ライフサイエンスコーパス: superstructure

1 units of biochar and C60 packing in the nC60 superstructure.

2 athematical formula governing this nanoscale superstructure.

3 iple components to form a robust, protective superstructure.

4 , RNF19B, and RNF217, have the RBR-TM(GXXXG) superstructure.

5 nd gave indications to an expected hexagonal superstructure.

6 f-organize into an optically tunable helical superstructure.

7 with defects into a quasi-single crystalline superstructure.

8 ectric Na(0.8)CoO2, which has a large-period superstructure.

9 tial for the formation of a noncanonical DNA superstructure.

10 ological substitution in a BaAu2 (AlB2-type) superstructure.

11 al structures and the high temperature cubic superstructure.

12 dicted to catalyze alterations in chromosome superstructure.

13 MO(4)N(2) octahedra in the room-temperature superstructure.

14 r regulating FtsZ function by modulating its superstructure.

15 d-P) where they are incorporated into the PG superstructure.

16 ital polarization, giving rise to an orbital superstructure.

17 ma)(TiSe(2)) (m)(PbSe)(1+delta)(TiSe(2)) (m) superstructure.

18 the selective assembly of this peculiar DNA superstructure.

19 orm a mesoscale, fibre-textured hierarchical superstructure.

20 it leads to continuously twisted multilayer superstructures.

21 ul approach for the generation of functional superstructures.

22 implants restored with cemented and screwed superstructures.

23 minated for both cemented and screw-retained superstructures.

24 om the stepwise assembly of the intermediate superstructures.

25 y of buckminsterfullerene (C60) into ordered superstructures.

26 called PopZ self-assembles into 3D polymeric superstructures.

27 hose of the single-helical gold nanoparticle superstructures.

28 generate highly fluorescent CdS quantum dot superstructures.

29 s to composite IR plasmons in graphene moire superstructures.

30 facets of UCNP, forming various addressable superstructures.

31 ns up new avenues for designing nanoparticle superstructures.

32 tion of unprecedented monodisperse quantized superstructures.

33 magnetism through the creation of octahedral superstructures.

34 t also by the lipid composition within these superstructures.

35 ly of nanoparticles into ordered, functional superstructures.

36 ontrol in the formation of gold nanoparticle superstructures.

37 a face-on orientation in a series of ordered superstructures.

38 wn that consecutive FLNs form more intricate superstructures.

39 tegration of molecular catalysts into larger superstructures.

40 e of weak interactions between GLY and humic superstructures.

41 ocess involves the formation of nucleic-acid superstructures.

42 ls for in situ modulation of these colloidal superstructures.

43 plex clathrate type structures in multilayer superstructures.

44 k of two distinct yet interconnected helical superstructures.

45 the formation of their intricate solid-state superstructures.

46 [6]helicene-based core within their helical superstructures.

47 Scx (+) progenitors to the formation of bone superstructures.

48 etween NCs, drive mesoscale assembly to form superstructures.

49 onal building block for fabrication of these superstructures.

50 or the targeted self-assembly of nanocrystal superstructures.

51 , 5, 10, and 15 years after insertion of the superstructure, a microbiological and radiographic exami

52 cal activity of chiral helical gold NP (AuNP)superstructures, a growing class of chiral nanomaterials

53 We report two different superstructures: a superatomic relative of the CsCl latt

54 s of cellulose nanocrystals (CNCs) that form superstructured, adherent layers between solid surfaces

55 electrical double layer, and supramolecular superstructure all affect interfacial binding.

56 The solid-state superstructures also indicate that localized radical-rad

57 ed picture tying together the global helical superstructure and conformational properties of the bina

58 Previously unidentified superstructure and immiscibility features in high-purity

59 ed in disruption of the tumorigenic collagen superstructure and in reduction of primary tumor growth.

