ライフサイエンスコーパス: electron microscope

1 th immobilized DNA was done using a scanning electron microscope.

2 g membrane of 2D materials inside a scanning electron microscope.

3 eometry in an unmodified 200 kV transmission electron microscope.

4 simultaneously combined with imaging in the electron microscope.

5 canning electron microscopy and transmission electron microscope.

6 thodology is easily affordable in any modern electron microscope.

7 loss spectroscopy in a scanning transmission electron microscope.

8 nanostructures in a (scanning) transmission electron microscope.

9 diffraction in an environmental transmission electron microscope.

10 etic field were analysed by the transmission electron microscope.

11 low cytometry, and confocal and transmission electron microscope.

12 etallic glass nanorods inside a transmission electron microscope.

13 ark field imaging in a scanning transmission electron microscope.

14 her pressure or temperature is raised in the electron microscope.

15 spersive spectrometer attached to a scanning electron microscope.

16 awley rats were acquired with a transmission electron microscope.

17 0 kV in an aberration-corrected transmission electron microscope.

18 ries takes approximately 12 h on a JEM2200FS electron microscope.

19 using a nanomechanical device in a scanning electron microscope.

20 ifruits slices was examined using a Scanning Electron Microscope.

21 incident electron beam using a transmission electron microscope.

22 tional spectroscopy to be carried out in the electron microscope.

23 pectroscopy in an environmental transmission electron microscope.

24 izing DNA and DNA-protein complexes using an electron microscope.

25 roelectrode arrays was inspected by scanning electron microscope.

26 avelength-scale resolution in a transmission electron microscope.

27 n using an aberration-corrected transmission electron microscope.

28 R-FTIR spectrometer, goniometer and scanning electron microscope.

29 icroscope to the nanometer resolution of the electron microscope.

30 e two most powerful imaging instruments: the electron microscope.

31 e aberration corrected scanning transmission electron microscope.

32 ectroscopic analysis within the transmission electron microscope.

33 n of isotopically labeled molecules with the electron microscope.

34 myelin in Shiverer mice brain seen under the electron microscope.

35 ividual nanostructures inside a transmission electron microscope.

36 tals under compression within a transmission electron microscope.

37 nterferometer in a conventional transmission electron microscope.

38 at cryogenic temperature in the transmission electron microscope.

39 tional and aberration corrected transmission electron microscopes.

40 roprobes as well as scanning or transmission electron microscopes.

41 generation aberration-corrected transmission electron microscopes allow the vast majority of single a

42 alysts in an aberration-corrected analytical electron microscope allows, for the first time, direct i

43 -exclusion chromatography, and transmittance electron microscope analyses revealed that hydrogen bond

44 Electron microscope analyses suggest that the particles

45 ne and atropine in the quids, while scanning electron microscope analysis confirms most to be Datura

46 Electron microscope analysis of hippocampal tissues in t

47 In scanning electron microscope analysis, diminution in silicone was

48 th the results from immunohistochemistry and electron microscope analysis, the distribution of type I

49 tu nanoindentation studies in a transmission electron microscope and corresponding molecular dynamics

50 With a scanning transmission electron microscope and electron energy loss spectroscop

51 ear sulfur anions as confirmed from scanning electron microscope and energy dispersive X-ray spectros

52 Transmission electron microscope and extended X-ray absorption fine s

53 echanical experiments in an in situ scanning electron microscope and show that micrometer-sized Li at

54 In situ scanning electron microscope and transmission electron microscope

55 tu electrochemical cell for the transmission electron microscope and use it to track lithium transpor

56 osites were characterized using transmission electron microscope and X-ray diffraction, and their ele

57 is a technique often implemented on scanning electron microscopes and a regularly used method for qua

58 Combining transmission electron microscopes and density functional theory calcu

59 By combining advanced electron microscopes and detectors with powerful data an

60 The advent of a new generation of electron microscopes and direct electron detectors has r

61 e development of ion optical devices such as electron microscopes and mass spectrometers.

62 terized by Atomic force microscopy, Scanning electron microscope, and Raman spectroscopy.

