry is in general conducive to mesophase formation, with low anisotropy favouring plast
88 lipid classes present and hence, the type of mesophase formed, is essential.
89                     The interactions between mesophase-forming copolymers and nanoscopic particles ca
90 ructures could be best understood by using a mesophase framework of a binary mixture of lipids and pe
91 -liquid phase separation (LLPS) of lyotropic mesophases from isotropic solutions upon a concentration
92 molecular organization in the self-assembled mesophases from structures with initially amorphous sili
93 ort-regulating dimensions are defined by the mesophase geometry and can be controlled in increments o
94                                     This new mesophase, h-C(18)PyReSeBr, exhibits remarkably well ord
95 silicate framework in a surfactant-templated mesophase has been established by using a combination of
96     Lipid based lyotropic liquid crystalline mesophases have demonstrated exceptional responsiveness
97  hydration, phospholipid chemical structure, mesophase identity, aqueous medium composition, and inci
98  crystals (ILs that adopt liquid crystalline mesophases, ILCs) for predicting the domain of their exi
99            We report that annealing from the mesophase improves the order and packing of organic semi
100 cally alter the visual appearance of the HPC mesophase in terms of the reflected color, the scatterin
101 characterize the columnar liquid-crystalline mesophases in concentrated solutions of various model G-
102 terials form thermotropic columnar hexagonal mesophases in which the peptides adopt an alpha-helical
103 nd pH-sensitive lyotropic liquid crystalline mesophases including the inverse bicontinuous cubic and
104                            Analysis of these mesophases indicates mixtures with soft/plastic crystal
105 terlamellar space of a reverse microemulsion mesophase into stacks of nanosheets interleaved with cet
106 ture, lipid bilayer properties and the lipid mesophase is limited.
107  the attainment of a discotic nematic (N(D)) mesophase is reported consisting of a central benzene co
108 , the interaction between tryptophan and the mesophase is very slight as revealed by its low partitio
109 ctions and the pitch of the resulting chiral mesophases is lacking.
110 agen structures form from liquid crystalline mesophases is not well characterized.
111  nanostructured lyotropic liquid crystalline mesophases may form in select mixtures of amphiphile and
112 ipid bilayers through the use of the lipidic mesophase method, and determined its structure at 3.5 A
113 action was used for phase identification and mesophase microstructure characterization.
114  about how transport properties of the doped mesophase mirror the original molecular gating features
115 e clearing and crystallization points of the mesophase mixtures and the melting/clearing points of th
116 s study, we evaluate its effect on the cubic mesophase of hydrated monoolein.
117                           The self-assembled mesophase of zirconium phosphate nanoplatelets is stabil
118 d (b) inducing vertically oriented hexagonal mesophases of micelle-silica composite.
119 ding shear-induced phenomena in concentrated mesophases of mixed amphiphilic systems.
120 SAXS), we investigated the phase behavior of mesophases of monoolein (MO) mixed with additives common
121 f achiral and chiral switches to cholesteric mesophases of structurally colored hydroxypropyl cellulo
122  crowding conditions, with the corresponding mesophases of the canonical duplex and triplex DNA analo
123 tant, we varied the resulting self-assembled mesophases of the composite material.
124                      Finally, we compare the mesophases of the G-quadruplexes, under PEG-induced crow
125 re this vast parameter space and predict the mesophases of the hybrids, we have developed a mean fiel
126 phase map that includes DDQC, A15, and sigma mesophases of tunable periodicity that are connected thr
127                                 The columnar mesophases of two series of hexacatenar palladium(II) me
128 nematic, hexagonal, and rectangular columnar mesophases over a considerably wide temperature range, i
129 nge 2D hydrogen-bond networks in the smectic mesophases over a wide temperature window.
130  a two-dimensional (2-D) hexagonal thin-film mesophase (p6mm) with cylinder axes oriented parallel to
131 espondence enables the predictable tuning of mesophase phase transition temperatures.
132  characteristics of CIM carbon prepared from mesophase pitch lead to outstanding performance of these
133 thiolates into an ordered liquid crystalline mesophase plays an essential role in templating the disk
134 tution of membrane proteins in lipidic cubic mesophases plays a prominent role in membrane protein cr
135 tution of membrane proteins in lipidic cubic mesophases presents significant challenges related to th
136 n disordered (H1) or liquid crystalline (T1) mesophases require additive processing to promote crysta
137 ly reorganized into a gyroidal cubic ordered mesophase, resulting in partially ordered mesoporous bet
138 ase for the azafluorenol 3b is indicative of mesophase stabilization by intermolecular hydrogen bondi
139                          Most materials show mesophases stable to high temperatures.
140 ields of surfactant and multiblock-copolymer mesophases, still remains a mesostructure that has not b
141 ort amphiphile self-assembly into a range of mesophase structures has been established as a widesprea
142 -patterned polar states, but also additional mesophases such as the disconnected labyrinthine phase a
143 s the order parameter of the system within a mesophase sufficiently.
