ライフサイエンスコーパス: micrometer

1 nd near-infrared spectral range (0.25 to 5.0 micrometers).

2 riocapillaris-equivalent thickness (CCET, in micrometers).

3 olute with size ranging from angstrom to sub-micrometer.

4 lf-assembles into one-dimensional fibrils in micrometer.

5 ve beams propagate over distances of several micrometers.

6 valley-polarized exciton cloud over several micrometers.

7 1 nm and with sizes of the order of several micrometers.

8 he cocoa particles into prolate spheroids in micrometers.

9 e) and large grains reaching several hundred micrometers.

10 thicknesses ranging from tens to hundreds of micrometers.

11 canning within a volume spanning hundreds of micrometers.

12 ffusion is efficient over distance scales of micrometers.

13 harge carrier diffusion lengths exceeding 10 micrometers.

14 eters (tens of attoliter in volume) to a few micrometers.

15 rs in size with feature resolution below 100 micrometers.

16 ed sounding rocket experiment at 1.1 and 1.6 micrometers.

17 range from hundreds of nanometers to tens of micrometers.

18 layers can be monitored on a length scale of micrometers.

19 e diffusion over tens of minutes and tens of micrometers.

20 tispatial scales, ranging from nanometers to micrometers.

21 iameters ranging from micrometers to tens of micrometers.

22 s that span length scales from nanometers to micrometers.

23 sed by CaVbeta2 that distribute over several micrometers along actin filaments in HL-1 cardiomyocytes

24 he nano-amended soils was higher than in the micrometer-amended soils for at least the first 11 days,

25 ction with a newly developed optical contact micrometer and 3D optical microscopy of indentations to

26 of novel imaging techniques operating at the micrometer and even nanometer scale, the microstructure

27 electron lasers enabled data collection with micrometer and even submicrometer size crystals, which h

28 isease (AD) forms polymorphic fibrils on the micrometer and molecular scales.

29 e Li exhibits a power-law size effect at the micrometer and submicrometer length scales, with the str

30 bserved light emission at distances of >/=50 micrometers and found that the peak of the internal phot

31 a from protein microcrystals with sizes of 4 micrometers and smaller.

32 te nanosheets with lateral sizes up to a few micrometers and with thickness of just a few unit cells

33 raction (D), central corneal thickness (CCT, micrometers) and endothelial cell density (ECD).

34 cubic millimeters), choroidal thickness (in micrometers), and choriocapillaris-equivalent thickness

35 films have a large grain size of more than 1 micrometer, and carrier life-times of 10 ns and 120 ns f

36 length fibers, with lengths reaching tens of micrometers, and uniform, sub-100 nm widths.

37 gle crystals with tuned thickness of tens of micrometers are directly grown on hole-transport-layer c

38 ibers with a diameter of tens to hundreds of micrometers are typically derived from polymers, gel spu

39 ze, and particles ranging from nanometers to micrometers are used in different applications.

40 that the dust grain size ranges from 1 to 12 micrometers, assuming a typical grain velocity of ~18 ki

41 ed current density-above 0.9 milliampere per micrometer at a low supply voltage of 0.5 volts with a s

42 n thickness from a few nanometers to several micrometers at rates over 2 nm min(-1).

43 at charge extraction for photoexcitation >50 micrometers away from the contacts arose from repeated r

44 irac points at distances as large as several micrometers away from the nominal current path.

45 basal processes to form endfeet hundreds of micrometers away from the soma.

46 proximately 4 nm and lateral size of several micrometers, based on the intrinsic delithiation process

47 from the comparatively established fields of micrometer colloids and block copolymer assembly.

48 ulation of islets with a thin (a few tens of micrometers) continuous layer of hydrogel.

49 h measures grains with radii larger than 1.4 micrometers, detected one candidate impact in +/-5 days

50 cs of different sizes, from nanometer to sub-micrometer diameter, can be produced by varying the lipi

51 elium charged with alumina aerosols of a few micrometers diameter.

52 e that this approach could be scaled down to micrometer dimensions by fabricating an array of microme

53 allization of alloyed droplets of controlled micrometer dimensions comprising silicon and germanium,

54 ent in a two-dimensional array of slits with micrometer dimensions in a metallic film can be increase

55 e length of the nanofibers can be tuned from micrometers down to 100 nm by simple heat treatment, and

56 line LiOH with particle sizes larger than 15 micrometers during discharge and charge.

