ライフサイエンスコーパス: three-dimensional

1 dification of 2-D graphene sheets to make is three-dimensional.

2 ker evaluation, single cell clonal assay and three-dimensional (3-D) culture.

3 interactions in vitro, we developed a human three-dimensional (3-D) endometrial epithelial cell (EEC

4 Three - dimensional (3D) electrodes are successfully use

5 nd the opaque nature of the myocardium, deep three dimensional (3D) imaging is difficult to achieve a

6 ricated by the Immersed surface accumulation three dimensional (3D) printing process.

7 We report a three dimensional (3D) quantitative visualization of a m

8 In this paper, we present the design of a three-dimensional (3D) anisotropic SRR functioning as a

9 The three-dimensional (3D) architecture of the cell nucleus

10 siological conditions in human body, such as three-dimensional (3D) architecture, cell heterogeneity,

11 hanically interlocked molecules into complex three-dimensional (3D) architectures by direct-write 3D

12 Here we introduce concepts in three-dimensional (3D) architectures that bypass importa

13 Three-dimensional (3D) assemblies based on carbon nanoma

14 nd speech recognition, their applications to three-dimensional (3D) biomolecular structural data sets

15 Here, we employ an ultrasensitive three-dimensional (3D) chemical analysis to uncover the

16 High-throughput assays for measuring the three-dimensional (3D) configuration of DNA have provide

17 We report here the Hi-C-determined three-dimensional (3D) conformations of Sc2.0 chromosome

18 ic community with a shared interest in using three-dimensional (3D) culture methods to study biology,

19 This concept implies the importance of a three-dimensional (3D) culture model including these cel

20 ation in GFP-FIP2(S227E)-expressing cells in three-dimensional (3D) culture.

21 one PTM patterns in submillimetric layers of three-dimensional (3D) cultures.

22 t advances in imaging have produced detailed three-dimensional (3D) datasets of vascularized tissues

23 pological insulator states in a prototypical three-dimensional (3D) Dirac material, Na3Bi.

24 Here, using three-dimensional (3D) electron diffraction mapping appr

25 human carotid atherosclerotic plaques using three-dimensional (3D) electron microscopy, a method nev

26 e behavior and tumor growth in a controlled, three-dimensional (3D) environment.

27 Real-time tracking of the three-dimensional (3D) evolution of colloidal nanopartic

28 Tissue folding promotes three-dimensional (3D) form during development.

29 ulation of the transcriptional regulator and three-dimensional (3D) genome organizer CTCF at cryptic

30 The three-dimensional (3D) genome structure is highly ordere

31 spontaneously transformed to realise various three-dimensional (3D) geometries.

32 nal (2D) leaf sections and corrected for the three-dimensional (3D) geometry of mesophyll cells, lead

33 PTEN controls three-dimensional (3D) glandular morphogenesis by coupli

34 on a novel gold microelectrode with a unique three-dimensional (3D) hierarchical nanoporous structure

35 r motor ensembles to travel along the cell's three-dimensional (3D) highway of actin filaments.

36 We report the design of a three-dimensional (3D) holey-graphene/niobia (Nb2O5) com

37 Neural progenitor cell (NPC) culture within three-dimensional (3D) hydrogels is an attractive strate

38 uperconducting behaviour of the film and the three-dimensional (3D) magnetic structure of nano-rods.

39 We demonstrate programmable fabrication of three-dimensional (3D) materials by printing engineered

40 e protrusions in response to the surrounding three-dimensional (3D) matrix.

41 Three-dimensional (3D) models of dimers are generated by

42 Three-dimensional (3D) molecular imaging enables the stu

43 Three-dimensional (3D) networks of graphitic carbon are

44 Three-dimensional (3D) optical imaging of whole biologic

45 Three-dimensional (3D) ordered arrays of human immunoglo

46 A unique three-dimensional (3D) organotypic culture model was est

47 Three-dimensional (3D) printing has proven to be a versa

48 manufacturing (AM) processes, also known as three-dimensional (3D) printing, create 3D objects by th

49 itive-manufacturing (AM) technique, known as three-dimensional (3D) printing, has attracted much atte

50 itive manufacturing techniques, for example, three-dimensional (3D) printing, of all-liquid construct

51 microphysiological devices via multimaterial three-dimensional (3D) printing.