63 e microscopy, and cathodoluminescence in the electron microscope are given detailed attention.

64 State-of-the-art light and electron microscopes are capable of acquiring large imag

65 in situ Kr ion irradiation in a transmission electron microscope at room temperature, that nanoporous

66 training of molybdenum inside a transmission electron microscope at room temperature.

67 Here, we use simulations to show that an electron microscope based on a multi-pass measurement pr

68 rfused small vessels were (mean +/- scanning electron microscope) BD rats (40% +/- 6%), sham-operated

69 plasmonic behaviour in nanostructures in an electron microscope, but hitherto it has not been possib

70 al cathodoluminescence emitted in a scanning electron microscope by nanoparticles with controllable s

71 While electron microscopes can now provide atomic resolution,

72 patial resolution of a scanning transmission electron microscope combined with electron energy-loss s

73 electrochemical device inside a transmission electron microscope--consisting of a single tin dioxide

74 of the ice thickness from one area of a cryo-electron microscope (cryo-EM) specimen grid to another,

75 e nanobiosensor e.g. field emission scanning electron microscope, cyclic voltammetry and electrochemi

76 Electron microscope demonstration of PLAP activity showe

77 u observed experimentally using transmission electron microscope during studies of their electrochemi

78 arge carrier mobility measurements, scanning electron microscope, electron diffraction study, and Ram

79 ark field imaging in a scanning transmission electron microscope, elemental analysis, centrifugal par

80 It is only electron microscope (EM) examination that reveals the tr

81 ulate pressure-mediated bulk flow through 3D electron microscope (EM) reconstructions of interstitial

82 mbination of Raman spectroscopy and scanning electron microscope-energy dispersive X-rays that opens

83 A scanning electron microscope equipped with a focused gallium ion

84 We used a transmission electron microscope equipped with an in situ heating sta

85 An electron microscope equipped with Zernike phase-contrast

86 Using an environmental scanning electron microscope (ESEM), we observed rupturing of Ama

87 led observation in an environmental scanning electron microscope (ESEM).

88 he novel environmental scanning transmission electron microscope (ESTEM) with 0.1 nm resolution in sy

89 iscussed in light of the results of scanning electron microscope examination of the soil samples.

90 ction is confirmed by real-time transmission electron microscope experimental observations during uni

91 y diffraction (XRD), field emission scanning electron microscope (FE-SEM) and field emission transmis

92 are observed by both field-emission scanning electron microscope (FE-SEM) and high-resolution transmi

93 ic voltammetry (CV), field emission scanning electron microscope (FE-SEM) imaging and energy dispersi

94 ical techniques like field emission scanning electron microscope (FE-SEM) with an energy dispersive X

95 y diffraction (XRD), field emission scanning electron microscope (FE-SEM), and transmission electron

96 characterized using field emission scanning electron microscope (FE-SEM, SEM-Mapping), scanning tran

97 ope (FE-SEM) and field emission transmission electron microscope (FE-TEM) respectively.

98 Field Emission Scanning Electron Microscope (FESEM) analysis reveal surface prot

99 Field Emission Scanning Electron Microscope (FESEM) figures and fluorescence int

100 characterized using field emission scanning electron microscope (FESEM), energy dispersive X-ray spe

101 -FA were approved by field emission scanning electron microscope (FESEM), transmission electron micro

102 ere characterized by Field Emission Scanning Electron Microscope (FESEM), X-ray diffraction (XRD) and

103 ere characterized by field emission scanning electron microscope (FESEM).

104 Using an electron microscope from the Sputnik era, they assembled

105 Thin section observation, scanning electron microscope, grain size analysis, mineral compos

106 crystal silicon cantilever on a transmission electron microscope grid by gallium focused-ion-beam mil

107 oves the excess solution from a transmission electron microscope grid by pressing absorbent filter pa

108 The resolution capability of the scanning electron microscope has increased immensely in recent ye

109 on energy loss spectroscopy performed in the electron microscope has until now been too poor to allow

110 loss spectroscopy (EELS) in the transmission electron microscope have been investigated to determine

111 nical tests in an environmental transmission electron microscope, here we demonstrate that after expo

112 ow, using ultra-high-resolution transmission electron microscope (HRTEM) images of natural and synthe

113 pe (FE-SEM) and high-resolution transmission electron microscope (HRTEM) images, respectively.

