ライフサイエンスコーパス: three dimension

1 of different experimental assays (in two and three dimensions).

2 ps in two dimensions and 230 space groups in three dimensions.

3 r the investigation of biological systems in three dimensions.

4 it is notoriously difficult to conduct it in three dimensions.

5 alize optical absorption contrast in vivo in three dimensions.

6 orks often extend hundreds of micrometers in three dimensions.

7 than 75% of cases and can span a surface or three dimensions.

8 structured droplet of chiral active fluid in three dimensions.

9 nanoparticle encapsulated inside the cage in three dimensions.

10 elative to their neighbors, in contrast with three dimensions.

11 ugh providing additional hydraulic routes in three dimensions.

12 ntly deposit and organize the ECM in two and three dimensions.

13 ating from adjacent L5B columns in the BC in three dimensions.

14 find differences between two dimensions and three dimensions.

15 track complex pseudopods of cells moving in three dimensions.

16 ed at nanometre-scale spatial resolutions in three dimensions.

17 rized stage system to cancel brain motion in three dimensions.

18 terize, and manipulate neuronal ensembles in three dimensions.

19 f tissue can specify the shape it assumes in three dimensions.

20 chromosome axes to high spatial precision in three dimensions.

21 ed with histones and DNA-binding proteins in three dimensions.

22 lows based on the NCCM model both in two and three dimensions.

23 complex patterns of movement that evolve in three dimensions.

24 and establishing directional interactions in three dimensions.

25 at cell-scale resolution over millimeters in three dimensions.

26 hile also describing nuclear position in all three dimensions.

27 ol the structure of silk proteins in two and three dimensions.

28 rete stochastic biochemical systems in up to three dimensions.

29 meras enabled marker motion to be tracked in three dimensions.

30 h overlapping and nonoverlapping clusters in three dimensions.

31 t of plane, with long correlation lengths in three dimensions.

32 d correlation of these nanoparticle doses in three dimensions.

33 ar shapes and followed their displacement in three dimensions.

34 ty of interpreter services as variable along three dimensions.

35 mic structure can be routinely determined in three dimensions.

36 ition in two dimensions is different than in three dimensions.

37 ng can provide a similar performance for all three dimensions.

38 variety of photonic topological phenomena in three dimensions.

39 l forces and the deformation of the organ in three dimensions.

40 object to be reconstructed and visualised in three dimensions.

41 elaxation time are very different in two and three dimensions.

42 ish (Danio rerio) neuromuscular junctions in three dimensions.

43 dimensions, whereas it is very pronounced in three dimensions.

44 linking (gamma-CD)6 body-centered cuboids in three dimensions.

45 , actin, and the Golgi apparatus dynamics in three dimensions.

46 ribed by the nearest-neighbor Ising model in three dimensions.

47 ices and functional motifs are positioned in three dimensions.

48 nce for the existence of a marginal glass in three dimensions.

49 onstruct the efferent pathways of the LHb in three dimensions.

50 modeling of heat transfer and fluid flow in three dimensions.

51 ements with the surface plasmon resonance in three dimensions.

52 sensor that is able to measure the field in three dimensions.

53 d to have similar characteristics in two and three dimensions.

54 is label-free and allows imaging in two and three dimensions.

55 on yields images with high resolution in all three dimensions.

56 atment affects melanoma cell MMP activity in three dimensions.

57 relaxation time in two dimensions but not in three dimensions.

58 rstand how OECs interact with other cells in three dimensions.

59 hting the importance of studying a system in three dimensions.

60 pulate microscopic objects, contact-free, in three dimensions.

61 high modal purity, which are well defined in three dimensions.

62 ecovered, each of which has been prepared in three dimensions.

63 can nondestructively probe these changes in three dimensions.

64 optical single molecule tracking in two and three dimensions.

65 reement with our predictions in both two and three dimensions.

66 mage the diffusion layers of UMEs in two and three dimensions.

67 ing multiple materials, known as bioinks, in three dimensions.

68 ctive niche signaling regulates cell fate in three dimensions.

69 sicles, and crystallization of tetrahedra in three dimensions.

70 caled down to less than 10 nm and stacked in three dimensions.

71 aggregates of GFP-conjugated Tau protein in three dimensions.

72 erences in the ordering scenarios in two and three dimensions.

73 egment cells in two dimensions and nuclei in three dimensions.

74 high-speed biological dynamics unfolding in three dimensions.

75 to study viscoelastic relaxation in two and three dimensions.

76 locate cleavage sites by searching freely in three dimensions.