52 ed to elucidate the relationship between the three-dimensional (3D) root surface area (RSA) and two-d

53 ect subcellular activities of SFK and FAK in three-dimensional (3D) settings.

54 en widely studied for the measurement of the three-dimensional (3D) shape of specular objects.

55 spectral data presents a challenge, even if three-dimensional (3D) spectra are used.

56 submitted multiple-sequence alignment using three-dimensional (3D) structural information in order t

57 ecules are dependent upon sustained specific three-dimensional (3D) structures of RNA, with or withou

58 -ray diffraction, reveals the formation of a three-dimensional (3D) supramolecular framework with ca.

59 We reconstructed the three-dimensional (3D) surface displacement field of the

60 For adhering to three-dimensional (3D) surfaces or objects, current adhe

61 We describe herein a three-dimensional (3D) tissue culture platform using a p

62 An ideal approach would support three-dimensional (3D) tissue cytometry: an automated qu

63 Bioengineered three-dimensional (3D) tumor models that incorporate het

64 Three-dimensional (3D) tumor spheroid models have gained

65 method that allows the optical encryption of three-dimensional (3D) volumetric information at the mic

66 We demonstrate that the three-dimensional (3D) zinc form-factor elevates the per

67 ow cells adhere to and exert forces in soft, three-dimensional (3D), and structurally heterogeneous E

68 These results offer a new way to design three-dimensional active site environments for synthetic

69 ere (i) to devise an effective technique for three-dimensional analyses of human placental vessels; (

70 Two- and three-dimensional analyses of micro- and nano-scale X-ra

71 The three-dimensional architecture of plant canopies imposes

72 Determining the three dimensional arrangement of proteins in a complex i

73 d the carboxylate group of acetate to give a three-dimensional arrangement of Ca(-COO, -OH) polyhedra

74 The three-dimensional arrangement of the human genome compri

75 combined with genetic labeling to define the three-dimensional arrangement of the S. pombe Ccq1-Tpz1-

76 The three-dimensional artificial synapse networks enable a d

77 oked, which is surprising given their unique three-dimensional binding cavities capable of guest enca

78 the PCS measurement are consistent with the three-dimensional bulk state and the two-dimensional sur

79 The results are evaluated and discussed in a three-dimensional calibration plot demonstrating the sen

80 lar energy regulation and utilization during three-dimensional cancer cell migration.

81 s calculations, we discover a new metastable three-dimensional carbon allotrope entirely composed of

82 modynamic, functional, and clinical markers, three-dimensional cardiac motion improved survival predi

83 The presence of a three-dimensional CdSe network having a coherent crystal

84 ng compositions that improve transfection in three-dimensional cell constructs.

85 Three-dimensional cell culture models have either relied

86 A microcavity array with a high density three-dimensional cell culture served as a functional ma

87 a HCT 116 cells were cultured and grown into three-dimensional cell culture spheroids.

88 ate that geometric constraints can influence three-dimensional cell morphology and packing within epi

89 Amorphous gyroid samples are fabricated via three-dimensional ceramic printing and the bandgaps expe

90 ve not yet been made compatible with complex three-dimensional changes and rapidly decreasing cell si

91 otors, autonomously flows through meter-long three-dimensional channels.

92 ing chromatin contacts and other features of three-dimensional chromatin topology on the basis of seq

93 on of such variants, we used high-resolution three-dimensional chromosomal structural data and transc

94 both intact ex vivo peritoneal explants and three-dimensional collagen gels.

95 id lateral dispersal prior to penetration of three-dimensional collagen matrices.