114 nned Ag under a high resolution transmission electron microscope (HRTEM) reveals the dynamic processe

115 scope (SEM) and high-resolution transmission electron microscope (HRTEM).

116 n beam within a high-resolution transmission electron microscope (HRTEM).

117 Scanning electron microscope images and serial sections demonstra

118 Ultrahigh-resolution electron microscope images demonstrate that samples disp

119 ach in the context of experimental cryogenic electron microscope images of a large ensemble of nontra

120 ith single particle analysis of transmission electron microscope images of negative-stained material

121 Scanning electron microscope images of the bacteria confirm that

122 Scanning electron microscope images of the thin-film composite me

123 ion spectra and high resolution transmission electron microscope images prove the high epitaxial qual

124 The comparison of a pair of electron microscope images recorded at different specime

125 he yarn was embedded into knitwear, scanning electron microscope images revealed an intact nanofibrou

126 Cryo-electron microscope images revealed dense prodrug-SOS co

127 Scanning electron microscope images show that in the specimens tr

128 Scanning electron microscope images showed that DPSCs attached we

129 l data sets and the high-resolution scanning electron microscope images were fused into a combined mu

130 Combining in situ through scanning electron microscope images with molecular simulation, we

131 Contaminated areas were assessed by scanning electron microscope images, chemical composition by ener

132 nique show excellent agreement with scanning electron microscope images, high spatial resolution at <

133 , high-angle annular dark-field transmission electron microscope images, thanks to the difference of

134 by different groups based on high-resolution electron microscope images.

135 were mapped using elemental display scanning electron microscope images.

136 The SEM (scanning electron microscope) images showed that the DVB particle

137 f polymeric film systems, using transmission electron microscope imaging (TEM) and nuclear magnetic r

138 Herein, electron microscope imaging analysis and proximity label

139 We used electron microscope imaging and three-dimensional recons

140 ples together with TUNEL assay, transmission electron microscope imaging and Western blot assay all d

141 Electron microscope imaging demonstrated reduced postsyn

142 horetic sampling and subsequent transmission electron microscope imaging were applied to the in-flame

143 scopy (EIS) and also field emission scanning electron microscope imaging were used for electrode char

144 The colony-forming unit counts, scanning electron microscope imaging, and dead:live volume ratio

145 py, lattice-resolution scanning transmission electron microscope imaging, and energy dispersive X-ray

146 ion in all cases where X-ray diffraction and electron-microscope imaging methods fail.

147 icroscope with an environmental transmission electron microscope in a novel experimental set-up.

148 gh characterization by scanning transmission electron microscope in high angle annular dark field mod

149 Visualization of viruses by the electron microscope in the late 1930s finally settled th

150 n blotting and immunocytochemistry under the electron microscope indicated that the mutant had neithe

151 We show that using a standard scanning electron microscope, individual nanoantenna gap sizes ca

152 SEM (Focused Ion Beam combined with Scanning Electron Microscope) instrument is presented.

153 n an atomic resolution scanning transmission electron microscope, it is found that stacking faults an

154 solution and flexibility of the transmission electron microscope, it would open up the study of vibra

155 In the electron microscope, labeled swellings form synapses tha

156 u fracture experiments inside a transmission electron microscope, large-scale atomistic simulations a

157 ological features were analyzed at light and electron microscope levels.

158 e edge in situ using an aberration-corrected electron microscope, measure the cross-section for the p

159 We demonstrate, using in situ transmission electron microscope mechanical testing, that [Formula: s

160 Transmission electron microscope micrographs have confirmed the prese

161 Under the electron microscope, muPLs appeared as square prisms wit

162 y optical microscope, environmental scanning electron microscope, nano/microindentation, and by tensi

163 we report, by using an in situ transmission electron microscope nanoindentation tool, the direct obs

164 nodansylcadaverine staining and transmission electron microscope observation.