77 al insulators is a spatial lattice in two or three dimensions.

78 s jointly guided by graded changes along all three dimensions.

79 of incidence and polarizations of light, in three dimensions.

80 e-relative correlation functions) in two and three dimensions.

81 ining data, an arduous task, particularly in three dimensions.

82 atterns (Dirichlet tessellations) in two and three dimensions.

83 to control the placement of cells in two and three dimensions.

84 can be reconstructed and observed in two and three dimensions.

85 erning cell types and scaffold properties in three dimensions.

86 obes for understanding disease mechanisms in three dimensions.

87 t lines-dislocation loops-that are unique to three dimensions.

88 ular imaging with cellular resolution in all three dimensions.

89 he individual localisation precisions in all three dimensions.

90 through {W-O-TM-O-W} bridges in one, two, or three dimensions.

91 framework to simulate zebrafish swimming in three dimensions.

92 ogically, compositionally, and chemically in three-dimensions.

93 r features with unprecedented detail in full three-dimensions.

94 than two, creating a synchronised motion in three-dimensions.

95 erior image clarity and fidelity in two- and three-dimensions.

96 anical feedback during morphing of tissue in three dimensions?

97 folk knowledge about animals is dominated by three dimensions: (1) level of cognitive complexity or "

98 lution of precipitates was imaged in two and three dimensions (2-, 3-D) at selected times using optic

99 bacterial populations growing in colonies in three dimensions (3-d).

100 al model of intracellular calcium cycling in three-dimensions (3-D), which incorporates high resoluti

101 non-invasively, in situ, quantitatively, in three dimensions (3D) and in real time.

102 granules have not been studied in detail in three dimensions (3D) in unmodified samples.

103 d stem cells (ADSCs), were differentiated in three dimensions (3D) into chondrogenic and osteogenic s

104 ying principles for hydrodynamic focusing in three dimensions (3D) using miscible fluids and the appl

105 tral imaging to map molecular composition in three dimensions (3D) with submicron resolution.

106 RNP filaments were traced in three dimensions (3D), and their total length was calcul

107 In three dimensions (3D), the Platonic attractor is dominan

108 VLPs) and virions tethered to human cells in three dimensions (3D).

109 Here we image the developing mouse lung in three-dimensions (3D) and show that two nested developme

110 tomography (CT) has been used to observe in three-dimensions (3D) the dynamic process of crack growt

111 for homogeneous, high electron densities in three-dimensions (3D).

112 For species that move freely in three dimensions, a face-centered cubic lattice is best.

113 In three dimensions, a topological insulator is classified

114 l nanomaterials in which NPs are arranged in three dimensions about a screw axis.

115 to image the activity of neural circuits in three dimensions across multiple areas in the brain.

116 regions of efficient cathodoluminescence in three dimensions across visible and near-infrared wavele

117 ions and fractionalization of excitations in three dimensions all stem from a simple classical Hamilt

118 ated method for full organ reconstruction in three dimensions, allowing visualization of intact mouse

119 rotating light-sheet and detection planes in three dimensions and (ii) a computational method that co

120 tions in the mineral content distribution in three dimensions and at the nanometre scale.

121 cluding progressing these models from two to three dimensions and developing new tools for model vali

122 ods to precisely locate nanoscale objects in three dimensions and for the formation of rigorous struc

123 to examine the microanatomy of the cornea in three dimensions and in large tissue volumes.

124 ficient prediction of fluorescence images in three dimensions and over large fields of view.

125 ation of diffusion pathways in one, two, and three dimensions and reproduces migration barriers obtai

126 ds increase approximately linearly along all three dimensions and that detection accuracy is unaffect

127 -molecule localization microscopy imaging in three dimensions and two colors.

128 -Hess scale, aneurysm localization, aneurysm three dimensions and volume, neck width, sac-to-neck rat

129 oeboid cells to migrate in two dimensions or three dimensions and with or without adhesion can be exp

130 r inability to position organic molecules in three dimensions and with sub-1 micrometer resolution.

131 Simulating the quantum evolution in three-dimensions and time, we show that imprinting such

132 m by imaging endogenous clathrin (in two and three dimensions) and apply the method to find the previ

133 are clustered on chromosomes in both two and three dimensions, and interactions with active enhancers

134 ippocampal place-cell maps are metric in all three dimensions, and might be composed of 2-D and 3-D f

135 orescence imaging, 7 x 7 x 3.5 mum in OCT in three dimensions, and the current speed of imaging is up

136 he exploration of geometrical frustration in three dimensions, and their rich phenomenology encompass

137 high-resolution shearing-box simulations in three dimensions, and with global two-dimensional simula

138 al advances in imaging in both real-time and three-dimensions, and in single cell RNA sequencing.