96 metastatic breast cancer cells embedded in a three-dimensional collagen matrix with and without the p

97 metabolism of combination chemotherapies in three-dimensional colon cancer cell cultures, or spheroi

98 The area under ROC from three-dimensional combination of PGI/II-HpAb-OPN (0.826)

99 Three-dimensional combined biomarkers assay could improv

100 iological environments, such as organoids or three-dimensional complex matrices.

101 stem cells grown in vitro under appropriate three-dimensional conditions can produce outgrowths know

102 Three-dimensional confocal imaging revealed that neoarte

103 t-like stages by light, scanning electron or three-dimensional confocal scanning microscopy.

104 non-small-cell lung cancer (NSCLC), IMRT and three-dimensional conformal external beam radiation ther

105 In this work, a three-dimensional continuum elastic model for gramicidin

106 noma (HNSCC) UM-SCC-1 cells both in in vitro three-dimensional culture and in an in vivo orthotopic n

107 tive colorectal cancer cells to cetuximab in three-dimensional culture.

108 Three-dimensional cyclic voltammetry simulations using C

109 applicable to any track geometry, including three-dimensional designs.

110 dislocation dynamics in individual grains in three-dimensional detail with 10-nanometer spatial and s

111 hroughout the thickness and is intrinsically three dimensional, determining the complex magnetic stru

112 Three-dimensional diffusion constants for unbound LacI c

113 glutamate binding by effectively reducing a three-dimensional diffusion process to a spatially const

114 In particular, the nano-scale three-dimensional distribution of aliovalent lanthanide

115 This study applied a three-dimensional dynamic dual-agent hyperpolarized (13)

116 We present a three-dimensional dynamic visualization study using fast

117 Three-dimensional Ehrlich-Schwoebel barriers converge as

118 es in mouse motor and sensory cortices using three-dimensional electron microscopy.

119 urce array geometries, which is suitable for three-dimensional endoscopic and laparoscopic imaging, a

120 monstrate that matrix degradability switches three-dimensional endothelial cell invasion between two

121 estinal cell metabolism, and physiology in a three-dimensional environment mimicking tissue architect

122 Traditional three-dimensional environments for the culture of cells

123 ry tumor cells, when cultured in a stiffened three-dimensional extracellular matrix that recapitulate

124 s-section; the macroscale model represents a three-dimensional fibrin clot.

125 ophages demonstrated improved migration in a three-dimensional fibrin matrix and during resolution of

126 A three dimensional finite-difference-time-domain (FDTD) s

127 on the formation of multiple fiber bundles, three-dimensional finite element simulations are conduct

128 t models should treat soil moisture within a three-dimensional framework emphasizing hydrologic condu

129 s on data quality during real-time-corrected three-dimensional gamma-aminobutyric acid-edited magneti

130 Three dimensional genome structures such as local loops

131 mains are fundamental building blocks of the three-dimensional genome.

132 a promoter and an enhancer, we constructed a three-dimensional global connectivity map of promoters a

133 The fabrication of complex three-dimensional gold-containing nanocomposite structur

134 ormed by filling a microfluidic chamber with three-dimensional graphene foam as anode, allowing nutri

135 their non-tumorigenic epithelial cell type, three-dimensional growth, latrunculin-A-induced actin de

136 and genetically expressed labels, as well as three-dimensional handheld diagnostics of human subjects

137 Both three-dimensional hcp UiO-67 and two-dimensional hxl UiO

138 s (modified electrodes) consisting of hollow three-dimensional hexagonally packed crystals with two-d

139 The unique three-dimensional hierarchical structure as well as the

140 reduced total number of branching tubules in three-dimensional human dermal organoid ex vivo culture.

141 Small interfering RNA knockdown of CAPN12 in three-dimensional human skin models was associated with

142 Three-dimensional hybrid simulations corroborate our exp

143 f two-dimensional radiation hydrodynamic and three-dimensional hybrid simulations shows the control o

144 Quantitative three-dimensional image analysis, combined with a genome

145 From the random projection views, a three-dimensional image is reconstructed, enabling the s

146 Electron cryotomography (ECT) can produce three-dimensional images of biological samples such as i

147 onstructing high-quality two-dimensional and three-dimensional images.