60 ed on preassembled components of the desired superstructure and programmed nearest-neighbour DNA-medi

61 oversy over the origin of the incommensurate superstructure and suggest a new structural model that i

62 on of the glyphosate fraction bound to humic superstructures and association constants (K(a)) and Gib

63 Biomimetics inspired by superstructures and extraordinary properties of teeth ha

64 f nanoparticles, their assembly into regular superstructures and photonic materials remains challengi

65 The nC60-stir superstructure ( approximately 100 nm) reproducibly disi

66 of the leucine-rich repeat (LRR) ectodomain superstructure are utilized for interaction with the cog

67 Helical NP superstructures are a rapidly expanding subclass of chir

68 modeling simulations showed that the helical superstructures are composed of dimeric double-cable tap

69 brication of different nanoparticle-hydrogel superstructures are discussed, followed by an overview o

70 plasmon modes associated with the colloidal superstructures are evidenced by performing monochromate

71 ransducer-impregnated self-organized helical superstructures are found to exhibit unprecedented rever

72 tructures that occur in vivo, although which superstructures are naturally occurring and what could b

73 This discovery shows that adsorbate-induced superstructures are not limited to special grain boundar

74 ains," but the biological functions of these superstructures are not well understood.

75 ite their importance, the mechanism by which superstructures are patterned is unknown.

76 approaches, although self-assembly routes to superstructures are promising.

77 mples of similar semiconducting polymer-SWNT superstructures are reported that demonstrate that the c

78 Such superstructures are solvent-stable and the chirality dif

79 Helical superstructures are widely observed in nature, in synthe

80 mation of capsule-like or right-handed helix superstructures as metastable products, depending on the

81 for self-assembly studies into finite-sized superstructures as well as crystals with as of yet inacc

82 lizes the coiled coil, resulting in a labile superstructure, as evidenced by solution x-ray scatterin

83 table and resemble to some extent biological superstructures assembled from proteins.

84 interfacial potentials due not only to Moire superstructures but also to novel electronic orderings o

85 es can reassemble into circular rosette-like superstructures, but the underlying signaling mechanisms

86 bpopulation of neurons, the ECM condenses to superstructures called perineuronal nets (PNNs) that sur

87 ly self-organize into large matrix-degrading superstructures called rosettes.

88 This cellular superstructure can display increased resistance to antib

89 ach component of these nanoparticle-hydrogel superstructures can be easily modified, resulting in pla

90 Mesoporous 2D superstructures can be fabricated over macroscopic film

91 the vimentin network acts as a load-bearing superstructure capable of integrating and reorienting ac

92 simulation, the dynamic formation of diverse superstructures: colloidal micelles, chains, or bilayers

93 Superstructures, combining nanoscopic constituents into

94 The nC60-stir was a superstructure composed of face-centered cubic (fcc) clo

95 Highly ordered superstructures composed of inorganic nanoparticles appe

96 and X-ray diffraction (XRD) to interpret the superstructure composing aqueous fullerene C60 nanoparti

97 are integrated into a single bifunctional 3D superstructure comprising small gold satellites self-ass

98 7, 9, and 11) yield irregular double-helical superstructures comprising spherical AuNPs, while C(18)-

99 ortantly, these supernanoparticles exhibit a superstructure consisting of a close-packed magnetic nan

100 diffraction reflections indicative of a CeO2 superstructure containing ordered oxygen vacancies.

101 The induced helical superstructure containing the molecular switch with term

102 nons that emerge from the periodicity of the superstructures contribute to thermal transport.

103 ing precision control over the nanofibrillar superstructure, crystalline morphology or molecular orie

104 s that the fraction of heat transport by the superstructure decreases as the Rayleigh number increase

105 The formation of this superstructure depends on the adaptor protein CheW, whic

106 in a polymer thin film and we observe unique superstructures derived from edge-edge or face-face inte

107 hat X2-Ph crystallizes into a densely packed superstructure, despite the criss-crossed conformations

108 Pb ultrathin films exhibit a Moire superstructure due to the lattice mismatch of Pb and IrT

109 an lead to markedly different self-assembled superstructures due to subtle changes in the free energe

110 ter length scale twisted ribbon hierarchical superstructures during storage of colloidal CsPbBr(3) NC

111 ) crystallographic registry within cage-like superstructures emerges as a result of the concerted 3D

112 ansfer interaction in the long-range ordered superstructure enables the crystals to demonstrate exter