139 Gaseous signaling molecules that diffuse in three dimensions apparently contradict the selectivity a

140 erial to organize plasmonic nanoparticles in three dimensions, as well as fuel for driving the metamo

141 b-diffraction imaging at arbitrary points in three dimensions, as well as the ability to track moving

142 only method capable of visualizing cells in three dimensions at nanometer resolutions.

143 to print arbitrary colors and shapes in all three dimensions at this microscopic length scale.

144 locks where targets were presented in one of three dimensions: auditory location, pitch, or visual br

145 nd segments the lesions, lungs, and lobes in three dimensions, based on a dataset of 9749 chest CT vo

146 We constructed a map of the Milky Way in three dimensions, based on the positions and distances o

147 for carrying out studies of cell sorting in three dimensions, because of its unique ability to regen

148 o answer experimentally: measuring forces in three dimensions, between deeply buried grains, is chall

149 ded by sensitively adjusting their shapes in three dimensions ('biocryomorphic evolution') thus maint

150 e bead's position with nanometer accuracy in three dimensions but is computationally expensive.

151 the tubular architecture of the bile duct in three dimensions, but also its barrier functions.

152 ocesses, we image the impalement dynamics in three dimensions by confocal microscopy.

153 rophobic moment of a molecule as a vector in three dimensions by evaluating the surface distribution

154 ructure and actuate hydrated gels in two and three dimensions by locally patterning ions via their di

155 of producers and free-riders in one, two and three dimensions by modeling producer cell, free-rider c

156 n plunge-frozen form, can be investigated in three dimensions by scanning electron microscopy imaging

157 tics of FcgammaRIII isoforms are obtained in three dimensions by surface plasmon resonance and in two

158 nhance spatial resolution (to <300 nm in all three dimensions) by applying our method to single-view

159 al correlations of neurovascular coupling in three dimensions, by applying a single 10 ms pulse of li

160 rrangement of different molecular species in three dimensions can affect the ability of individual su

161 If applied in three dimensions, CDI can thus recover the sample's elec

162 actin filaments as semiflexible polymers in three dimensions composed of beads connected with spring

163 he most general viscosity tensors in two and three dimensions, constrained only thermodynamics and cr

164 The three dimensions corresponded to three gradients, which

165 interactions are further characterized with three-dimension cultures, in which P3 regenerative cells

166 fine and classify activity cliffs in two and three dimensions, data mining investigations to systemat

167 nerated for each ionization mode considering three dimensions: DBE related to aromaticity, number of

168 atter show a linear electronic dispersion in three dimensions described by two copies of the Weyl equ

169 topological superconductors in both two and three dimensions display SUSY when probed at long distan

170 morph a tissue reliably and efficiently into three dimensions during outgrowth is still puzzling, esp

171 ate these processes non-destructively and in three-dimensions during the sintering of a simple copper

172 struction microscopy (STORM) techniques into three dimensions, effective localization depths do not t

173 angled carbon nanotube (CNT) networks in all three dimensions, employing the CNTs in their high tensi

174 We extended previous efforts in three dimensions, examining a more comprehensive set of

175 k base pairing, with crystal assembly in all three dimensions facilitated by immobile Holliday juncti

176 When cultured in three dimensions, FL cells display resistance to doxorub

177 Measurement of three dimensions followed by calculation of resultant vo

178 rtant role in unveiling atomic behaviours in three dimensions for nanomaterials during various fundam

179 xpression, which can be summarized in two or three dimensions for visualization on a scatterplot.

180 ry society observed; that music varies along three dimensions (formality, arousal, religiosity), more

181 structure of binary nanoparticle mixtures in three dimensions from self-assembly opens enormous oppor

182 ative to their neighbors, two dimensions and three dimensions have similar behavior as the glass tran

183 conservation exhibit low overlap across the three dimensions, highlighting the need for an integrati

184 s in our understanding of limb patterning in three dimensions, how limbs reproducibly form along the

185 When cultured in three dimensions, however, there were subtle differences

186 iomolecular distribution of whole embryos in three dimensions, (ii) resolving anatomical features at

187 many of which exhibit elaborate curvature in three dimensions, illustrated for example by orchid flow

188 ttachment to the tentorium by constructing a three-dimension image of the tentorium and muscles.