148 Using a combination of ultrahigh-resolution three-dimensional imaging and two-dimensional solid-stat

149 using electron and X-ray techniques, in situ three-dimensional imaging of defect dynamics remains cha

150 se electron cryotomography(10) to reveal the three-dimensional in situ structure of a T4bP machine in

151 tumor spheroid models serve as an important three-dimensional in vitro cell model system as they mim

152 odel for the Chusang travertine neglects the three-dimensional information from multiple outcrops and

153 tectures, the layered fabrication realizes a three-dimensional integrated circuit architecture with f

154 rchitectures that increase the complexity of three-dimensional interconnectivity.

155 Three-dimensional ion volume reconstructions were also a

156 SC proteins can also form polycomplexes, three-dimensional lattices that recapitulate the periodi

157 Three-dimensional lead-halide perovskites have attracted

158 2/3-dependent pseudopods are dispensable for three-dimensional locomotion, their elimination dramatic

159 report describing the development of a novel three dimensional manganese nanostructures based carbon

160 s simple and rapid access to high-resolution three-dimensional maps of the tumor immune microenvironm

161 ry different from those of the corresponding three-dimensional materials because of extreme quantum c

162 raphic postprocessing protocol with two- and three-dimensional measurements for follow-up of patients

163 The three-dimensional mechanical balance is dependent on the

164 By delineating three-dimensional mechanisms of gene expression regulati

165 A permanently porous, three-dimensional metal-organic material formed from zer

166 Two- and three-dimensional metallosupramolecules shaped like a St

167 we demonstrate the parallel self-assembly of three-dimensional microconstructs, evincing highly speci

168 trix interactions for efficient migration in three-dimensional microenvironments.

169 Three-dimensional microfluidic paper-based analytical de

170 We present three-dimensional microshells formed by self-assembly of

171 sed of a fixed-frequency transmon qubit in a three-dimensional microwave cavity at 20 mK.

172 itation of the 'flat world' we constructed a three-dimensional model of Balkans.

173 short-axis cine images was used to create a three-dimensional model of right ventricular motion.

174 issue incorporating a biophysically detailed three-dimensional model of the ventricular myocyte.

175 Three-dimensional modeling of Complex II suggested that

176 We combined molecular networking and three-dimensional modeling to generate chemical cartogra

177 By employing three-dimensional modeling, we developed synthetic ligan

178 gle-particle electron microscopy to generate three-dimensional models of MCM complexes.

179 Three-dimensional molecularly targeted US signal correla

180 The optimized three-dimensional molybdenum disulfide foam with uniform

181 In a previous study, we described the three-dimensional morphologies of sensory neuron cilia i

182 A three-dimensional morphometric analysis of presynaptic g

183 stresses on the interface, which results in three-dimensional motion inside the droplet and thus fas

184 ed the sublateral SIA neurons to control the three-dimensional movements of flipping.

185 e high-spatial-resolution diagnostic-quality three-dimensional MR image and evaluated it in brain PET

186 The proposed three-dimensional, multiscale, in-silico model of dynami

187 ds) of micrometre-sized, face-centred-cubic, three-dimensional nanocrystal superlattices during collo

188 anochannel is facilitated by incorporating a three-dimensional nanofunnel at the nanochannel entrance

189 dy paves the way to develop high-performance three-dimensional nanoporous catalysts with a tunable su

190 ed to improving the catalytic performance of three-dimensional nanoporous catalysts.

191 Nevertheless, the surface modification of three-dimensional nanoporous metals, fabricated by a top

192 various other dimensions like zero-, one- or three-dimensional nanostructures.

193 cticable novel approach to production of the three-dimensional NDP-ACMs (3D-NDP-ACMs).

194 hepatic biliary network is a highly branched three-dimensional network lined by biliary epithelial ce

195 y computes the structural differences of the three-dimensional networks.

196 ct Fe-Fe c-axis chains in the generally more three-dimensional NiAs structure.