57 anticipate that these shaped apertures with micrometer edge thickness can substantially enhance the

58 Here we describe the fabrication of a sub-micrometer electrodic cavity, which enables low-voltage

59 eness of 92 decibels (>50 decibels for a 2.5-micrometer film), which is the highest among synthetic m

60 n oxygen emission line at a wavelength of 88 micrometers from a galaxy at an epoch about 700 million

61 ke shape and propagate up to several hundred micrometers from the cell body, extending the leading ed

62 crystalline, nanostructured MAPbI3 film with micrometer grain size and high surface coverage that ena

63 ng strong uniaxial-crystallographic texture, micrometer-grain morphology, high crystallinity, low tra

64 bar; these regions probably coincide with 5-micrometer hot spots.

65 his wave has been theorized to produce the 5-micrometer hot spots; we observed the predicted radio co

66 n-chip spherical glass shells of hundreds of micrometers in diameter with ultra-smooth surfaces and s

67 organized into subregions of several hundred micrometers in diameter, indicating that the surround is

68 ace crystals of OS samples are up to several micrometers in size and exclusively made of epsilon-Fe2O

69 ne-based ultra-compact spectrometer (several micrometers in size) that is compatible with complementa

70 scales ranging from a couple of molecules to micrometers in size.

71 -standing crystals, with up to a few hundred micrometers in size.

72 and neural networks often extend hundreds of micrometers in three dimensions.

73 observed over distances of up to hundreds of micrometers, in the absence of any additional external f

74 CAOS nanoconjugates to penetrate hundreds of micrometers into spheroids within hours and to show thei

75 carbon emission line at a wavelength of 158 micrometers is also not detected, implying an unusually

76 This drift over several micrometers is reversible and can be controlled.

77 ctron injection length down to a few hundred micrometers, leading to accelerated beams with extremely

78 islocations, and how local variations at the micrometer length scale affect this nucleation process.

79 ral key attributes, namely porosity on a sub-micrometer length scale, interconnectivity of these pore

80 , laser ablation, are well understood on the micrometer length scale, it was previously impossible to

81 agents to interact with the substrate at the micrometer-length scale.

82 ed with a crude TAP+ribose reaction mixture, micrometer-length supramolecular, noncovalent assemblies

83 stance and spatial arrangement of cells with micrometer level resolution.

84 t PttCesA8 produces cellulose fibers several micrometers long that occasionally are capped by globula

85 ia and CENP-F-coated artificial cargoes over micrometer-long distances during both growing and shrink

86 hair cell membrane and coextensive with the micrometers-long synaptic terminals.

87 ows for noninvasive in vivo brain imaging at micrometer-millisecond spatiotemporal resolution.

88 We combine sarcomere mechanics and micrometer-nanometer-scale X-ray diffraction from synchr

89 Sub-micrometer/nanoscale patterned polymer brushes are prepa

90 eak force production to zero with just a few micrometers of sarcomere length change.

91 olor superresolution imaging of ~10(7) cubic micrometers of the mouse hippocampus with a conventional

92 ime at high resolution along several hundred micrometers of the zebrafish spinal cord.

93 tion of an organic absorption feature at 3.4 micrometers on dwarf planet Ceres.

94 served in atmospheric aerosol particles with micrometer or submicrometer spatial resolution, on the b

95 , and air pollution [Particulate Matter, 2.5 micrometers or less (PM2.5) and nitrogen dioxide (NO2)]

96 e matter with an aerodynamic diameter of 2.5 micrometers or less (PM2.5) are the most hazardous becau

97 but not in long distance ( approximately 300 micrometers or more) interactions.

98 eter-sized CuO (nano), micrometer-sized CuO (micrometer), or Cu(NO3)2 (salt).

99 ation of downstream signaling molecules into micrometer- or submicrometer-sized clusters.

100 In both cases, the delay is several micrometers over a propagation distance of ~1 meter.

101 However, micrometer particle diameters compromise biomarker recog

102 Larger sub-micrometer particles are directly sized optically by sup

103 We observe highly dilatant and slow [~4 micrometers per second (mum/s)] aseismic slip associated

104 olding process to fabricate a variety of sub-micrometer periodic patterns using a single mold.