113 The occurrence of the light-induced helical superstructure enables the formation of diffraction grat

114 d-state morphologies reveals that the locked superstructure engenders the formation of hierarchical 1

115 lar locker enables the formation of a locked superstructure equipped with emergent structure-function

116 ic direction of a soft, cubic liquid-crystal superstructure, exhibiting an alternate uniform and rand

117 Surprisingly, such sparse tetragonal superstructure exhibits much higher thermostability than

118 etry boundaries, but it is not known whether superstructures exist at general grain boundaries in pol

119 en reversible chirality inversion of helical superstructures fabricated from different nematic hosts

120 s the creation of new and stable soft-matter superstructures far from equilibrium.

121 are reported; S-PBN(b)-Ph4 PDI-[(6,5) SWNT] superstructures feature a PDI electron acceptor unit pos

122 y a receptor-induced conversion into helical superstructures (filaments) assembled from its globular

123 e in situ allowing template to macrocycle to superstructure formation and the ability to exchange the

124 orm stable beta-sheets was found to suppress superstructure formation.

125 The immunological synapse (IS) is a superstructure formed during T cell activation at the zo

126 (6)][AuBr(4)](alpha-cyclodextrin)(2)}n chain superstructure formed during the rapid co-precipitation

127 It was found that superstructures formed are dependent on the length of th

128 tential), a highly ordered and flat-oriented superstructure forms, allowing for direct contact betwee

129 Spherulites, a common crystalline superstructure found in these systems, for example, inco

130 bly upon crystallization of a double-helical superstructure from an enantiopure macrocyclic dimer whi

131 e a self-organized, phototunable 3D photonic superstructure from monodisperse droplets of one-dimensi

132 teria for next-generation mesoporous network superstructures from binary nanoparticle mixtures for po

133 nd physics is spontaneously to form intended superstructures from designed building blocks.

134 Bottom-up fabrication of complex 3D hollow superstructures from nonspherical building blocks (BBs)

135 ledge, the self-assembly of such solid-state superstructures from two conformational diastereoisomers

136 n of the octahedral tilt modulation with the superstructure geometry and lattice-parameter variations

137 otropic plasmonic nanomaterials into ordered superstructures has become popular in nanoscience becaus

138 However, such superstructures have not been revealed for RNA.

139 n of highly ordered, one-dimensional tubular superstructures, held together by means of multiple [CHO

140 the recognition and modulation of chromosome superstructure; however, recent evidence has indicated t

141 hirality inversion in self-organized helical superstructures (i.e. cholesteric, chiral nematic liquid

142 incorporation into a self-organized helical superstructure, i.e., a cholesteric liquid crystal.

143 d a thermally driven, self-organized helical superstructure, i.e., thermoresponsive cholesteric liqui

144 act as a chiral dopant and induce a helical superstructure in an achiral liquid crystal host but als

145 tion and theory enables exquisite control of superstructure in highly ordered porous three-dimensiona

146 direct observations of the evolution of the superstructure in La1/3Ca2/3MnO3 in real space, as well

147 The ribbon superstructure in Na(0.6)[Li(0.2)Mn(0.8)]O(2) inhibits m

148 hich enables reversible induction of helical superstructure in nematic liquid crystals containing a v

149 ycle voltage hysteresis is determined by the superstructure in the cathode, specifically the local or

150 cathodes by forming materials with a ribbon superstructure in the transition metal layers that suppr

151 functional three-dimensional silica/protein superstructure in vivo.

152 toms, features a hexagonal-diamond-like gold superstructure in which tunnels along the 3-fold axes ar

153 ined, branched, zigzag, and cyclic colloidal superstructures in a highly site-specific manner by surf

154 gnetite self-assemble into arrays of helical superstructures in a template-free manner with >99% yiel

155 highlight the utility of these polymer-SWNT superstructures in experiments that establish the potent

156 and spectroscopy electronic aspects of Moire superstructures in nanoscale Pb quantum films grown on I

157 ity to predefine chiral or racemic colloidal superstructures in nematic colloids.