197 n is accompanied by marked remodeling of the three-dimensional nuclear organization and microanatomy,

198 able sequence arrangements result in various three-dimensional nucleoprotein structures that differ i

199 In this work we present results of the first three-dimensional numerical experiments of a water-rich

200 Three-dimensional OCTA scans were acquired.

201 rray of 11 zinc fingers (ZFs), modulates the three-dimensional organization of chromatin.

202 cerevisiae is a long-standing model for the three-dimensional organization of eukaryotic genomes.

203 Whether the location and three-dimensional organization of tDNAs contribute to th

204 tenance of a proper nuclear architecture and three-dimensional organization of the genes, enhancer el

205 Thus, 53BP1 is required for three-dimensional organization of the Igh locus and prov

206 ighly dependent on the interconnectivity and three-dimensional organizations of the brain.

207 Three-dimensional organoids generate complex organ-like

208 c materials enables one to better understand three-dimensional orientation fields in cholesteric liqu

209 cted by using supervised machine learning of three-dimensional patterns of systolic cardiac motion.

210 The SAR data formed the basis for a three-dimensional pharmacophore model for GHB ligands, w

211 tional fabrication approaches for large-size three-dimensional photonic crystals are problematic.

212 gradient-temperature technique that enables three-dimensional photonic crystals to grow to lateral d

213 line blue phase liquid crystals that exhibit three-dimensional photonic-crystalline properties.

214 are limited by the difficulty of simulating three-dimensional physiological conditions in human body

215 Three-dimensional plasmonic superlattice microcavities,

216 line, permanently porous, two-dimensional or three-dimensional polymers with tunable topology and fun

217 Three-dimensional porous scaffolds play a pivotal role i

218 Organ and tissue formation are complex three-dimensional processes involving cell division, gro

219 l for driving the acceptance and adoption of three-dimensional protein models by life scientists.

220 B11B mutants, we modeled the variants on the three-dimensional protein structure and performed subcel

221 Surprisingly, three-dimensional pseudopods turn out to be composed of

222 To analyze three-dimensional pseudopods we: (i) developed fluoresce

223 A three-dimensional quadrant model was built to represent

224 mputed tomography (ICT) systems to provide a three-dimensional quantitative characterization of the f

225 In this paper, a novel array of quasi-three-dimensional (quasi-3D) bowtie nanoantennas has bee

226 new imaging modality that captures two- and three-dimensional real-time dynamics of neutrophil trans

227 filling tessellations of polyhedra to create three-dimensional reconfigurable materials comprising a

228 , dual-axis electron tomography was used for three-dimensional reconstruction and analysis of caveola

229 Three-dimensional reef reconstructions from photogrammet

230 sition temperature to magnetic fields in the three-dimensional regime.

231 Three-dimensional rendering of the PLA images validated

232 The resulting three-dimensional representation of the SLO active site

233 From the measurements of three-dimensional RI maps of individual lymphocytes, the

234 Three-dimensional RNA structures are notoriously difficu

235 embryonic trophoblast stem cells (TSCs) in a three-dimensional scaffold to generate structures whose

236 the applicability of advanced FWI methods to three-dimensional seismic field data.

237 at higher intensities is reproduced with the three-dimensional semiclassical model and shown to be du

238 dorsum and lighter ventrum helps to mask the three-dimensional shape of the body by reducing self-sha

239 ght scattering and this has enabled accurate three-dimensional signal visualization and quantificatio

240 Our first three-dimensional simulation with quantum-electrodynamic

241 ecreased invasion of the melanoma cells in a three-dimensional skin reconstruct model and was associa

242 herpes simplex virus 1-sized particles in a three-dimensional soft x-ray tomography reconstruction o

243 lling evidence for exciton condensation in a three-dimensional solid and establishes M-EELS as a vers

244 these reactions can be performed in precise three-dimensional space and at specific moments in time.