105 rated by SnO2-coated Cu walls and much finer micrometer pores, adding to surface area and providing s

106 is technique combines HaloTag anchoring, sub-micrometer positioning of magnets, and an active correct

107 ern quality, conservative usage of reagents, micrometer precision of localization and convection-enha

108 res with known diameters to validate the sub-micrometer precision of the particle size analysis based

109 e broad absorption feature in the 2.9-to-3.6-micrometer range present across the entire illuminated s

110 ions" and "bridges" for displacements in the micrometer range via dynamic Monte Carlo (DMC) simulatio

111 stallographic directions with lengths in the micrometer range.

112 [Formula: see text] in the submicrometer and micrometer range.

113 e of particle sizes, from nanometer range to micrometer range.

114 o solid foil targets with thicknesses in the micrometer range.

115 atory CT systems is typically limited to the micrometer range.

116 y opaque embryos with subminute temporal and micrometer-range spatial resolution.

117 ls mostly focused on length scales above the micrometer, recent research addressed the molecular stru

118 sible to access length scales in the nano to micrometer region as well as energies in the mueV range.

119 in stratum radiatum ( approximately 1.1 per micrometer) remained stable over weeks.

120 es and lipids in biological samples with few-micrometer resolution and acceptable signals.

121 ogical analysis, where ultratrace imaging at micrometer resolution is required.

122 and biologically active materials with sub-1 micrometer resolution over feature diameter, feature-to-

123 obtained a radial dose distribution with sub-micrometer resolution that decreased with increasing dis

124 ckout (Fabry) mice was possible at about ten micrometer resolution.

125 molecules in three dimensions and with sub-1 micrometer resolution.

126 tissue staining or clearing, mPAM generates micrometer-resolution 3D images of paraffin- or agarose-

127 und to be heterogeneously distributed at the micrometer scale and enriched as both U(IV) and U(VI) on

128 [We denote particles on the nano- and micrometer scale as particulate matter (PM).] However, t

129 pproaching the IR diffraction limit, such as micrometer scale electrodes, require a hitherto unrealiz

130 D-period as well as previously undocumented micrometer scale fluctuations.

131 Visualizing fast micrometer scale internal movements of small animals is

132 hat is capable of manipulating an individual micrometer scale non-spherical cell at Rayleigh regime a

133 structive and noninvasive information at the micrometer scale while using full-field imaging.

134 We also report this instability at the micrometer scale with specially designed rods made of na

135 We report experimental data obtained for a micrometer scale Y3Fe2(FeO4)3 cross structure.

136 alization were identified by probing (on the micrometer scale) the transition zone between mineralize

137 epeatable stress-strain response even at the micrometer scale, and cryogenic linear shape memory effe

138 nd fluidity of vesicle lipid bilayers on the micrometer scale, and distinguish between the presence a

139 ing for probing the material ordering on the micrometer scale, and energy-dispersive X-ray scattering

140 At the micrometer scale, the anisotropic rhombic dodecahedron c

141 sufficient to resolve retinal features at a micrometer scale, the lateral resolution is dependent on

142 the collagen architecture in tissues at the micrometer scale.

143 ic potential Phi in the 100 muV range on the micrometer scale.

144 a variation in the optical properties at the micrometer scale.

145 rchical nanostructure ranging from atomic to micrometer scale.

146 tion were characterized from atomic scale to micrometer scale.

147 tunable surface packing morphologies on the micrometer scale.

148 t physiological interfaces are curved at the micrometer scale.

149 Projection maps of micrometer-scale arrays, assembled both in vitro and in

150 cle crystals, particularly those composed of micrometer-scale colloids, are able to dynamically evolv

151 Muscle force is dictated by micrometer-scale contractile machines called sarcomeres.

152 he hoop direction to the radial direction on micrometer-scale distances.

153 oplets onto the microcantilever surface; the micrometer-scale drops evaporate rapidly and leave the s

154 d detection of femtowatt light signals using micrometer-scale electronic devices.

155 are assembled from nanoscale components into micrometer-scale entities with a specific size and shape

156 derived-ceramic structures is presented with micrometer-scale features by a 3D additive manufacturing

157 t of follicles and feathers on the body, and micrometer-scale features of the plumage.