158 dimensional aggregation into beta-sheet-like superstructures in the presence of a central chromophore

159 We visualize such long-range periodic superstructures in thin crystals of hexagonal boron nitr

160 the materials adopt orthorhombic perovskite superstructures in which the RuO6 octahedra are tetragon

161 dled pearl necklaces, lamellar, and nanorice superstructures, in situ.

162 Chiral nanoparticle (NP) superstructures, in which discrete NPs are assembled int

163 and spheres, obtaining a class of colloidal superstructures, including cubic and tetragonal colloida

164 ects, reproduces the experimentally observed superstructures, including recently observed superlattic

165 etrahydrofuran, APMNs assembled into various superstructures, including unimolecular micelles, cluste

166 The corresponding superstructure involves a modulated displacement of Ce a

167 mbly, and the formation of an interconnected superstructure is a key feature of polar organization in

168 The developed superstructure is composed of waste management unit proc

169 zigzag pattern deformation of a soft helical superstructure is demonstrated in a photoresponsive self

170 en nearest neighboring units in the tethered superstructure is preserved at a temperature (371 K) whe

171 visible-light-induced formation of a helical superstructure is reported, i.e., a cholesteric liquid c

172 Imposing chirality into nanoscale superstructures is a major step forward toward systemati

173 DNA to assemble inorganic nanoparticles into superstructures is an emerging strategy to build non-tox

174 ecture within a class of chiral nanoparticle superstructures is important for fine-tuning their chiro

175 articles using rationally designed plasmonic superstructures is presented.

176 Three X-ray single-crystal superstructures-KAu(CN)(2)Calpha-cyclodextrin, KAu(CN)(2

177 facilitate the compaction of DNA into dense superstructures known as chromatin.

178 systematically engineered via the octahedral superstructures leading to a modulated magnetization in

179 ordered, segregation-induced grain boundary superstructures occur at randomly selected general grain

180 Controlling superstructure of binary nanoparticle mixtures in three

181 )Ge, a reapportioned radical2 x radical2 x 1 superstructure of CeMg(2)Si(2) (P4/mmm), exhibits checke

182 Ba8Au16P30 crystallizes in an orthorhombic superstructure of clathrate-I featuring a complete separ

183 ll title compounds crystallize in an ordered superstructure of clathrate-I in the Ia3 space group (No

184 nsic deformations within the low temperature superstructure of magnetite provides new insights into t

185 Here we report the full low-temperature superstructure of magnetite, determined by high-energy X

186 The honeycomb superstructure of Na(0.75)[Li(0.25)Mn(0.75)]O(2), presen

187 at the absence of Piccolino destabilizes the superstructure of plate-shaped synaptic ribbons, althoug

188 The unit cell resembles a 4 x 4 x 4 superstructure of superprotonic CsH(2)PO(4), but feature

189 f a targeted surface define the sequence and superstructure of surface-organizing peptides.

190 Ca10Cd27Cu2 adopts a C-centered monoclinic superstructure of the 1/1 Bergman approximant structure,

191 action analysis reveals that the solid-state superstructure of the 1:1 complex constitutes a discrete

192 The DFT calculated superstructure of the [2]pseudorotaxane 3 subsetCBPQT(4+

193 The solid-state superstructure of the cocrystals reveals that a 2:1 rati

194 ical interactions that are influenced by the superstructure of the crystalline phase.

195 However, a fortuitous solid-state superstructure of the expected 1:1 complex revealed its

196 The solid-state superstructure of the oligoviologen with three BIPY(2+)

197 The solid-state superstructure of this cyclophane reveals a herringbone-

198 The helical superstructure of this TubRC may indicate convergent evo

199 izes the heterotrimeric collagen type I, the superstructure of which is unknown.

200 cohesive interactions readily create fibrous superstructures of bundled filaments as molecules redist

201 handedness inversion to the induced helical superstructures of cholesteric liquid crystals are highl

202 The results show that the self-assembled superstructures of CsPbBr(3) NCs are now feasible to pre

203 t optoelectronic properties and higher order superstructures of CsPbBr(3) NCs should aid their potent

204 guarantee helically wrapped polymer-nanotube superstructures of fixed helical chirality.