245 the first time that positioning particles in three-dimensional space can be used to better leverage t

246 ally from noncontiguous interacting sites in three-dimensional space where the composite binding inte

247 ence of intact MT filaments, we analyzed the three-dimensional spatial relationship between Rab11A an

248 Here we generate three-dimensional spheroids from human pluripotent stem

249 studies with human enteroids grown either as three-dimensional spheroids or two-dimensional monolayer

250 Three-dimensional structural modeling predicted that all

251 A three-dimensional structure (3D) model of Ss-RIOK-2 was

252 Here we report on characterization of the three-dimensional structure and receptor specificity of

253 Protein three-dimensional structure dynamically changes in solut

254 The Pfs25 three-dimensional structure has remained elusive, hamper

255 CRs and provide, to our knowledge, the first three-dimensional structure information for a CCR from a

256 with multiple tissue-specific cell types and three-dimensional structure mimicking native organs.

257 Here we determine the three-dimensional structure of an organometallic complex

258 inter-residue interaction network within the three-dimensional structure of the trimeric GP.

259 g reactions with milk proteins stabilize the three-dimensional structure of yogurt.

260 onarily unrelated in amino acid sequence and three-dimensional structure to the TopoI-CTD found in th

261 functional proteins that lack a well-defined three-dimensional structure.

262 at exist and function without a well-defined three-dimensional structure.

263 Here we use wide-field time-lapse and three-dimensional structured illumination microscopy (3D

264 Three-dimensional structured illumination microscopy ind

265 pectral confocal fluorescence microscopy and three-dimensional structured illumination microscopy of

266 ome from the primary sequences, secondary or three dimensional structures of macromolecules.

267 omputational techniques that compare protein three-dimensional structures and generate structural ali

268 To investigate the three-dimensional structures and macromolecular composit

269 The compounds have three-dimensional structures built up from corner-shared

270 Three-dimensional structures for almost all H. jecorina

271 Three-dimensional structures of ribosomal particles from

272 of protein molecules must fold into defined three-dimensional structures to acquire functional activ

273 d for the development and maintenance of the three-dimensional structures under continuous-flow condi

274 of superlattices, yielding access to complex three-dimensional structures with more than 30 different

275 e MEP pathway, along with their discoveries, three-dimensional structures, and mechanisms.

276 sed by the limitations of low-resolution RNA three-dimensional structures, it becomes a critical chal

277 led navigational charts in the form of their three-dimensional structures.

278 ic and xenograft models and tunable two- and three-dimensional substrates, we show that FN-bound alph

279 Here, we used three-dimensional super-resolution microscopy and transm

280 ble fluorescent nanoparticle (NP) to examine three-dimensional TAM composition, tumour-to-tumour hete

281 ed lattice light sheet microscopy to perform three-dimensional, time-lapse imaging of neutrophil-like

282 We used three-dimensional tissue culture to build an organotypic

283 Three-dimensional tissue-structural relationships are no

284 aph are based on distributions gathered from three-dimensional tomographic images of the cytoskeleton

285 Incorporating ferromagnetic dopants into three-dimensional topological insulator thin films has r

286 Three-dimensional topological insulators are bulk insula

287 rectional helicity-dependent photocurrent in three-dimensional topological insulators at room tempera

288 Knowledge of RNA three-dimensional topological structures provides import

289 rience the least confinement, and hence turn three-dimensional tracking into a one-dimensional proble

290 Three-dimensional tractograms of the left ventricle with

291 l and embryonic stem cells for both two- and three-dimensional transfection strategies.

292 The inherently three-dimensional transition from bulk-turbulent to conf

293 okinetic flow through the depth averaging of three-dimensional transport equations in a second-order

294 re, we report a fluidic device for long-term three-dimensional tumoroid culture which recapitulated t

295 The quanta here are small, pre-manufactured three-dimensional units-which we call metamaterial brick

296 Three-dimensional variably saturated flow and multicompo

297 Here the authors present a three dimensional view showing a spiralling southward pa

298 Electron cryotomography (ECT) provides three-dimensional views of macromolecular complexes insi

299 were examined using immunocytochemistry and three-dimensional volumetric analyses.

300 Our study presents the three-dimensional WP centroid (WPC) movement, WP heat co