158 spindle checkpoint signaling expand to form micrometer-scale fibrous structures over CENP-A-free chr

159 Here we introduce a micrometer-scale flip-chip process that enables scalable

160 report efficient four-wave mixing (FWM) over micrometer-scale interaction lengths at telecommunicatio

161 y cryo-electron microscopy and tomography as micrometer-scale interruptions in the membrane.

162 e intensities and lifetimes for a variety of micrometer-scale luminescent targets, specifically singl

163 We further induced micrometer-scale magnetic structures on the heterostruct

164 ve manipulated the thermal fluctuations of a micrometer-scale mechanical resonator to produce a stati

165 e effect on phase separation may explain why micrometer-scale membrane domains are observed in isolat

166 proach is essential for investigating single micrometer-scale objects such as graphene flakes or livi

167 , our approach can provide insights into how micrometer-scale ordered assemblies emerge from nanoscal

168 urface acoustic waves to trap and manipulate micrometer-scale particles and biological cells has led

169 annel paper analytical device to accommodate micrometer-scale particles, and a convenient slip layer

170 ometer dimensions by fabricating an array of micrometer-scale particles.

171 electrodes (QRCEs), in the end of a tapered micrometer-scale pipet is described.

172 3D printed micrometer-scale polymer mounts for single crystal analy

173 spatially-varying structures with very high micrometer-scale precision.

174 the bulk (centimeter range) of samples with micrometer-scale resolution.

175 50 degrees C, and can be photopatterned with micrometer-scale resolution.

176 dividual F-actin polymers that gives rise to micrometer-scale rheological properties is poorly unders

177 The correlation between micrometer-scale ripple alignment and atomic-scale arran

178 proteins to organize membrane receptors into micrometer-scale signaling zones.

179 crystallization allows for the formation of micrometer-scale single-crystal body-centered cubic gold

180 imits for each preparation pertaining to the micrometer-scale spatial distribution of specific analyt

181 x situ transmission X-ray microscopy reveals micrometer-scale state-of-charge heterogeneity in solid-

182 Here we visualized nanometer- and micrometer-scale TCR distributions in lymph nodes by lig

183 stone in the field, yielding a generation of micrometer-scale transporters with numerous applications

184 t, forward redistribution of solar flux in a micrometer-scaled paradigm.

185 sive surfaces with roughness on nanometer to micrometer scales are used to determine how roughness re

186 reveal a colonic community that is mixed at micrometer scales, with distinct spatial distributions o

187 ered arrays of double-twisted cylinders over micrometer scales.

188 ME/WE plane toward the IRE was enabled by a micrometer screw.

189 Microneedles are the micrometer size devices used for the delivery of vaccine

190 In the other, the domains reached micrometer size quickly, and their number gradually incr

191 ns appeared first and then gradually grew to micrometer size.

192 ures, combining nanoscopic constituents into micrometer-size assemblies, have a great potential for u

193 on, which spans the scale from nanometers to micrometer-size clusters, has not been resolved in detai

194 finement, we observe phase separation into a micrometer-size isotropic droplet core and a cholesteric

195 Here, we show that supplementation of micrometer-size magnetite (Fe3O4) particles to a methano

196 ings in previous studies using nanometer- or micrometer-size particles cannot be applied to the bulk

197 could be controlled, and well-defined multi-micrometer-size structures such as "shish-kebab"-shaped

198 using rotating electrodes or solely tens of micrometer sized electrodes, thus enables us to study mu

199 ults in a change of the operation state of a micrometer sized electronic device or material.

200 Using spot sampling imaging, sub-micrometer sized features (0.62, 0.86, and 0.98 mum) vis

201 ees C) indicated rapid formation of nano- to micrometer sized HA crystals on granular limestone with

202 vide a novel method of synthesizing nano- to micrometer sized HA on the surfaces of granular limeston

203 e transition of each enzymatic reaction to a micrometer sized labeled product enabled quantitative de

204 The multiple bindings between micrometer sized particles, either latex beads or red bl

205 approach with submicrometer to approximately micrometer sized UMEs exceeds the mass transfer rates ac

206 o the analysis by laser ablation-MC-ICPMS of micrometer sized uranium particles (1-3.5 mum).