205 lable manipulation of self-organized dynamic superstructures of functional molecular materials by ext

206 e that guests play in constructing assembled superstructures of hosts and offers a novel approach to

207 may find uses in self-assembled topological superstructures of knotted particles linked by nematic f

208 hirality (the handedness) of dynamic helical superstructures of molecular and macromolecular systems

209 Two diverse superstructures of nanoscopic CdSe were prepared using s

210 lts open possibilities to create and control superstructures of ordered defects in thin oxide films b

211 er conditions leading to the formation of 2D superstructures of silica cages, the thinnest mesoporous

212 of electrodes, as well as the self-organised superstructures of the monolayers of switchable MIMs emp

213 es that organize into geometrically specific superstructures on molecular surfaces, directing further

214 s) can self-assemble into complex, organized superstructures on patterned surfaces through fluid-medi

215 fields, such as building blocks for complex superstructures, optical biosensors, and optoelectronic

216 ediately induce an optically tunable helical superstructure or retain an achiral photoresponsive liqu

217 ediately induce an optically tunable helical superstructure or to retain an achiral liquid-crystal ph

218 ch promotes the formation of elegant helical superstructures or supramolecular assemblies in chiral e

219 e., cubes instead of spheres) into 3D hollow superstructures (or "colloidosomes").

220 Two-dimensional (2D) van der Waals (vdW) superstructures, or vdW solids, are formed by the precis

221 we identified Gli3 as a global regulator of superstructure patterning, whereas Pbx1, Pbx2, Hoxa11 an

222 de strong evidence for genetic regulation of superstructure patterning, which further supports the no

223 One domain type shows extremely weak superstructure phenomena revealed by atomic-resolution s

224 Such helical superstructures play key roles in the propagation of cir

225 These results demonstrate that the PADI6/CPL superstructure plays a key role in regulating MT-mediate

226 t control the patterning of Sox9 (+)/Scx (+) superstructure progenitors in mouse and show that this p

227 Expanding the library of self-assembled superstructures provides insight into the behaviour of a

228 dentical, mixtures of these form homogeneous superstructures, rather than mixed species.

229 , and the emulation of tailor-made nanoscale superstructures realized in the nature, using artificial

230 y, the reflection wavelength of the photonic superstructure red-shifted, whereas its reverse process

231 olloidal building block to construct ordered superstructures remains unexplored.

232 s through anion exchange regulates the actin superstructures required for bone resorption.

233 ubR from Bacillus megaterium forms a helical superstructure resembling that of ParR.

234 ions with 2a x 2a and radical3a x radical3a superstructures, respectively.

235 Solid-state superstructures, resulting from assemblies programmed by

236 VP was shown to cause the disassembly of the superstructures, resulting in the first examples of wate

237 The fused superstructures retain the native morphology and crystal

238 mechanical calculations agree well with the superstructure revealed by X-ray crystallography for CBP

239 the potentiometric properties of the locked superstructure reveals a 100-mV stabilization of the con

240 ion is paid to the slowly evolving turbulent superstructures-so called because they are larger in ext

241 This "meso-superstructured solar cell" exhibits exceptionally few f

242 , leading to a new type of solar cell - meso-superstructured solar cells (MSSCs) with a high power co

243 nt of their side chains to form well-defined superstructures such as nanoscale bow ties and macrocycl

244 further structural decoding of other 2D vdW superstructure systems with more complex Moire images.

245 in an emulsion droplet creates micron-sized superstructures, termed photonic balls.

246 a slender hybrid silica/protein crystalline superstructure that directs the morphogenesis of the spi

247 h = 10 +/- 2 nm), providing a self-assembled superstructure that maintains structural homogeneity in

248 -after intermediate A(2/3)FePO4 (A = Na, Li) superstructures that are characterized by alkali ions as

249 Cytoskeletal filaments form diverse superstructures that are highly adapted for specific fun

250 from 0.1 to 0.7 h(-1) and the engineering of superstructures that can release two different preloaded

251 arge-area striping reminiscent of the stripe superstructures that characterize the proximity of the s

252 assembly of single-helical gold nanoparticle superstructures that exhibit exceptionally strong chirop

253 e continuous influx of energy and results in superstructures that exist out of equilibrium.