189 rom the Mesozoic Era, which are preserved in three dimensions in a specimen from the Late Cretaceous

190 es with an SprB antibody and tracked them in three dimensions in an evanescent field where the nanopa

191 spatial control over their output in two and three dimensions in optical microcircuits.

192 However, analyzing such processes in three dimensions in vivo is challenging.

193 aceous gland and its associated disorders in three dimensions in vivo.

194 me proximal to it or if molecules diffuse in three dimensions, increasing molecular reach increases r

195 hology and molecular diffusion parameters in three dimensions independently of the imaging depth.

196 the hippocampus can be differentiated along three dimensions (input divergence, transmitter mobiliza

197 How DNA is organized in three dimensions inside the cell nucleus and how this af

198 terphase, the human genome sequence folds in three dimensions into a rich variety of locus-specific c

199 Remapping the three dimensions into coordinate space revealed that the

200 ven though real-world motion often occurs in three dimensions, involving a change in distance from th

201 arch problem by the predator for its prey in three dimensions is a difficult problem: it requires the

202 As the extension to three dimensions is accompanied by a considerable dose a

203 ed structures within large intact tissues in three dimensions is an area of intense focus.

204 The characterization in three dimensions is enabled by acquisition and analysis

205 of imaging strain on the nanometer scale in three dimensions is highly novel.

206 Moreover, tracking and imaging in three dimensions is made possible by various techniques,

207 that E. coli bacterial chromosome folding in three dimensions is not dictated entirely by genetic pos

208 f medical devices, the study of the heart in three dimensions is particularly useful to understand it

209 delocalisation of mobile electrons in two or three dimensions is probably one of the key aspects that

210 g their available structural features in all three dimensions is still a challenging task.

211 hic microstructure, non-destructively and in three-dimensions, is a powerful tool for understanding m

212 s already been theoretically extrapolated to three dimensions, it usually still remains restricted to

213 dependently of system preparation in two and three dimensions, leading to kappa approximately 1.41, a

214 synaptic architecture at high resolution in three dimensions of an intact vertebrate in a close-to-n

215 We assessed three dimensions of auditory spatial function: externali

216 The three dimensions of climate change vulnerability are as

217 s (do, re, mi, etc.) are associated with the three dimensions of color (hue, saturation, and value/br

218 n) which, after rotation, were identified as three dimensions of empowerment: attitude to violence, s

219 rrently protected areas poorly represent the three dimensions of mammalian biodiversity.

220 ubstantively important causal effects on all three dimensions of persuasion but no such effects on is

221 citation provides high spatial resolution in three dimensions of the corresponding chemical or physic

222 arly modest differences were observed in all three dimensions of the work engagement construct.

223 scopy (STORM), which provides information in three dimensions on large cellular volumes at 70 nm reso

224 e, we develop mathematical models in two and three dimensions on longer timescales that recapitulate

225 We characterize their geometric structure in three dimensions on the basis of experimental conductanc

226 ationships (SARs) can be further explored in three dimensions on the basis of the corresponding 3D-cl

227 reward learning task where options varied on three dimensions, only one of which predicted reward.

228 e exists no method to describe structures in three dimensions or molecules with irregular shape.

229 nce, and visualization of microbial cells in three dimensions over time, and are compatible with stab

230 align to the incident light direction in the three-dimensions over a broad temperature range.

231 gation of a nontrivial surface wave across a three-dimension physical step.

232 ture rigid helical strands interlaced in all three dimensions, rather than the two-dimensional(17,18)

233 oteins and epigenetic marks are organized in three dimensions remains unknown.

234 of nanoparticles on the cellular contour in three dimensions revealed long-range deceleration of the

235 taxon nesting site from Romania preserved in three dimensions reveals the earliest example of nest si

236 average over many concepts and domains these three dimensions (reward, risk, and uncertainty) should

237 The Brownian motion of two particles in three dimensions serves as a model for predicting the di

238 f the entire carotid bifurcation area across three dimensions simultaneously captured in a single vol

239 ding the one-dimension optimization to a new three-dimension space optimization driven by the multi-o

240 can persuade their constituents directly on three dimensions: substantive attitudes regarding policy

241 to build large-scale microfluidic systems in three dimensions that are modular, diverse, and predicta

242 self, ie tolerance operates more or less in three dimensions that largely spare autologous cells and

243 We track simultaneously and in three dimensions the motion of flow tracers and plankton

244 DI; refs 11, 12) can be used to visualize in three dimensions, the entire network of dislocations pre

245 has been made towards free-space cloaking in three dimensions, the material properties required are i

246 also predict optimal organization in one and three dimensions, the number of modules, and, with added

247 In three dimensions, the opening in the BM was found to inc

248 or target nucleosomes by primarily moving in three dimensions through the nucleoplasm or in one dimen

249 ng, these structures can also be resolved in three dimensions to a depth of 800 nm.