207 Giant micrometer sized vesicles are of obvious interest to the

208 ally resolved thermally assisted sampling of micrometer-sized areas (ca. 11 x 17 mum wide x 2.4 mum d

209 Finally, we demonstrated that micrometer-sized beads attached to the cell membrane int

210 We optically trap micrometer-sized beads internalized in cells plated on c

211 ies, to isolate a known number of cells in a micrometer-sized chamber with a roof and walls that are

212 of millions of times the thermal energy for micrometer-sized colloids.

213 ) was used to prepare a mixture of nano- and micrometer-sized crystals of the monoclinic form of para

214 The nano- and micrometer-sized crystals yielded a powder which exhibit

215 500 mg/kg Cu as nanometer-sized CuO (nano), micrometer-sized CuO (micrometer), or Cu(NO3)2 (salt).

216 e sheets of cultured oligodendrocytes and in micrometer-sized domains that were induced by MBP in liv

217 clustered in just two complementary types of micrometer-sized domains.

218 The voltammetric response for nano- to micrometer-sized electrode arrays are represented by two

219 The essential element of these devices are micrometer-sized electron bunches with high peak current

220 osphate-rich bioactive glass incorporated as micrometer-sized filler in dental composites may offer g

221 mble at the gas-water interface, stabilizing micrometer-sized gas bubbles in water, and disassemble b

222 ing continuous, smooth perovskite films with micrometer-sized grains.

223 forces that can dominate viscous drag on the micrometer-sized hair bundle.

224 to precisely measure the viscoelasticity of micrometer-sized LAF-1 droplets, revealing purely viscou

225 exagonal Moire patterns with unusually large micrometer-sized lateral areas (up to ~1 mum(2)) and per

226 u scanning electron microscope and show that micrometer-sized Li attains extremely high strengths of

227 model membranes revealed SM and Chol driven micrometer-sized liquid-ordered domains.

228 form nanobrush structures, which can capture micrometer-sized objects, such as bacteria and particula

229 These measurements show that, by combining micrometer-sized particle levitation (a contactless meas

230 The iNPG is a discoidal micrometer-sized particle that can be loaded with chemot

231 We predict that micrometer-sized particles and nanoparticles have the sa

232 The surface modification of nanometer- and micrometer-sized particles and planar substrates with po

233 A process for production of micrometer-sized particles composed of uranium oxide usi

234 er-free or 2 ion-releasing resins containing micrometer-sized particles of Bioglass 45S5 (BAG) or flu

235 microscopy (STXM) to investigate the LLPS of micrometer-sized particles undergoing a full hydration-d

236 spersion and sedimentation to settle out the micrometer-sized particles.

237 ontaining a caspase recruitment domain (ASC) micrometer-sized perinuclear structures (specks).

238 From micrometer-sized pollen grains that can easily stick to

239 hedral structures have been employed to form micrometer-sized polyhedral supercrystals by both the dr

240 Hierarchical pillar arrays consisting of micrometer-sized polymer setae covered by carbon nanotub

241 t recombinant SPD-5 could polymerize to form micrometer-sized porous networks in vitro.

242 hod for preparing polished cross-sections of micrometer-sized primary soil particles that overcomes t

243 d structures consisting of a square array of micrometer-sized Py ferromagnetic disks covered by a sup

244 usually fractionated into microaggregates or micrometer-sized single particles.

245 Unlike macroscopic and micrometer-sized solid electrodes whose surface can be r

246 Furthermore, the micrometer-sized spherical structure of the material yie

247 Clustering of proteins into micrometer-sized structures at membranes is observed in

248 These protein islands were enriched within micrometer-sized surface areas that we call territories.

249 th a spatial resolution of 15 mum, employing micrometer-sized synchrotron-based IR and X-ray beams.