254 chirality and the population of polymer-SWNT superstructures that feature the unexpected polymer heli

255 crystals (CLCs)--are self-organized helical superstructures that find practical application in, for

256 of nanoparticles into hydrogels yields novel superstructures that have become increasingly popular in

257 supermicelles and one-dimensional (1D) or 3D superstructures that persist in both solution and the so

258 Hence, investigating the phase-transition superstructures that self-assemble through the process o

259 ived bisimide (PDI) electron acceptors forms superstructures that undergo fast photoinduced charge se

260 itch efficiently induces luminescent helical superstructures, that is, a cholesteric phase.

261 ular switches induce photoresponsive helical superstructures, that is, cholesteric liquid crystals, w

262 s as building blocks for the creation of new superstructures, the integration of alternative molecule

263 yanoethylene (TCNE) can be inserted into the superstructure through a single-crystal-to-single-crysta

264 f assembling the GNRs into ordered arrays or superstructures through processes such as solvent evapor

265 n branch, to reduce the complex 3D turbulent superstructure to a temporal planar network in the midpl

266 c medium featured by photo-invertible chiral superstructure to realize geometric phase elements with

267 be synergistically combined, enabling these superstructures to excel in scenarios where employing ea

268 At higher temperatures, this superstructure transforms into a (Pb(0.5)Sn(0.5)Se)(1+de

269 ve self-organized cholesteric liquid crystal superstructure under the simultaneous influence of an ap

270 osheets are the most direct features for vdW superstructures under microscopic imaging.

271 signaling pathway in which a complex protein superstructure underlies sophisticated sensory performan

272 lf-organizing into optically tunable helical superstructures undoubtedly represent a striking example

273 versible handedness inversion to the helical superstructure upon irradiation with visible light of di

274 NPs) affords photosynthetic routes to chiral superstructures using circularly polarized photons.

275 hieved within a class of chiral nanoparticle superstructures via careful design and selection of pept

276 the structure and properties of chiral AuNP superstructures via simple molecular-level tuning of pep

277 e resulting nanoparticle impregnated helical superstructure was found to exhibit unprecedented revers

278 esponsive liquid crystal phase whose helical superstructure was induced and tuned reversibly upon lig

279 n achiral liquid-crystal phase whose helical superstructure was induced and tuned reversibly upon vis

280 ma)(TiSe(2)) (m)(PbSe)(1+delta)(TiSe(2)) (m) superstructure was used as the indicator of the progress

281 ng CDSA to generate fence-like "shish-kebab" superstructures was also explored.

282 Within these superstructures, we demonstrate various compositions and

283 l and orientational characteristics of these superstructures were determined using a transmission ele

284 surfaces, and one-dimensional self-assembled superstructures were observed for both 2 and 1 due to th

285 ylene promotes the formation of capsule-like superstructures, whereas toluene results in the formatio

286 nto higher order structures and hierarchical superstructures, which has not been demonstrated yet for

287 n in a 1:1 molar ratio in the double-helical superstructure, whose handedness is dictated by the choi

288 Here we report a Na5/8MnO2 superstructure with a pronounced static CJTE that is cou

289 A FS superstructure with Q1 = (1/2,1/2,1/2) appears in all LN

290 asuring the thermal evolution of the lattice superstructure with reciprocal-space probes alone can le

291 e structures, and their packing into a novel superstructure with unexpected three-fold rotational sym

292 external, dynamic control to self-organized superstructures with desired functionalities is an impor

293 emote, and dynamic control to self-organized superstructures with desired properties is an important

294 nocrystals can self-assemble into a range of superstructures with different translational and orienta

295 t initiators to produce various hierarchical superstructures with highly uniform morphologies and fin

296 ssembly of colloidal nanocrystals (NCs) into superstructures with long-range translational and orient

297 d by a reduction reaction, gold nanoparticle superstructures with P-helicity were prepared from the s

298 tuning self-organized three-dimensional (3D) superstructures with tailored functionality is crucial i

299 Luminescent network: Colloidal excimer superstructures with unique optical and electronic prope

300 3m structure (x = 3.13(4)), and a cubic Fm3m superstructure (x = 2.69(6)), form preferentially depend