250 d sequence that are verified structurally in three dimensions to be high fidelity by single-particle

251 adiologists independently measured tumors in three dimensions to calculate TDT and specific growth ra

252 The success of linking atoms in two and three dimensions to construct extended framework structu

253 iPSCs can be cultured in three dimensions to generate cerebral organoids, closely

254 up a tissue (cells and matrix materials) in three dimensions to generate structures similar to tissu

255 ration by reducing the orientation task from three dimensions to one.

256 hile optical traps can manipulate objects in three dimensions, to date, nanoscale materials have been

257 ining these techniques and extending them to three dimensions, to produce scanning precession electro

258 n cells at 5-10-nm localization precision in three dimensions using 'salvaged fluorescence'.

259 n this study, we explored dynein motility in three dimensions using an MT bridge assay.

260 We studied normal fission in tissue in three dimensions using high-resolution imaging and used

261 Purkinje fiber network, which was imaged in three dimensions using optical projection tomography.

262 ith a solar reconnection event is studied in three dimensions using the combined perspectives of two

263 Here we show detailed upwelling pathways in three dimensions, using hydrographic observations and pa

264 hemical transformations were investigated in three dimensions, using state-of-the-art X-ray energy-di

265 n numerical solutions of Stokes equations in three dimensions, validated with experiments reported in

266 erstanding of how these interactions look in three dimensions, vary across cell types in complex tiss

267 esin and carbon fiber fluid to be aligned in three dimensions via controlled micro-extrusion and subs

268 by spectral confirmation via DF-HSI, and in three dimensions via nano-CT.

269 assigned to three learning tools: text-only, three-dimension visualisation in a two-dimensional scree

270 Here, to achieve super-resolution in all three dimensions, we applied Array Tomography (AT) and S

271 matic analyses of the human islet in two and three dimensions, we demonstrate islet heterogeneity in

272 eviously predicted nitrate concentrations in three dimensions were themselves predictive of arsenic a

273 ire serial measurements of primary tumors in three dimensions, whereas the Response Evaluation Criter

274 l realization of the Hubbard model in two or three dimensions, which can act as an analogue quantum s

275 ructural specificities of RBP targets in all three dimensions, which can be further used to predict n

276 We develop a model of self-organizing MTs in three dimensions, which predicts the importance of MT se

277 that guide crack propagation and twisting in three dimensions, which we have followed using an origin

278 a particle to have linear dispersion in all three dimensions while being doubly degenerate at a sing

279 atures of multiple cell type interactions in three-dimensions while allowing tight control of the mic

280 the aforementioned features are evaluated in three dimensions, while the degradation of the zeolite f

281 ular resolution and millisecond precision in three dimensions will accelerate the pace of neuroscienc

282 espond to filled 1S and 1P shells in two and three dimensions with a valence of 2 for V, whereas the

283 yzing bacterial swarming behavior in two and three dimensions with both high-resolution and wide-spat

284 , it is a challenge to localize molecules in three dimensions with high precision in such samples whi

285 lution and fidelity architectures in two and three dimensions with line widths down to 1 mum are form

286 c tomography--to probe optical properties in three dimensions with nanometre-scale spatial and spectr

287 opy (TEM) can now visualize strain fields in three dimensions with near-atomic resolution.

288 gardens are mineral aggregates that grow in three dimensions with plant-like forms and share propert

289 lex phenotypes are automatically captured in three dimensions with unprecedented speed and detail in

290 ve been studied with nanometer resolution in three dimensions with volumes exceeding tens of micromet

291 scribe a method to code complex materials in three-dimensions with tunable structural, morphological

292 ime evolution of the F-actin distribution in three dimensions, with branching included as a direction

293 Our model extends easily to three dimensions, with either one converging and two ext

294 provides subnanometre spatial resolution in three dimensions, with single electron-spin sensitivity.

295 These probes can be manipulated in three dimensions within a standard microscope to target

296 ar S. aureus and to localize them exactly in three dimensions within endothelial cells.

297 ne response is the TB granuloma organized in three dimensions within extracellular matrix.

298 ples with high spatio-temporal resolution in three dimensions would provide a step change in cell and

299 (VR), designed to render a Manhattan plot in three dimensions, wrapping the graph around the user in

300 (AFM) has allowed the study of live cells in three dimensions (X, Y, and Z) over a prolonged time (t)