144        Absence of physical distortion of the mesophase suggests that the SWNTs are stabilized by adso
145 he presence of molecular porogens, lyotropic mesophases, supramolecular architectures, emulsions, org
146 n was realized, resulting in a protein-laden mesophase that allowed the formation of crystals using t
147      Hydrated monoolein forms the cubic-Pn3m mesophase that has been used for in meso crystallization
148 l (DDQC) and Frank-Kasper (FK) A15 and sigma mesophases that can be produced under mild conditions fr
149 s derived from self-assembled liquid crystal mesophases that display such characteristics and elucida
150   A variety of 1:1 Dan:Ndi mixtures produced mesophases that were found to be stable over temperature
151 ate surface forms from an incipient lamellar mesophase through a correlated micellar intermediate.
152 port the synthesis of a new nanocrystal (NC) mesophase through self-assembly of water-soluble NC mice
153  -type bicontinuous cubic liquid-crystalline mesophases through nanosegregation of the ionic and non-
154 an be used to generate unique, polymer-based mesophases through self-assembly.
155 emically converts the intermediate boehmitic mesophase to a mesostructure with crystalline gamma-Al(2
156 ations have been reported for solutions from mesophases to conglomerate crystallizations.
157 edia, reaction-diffusion systems and coupled mesophases to produce higher-level hybrid structures und
158 tting behavior; and for optically defining a mesophase transformation (from hexagonal to tetragonal)
159 of a light-induced one- to three-dimensional mesophase transition at room temperature in lyotropic li
160 draws our attention to the important role of mesophase transition in endosomal escape, and the novel
161  the apparent kinetic barrier for the liquid-mesophase transition is much lower for liquid crystals (
162 at there is a strong correlation between the mesophase transition of the LNPs during acidification an
163  Additionally, cyclo[6]aramides show unusual mesophase transitions from lamellar to hexagonal columna
164 stability of both the nematic and twist-bend mesophases upon this angle, thereby satisfying earlier t
165 lume fractions, the formation of a hexagonal mesophase was observed.
166 koxyphenyl units led to bilayer-type smectic mesophases, wedge-shaped units resulted in columnar meso
167 compartmentalized within a silica-surfactant mesophase were prepared by an evaporation-induced self-a
168  on the lattice parameters of fully hydrated mesophases were found between ternary and quaternary mix
169 to highly ordered smectic liquid crystalline mesophases were investigated as a novel class of protoni
170 es, both thermotropic and lyotropic (in DMF) mesophases were observed in one of metallacycles, indica
171    Depending on the molecular structure, two mesophases were observed: a bilayered SmA2 phase and the
172                                    Lyotropic mesophases, where membranes conform to periodic minimal
173     SWNTs are incorporated into a surfactant mesophase which forms 2.3 nm diameter water channels by
174  and assemble into chiral twist-bent nematic mesophases which "imprint" their solution-state structur
175 ogy of non-classical thermotropic glycolipid mesophases, which now include dodecagonal quasicrystal (
176 ar mesophases and lipids forming hexagonal I mesophases, which respectively form condensed monolayers
177 ance demonstrate that DOBMP forms a lamellar mesophase with acyl-chain packing similar to that of oth
178 1.52 x 10(-)(3) cm(2) V(-)(1) s(-)(1) in the mesophase with an activation energy of 0.06 +/- 0.01 eV.
179 n be polymerized in both the H(I) and a Q(I) mesophase with retention of phase microstructure.
180  leads to the formation of highly segregated mesophases with a complex multilayered structure due to
181 kly swollen isotropic (Li) and lamellar (La) mesophases with bilayers formed in a cationic-anionic mi
182 ibers form lyotropic liquid crystalline (LC) mesophases with complex, chiral morphologies.
183 ay scattering a sequence of ordered CIL/chol mesophases with lowering pH values are observed.
184 id crystals with chiral constituents exhibit mesophases with modulated ground states.
185 se they can combine the fluidic state of the mesophases with properties such as photo and electrolumi
186 ls are open framework chalcogenides and form mesophases with uniform pore size (with spacings between
187     For the optimum donor-acceptor organized mesophases within this grid, temperature stability range

 
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