250 solid-phase samples incorporating individual micrometer-sized targets generally rely on digital micro

251 lf-assembly of polymeric amphiphiles to form micrometer-sized vesicles entrapping an active oscillati

252 Electrochemical analysis of thick films of micrometer-sized, insulating niobia particles indicates

253 th nanometer accuracy in the macropores of a micrometer-sized, real-life fluid catalytic cracking (FC

254 it is possible to enzymatically synthesize a micrometer-sized, single-stranded DNA molecule with only

255 ure conditions and resulted in c-BN NDs with micrometer sizes, mixture of different BN phases, and co

256 able deposition of functional materials with micrometer spatial resolution and nanolitre volumetric r

257 time dynamics in small living organisms with micrometer spatial resolution and subsecond time resolut

258 resolved photoemission spectroscopy with sub-micrometer spatial resolution, the band structures and t

259 zation and measurement of cap thickness with micrometer spatial resolution.

260 d chemical information of absorbers with sub-micrometer spatial resolution.

261 -of-flight secondary ion microscope with few-micrometer spatial resolution.

262 roscopy (STXM) computed tomography (CT) with micrometer spatial resolution.

263 nd relatively small cells ( approximately 10 micrometers), such as neutrophils.

264 wth of the liquid domains, over distances of micrometers, takes hundreds of nanoseconds, a time order

265 us (normal albedo of 0.060 +/- 0.003 at 0.55 micrometers), the spectral slopes in visible and infrare

266 Only ten micrometer thick crystalline silicon solar cells deliver

267 logy because it provides centimeter long and micrometer thick probes with the tip radius of tens of n

268 analytical problems involving thin, tens of micrometers thick diffusely scattering turbid layers.

269 e-scale graphene and magnetic particles on a micrometer-thick conductive support is a formidable chal

270 low clay content (</=3 wt.%) localized along micrometer-thick layers can facilitate seismic slip prop

271 We document the occurrence of micrometer-thick phyllosilicate-bearing layers along a c

272 tion of self-supported, mechanically stable, micrometer-thick porous carbon films with a Young's modu

273 situated in the subtectorial space (STS)--a micrometer-thick space between two flat surfaces vibrati

274 A 45-micrometer-thick Ti3C2Tx film exhibited EMI shielding ef

275 we reported the antibacterial properties of micrometer-thick titanium carbide (Ti3C2Tx) MXene membra

276 However, previously, only micrometer-thick, nontransparent films were studied.

277 BDT-COF films of several micrometer thickness exhibit mesoporosity as well as tex

278 samples with a spatial resolution of hundred micrometers: time-of-flight three-dimensional neutron di

279 physio-chemical spectrogram (PCS) combining micrometer to centimeter morphology and chemical composi

280 h ferromagnetic structures of varying sizes (micrometer to millimeter) and thicknesses (>70 mum) is d

281 ntrolled patterned rigidity ranging from the micrometer to the nanoscale is described.

282 f coherence tomography is thus improved from micrometers to a few nanometers.

283 compositional aspects at length scales from micrometers to centimeters.

284 xtends across contact diameters ranging from micrometers to tens of micrometers.

285 llest unicellular eukaryotes (protists, >0.8 micrometers) to small animals of a few millimeters.

286 upine position central macular thickness (in micrometers), total macular volume (in cubic millimeters

287 amatically, with efficiency around 15% for 3 micrometers ultra-thin Silicon cell.

288 n by a solution-growth method can exceed 175 micrometers under 1 sun (100 mW cm(-2)) illumination and

289 scales - from tens of nanometers to tens of micrometers - using photoactivatable fluorescent nanopar

290 utilized, taken at two scales (nanometer and micrometer), using mitral valve anterior leaflet (MVAL)

291 taneous spatial and temporal modal analysis, micrometer vibrations of a metamaterial demonstrating wa

292 diameter with ultra-smooth surfaces and sub-micrometer wall thicknesses have been fabricated and hav

293 in the film from tens of nanometers to a few micrometers, we are able to tune the optical band gap of

294 e and Spitzer Space Telescopes from 0.5 to 5 micrometers, we conducted a detailed atmospheric study o

295 ectric layer, despite a thickness of several micrometers, we obtained a transconductance per channel

296 t of crystalline domains with sizes of a few micrometers, which exhibit a congenitally handed porous

297 ents from molecular dimensions up to tens of micrometers with carefully selected probe molecules.

298 led to unbounded transport extending tens of micrometers within tens of minutes.

299 An in situ micrometer X-ray absorption spectroscopy scan along the

300 Sub-micrometer XFI showed distributions of Se and endogenous