165 formed in situ indentation in a transmission electron microscope on Al-TiN multilayers with individua

166 accessible with today's intermediate voltage electron microscopes only small prokaryotic cells or per

167 Under a transmission electron microscope, only the M1 layer of the M(NLS-88R)

168 ssing less than 100 kDa using a transmission electron microscope operating at 200 keV coupled with a

169 n aberration-corrected scanning transmission electron microscope optimized for low voltage operation

170 light microscope setup called the Photon Ion Electron microscope (PIE-scope) that enables direct and

171 situ heavy ion irradiation in a transmission electron microscope, pre-introduced nanovoids in nanotwi

172 tended to form double-stranded filaments in electron microscope preparations.

173 lapse imaging of Xenopus tectal neurons with electron microscope reconstructions of imaged neurons, w

174 At electron microscope resolution, parabrachiothalamic axon

175 Scanning electron microscope results also suggest that pulsed wav

176 nalysis of labeled apical dendrites under an electron microscope revealed that MCs and eTCs in fact h

177 ultilayers in a high-resolution transmission electron microscope revealed the z-AlN to wurzite AlN ph

178 atomic imaging and electrical biasing in an electron microscope, revealing the role of topological d

179 tu nanocompression testing in a transmission electron microscope reveals that the strength of larger

180 The electron microscope's ability to resolve three-dimension

181 ssed sensing algorithms are used to decrease electron microscope scan time and electron beam exposure

182 membranes for 48 hours followed by scanning electron microscope (SEM) analysis immediately or after

183 Scanning electron microscope (SEM) and Energy Dispersive X-Ray An

184 es of BNNSs are characterized using scanning electron microscope (SEM) and high-resolution transmissi

185 Using the scanning electron microscope (SEM) and micro computed tomography

186 ochlear histology was examined with scanning electron microscope (SEM) and transmission electron micr

187 Scanning electron microscope (SEM) and transmission electron micr

188 d structural characterizations by a scanning electron microscope (SEM) and X-ray diffraction (XRD) co

189 d electron beam experiment inside a scanning electron microscope (SEM) chamber.

190 ce area, isothermal adsorption, and scanning electron microscope (SEM) data.

191 Installed in a scanning electron microscope (SEM) field emission gun, our tip sh

192 To characterize the samples, scanning electron microscope (SEM) images and confocal microscope

193 We use a theoretical model based on scanning electron microscope (SEM) images of our substrates to ex

194 (CT), plasma focused ion beam (FIB) scanning electron microscope (SEM) imaging and scanning transmiss

195 Evaluation of tissue samples with scanning electron microscope (SEM) imaging showed three-dimension

196 g atomic force microscope (AFM) and scanning electron microscope (SEM) imaging techniques.

197 condary electron (SE) signal in the scanning electron microscope (SEM) is a technique gaining impulse

198 Scanning electron microscope (SEM) observations indicated that PM

199 Scanning electron microscope (SEM) revealed that the internal sur

200 The scanning electron microscope (SEM) stereo imaging technique was u

201 tes properties were accomplished by scanning electron microscope (SEM), electrochemical impedance spe

202 Methods such as scanning electron microscope (SEM), Fourier transform infrared sp

203 atomic force microscope (AFM) or a scanning electron microscope (SEM), optical tweezers, and focused

204 y photoelectron spectroscopy (XPS), scanning electron microscope (SEM), quartz crystal microbalance (

205 Scanning electron microscope (SEM), transmission electron microsc

206 us characterization methods such as scanning electron microscope (SEM), transmission electron microsc

207 g of nanoscience images obtained by scanning electron microscope (SEM).

208 ive X-ray spectrometry (EDX) with a scanning electron microscope (SEM).

209 hysical form visible on photos taken with an electron microscope (SEM).

210 rmulated beads was examined using a scanning electron microscope (SEM).

211 nuous electron beam of conventional scanning electron microscopes (SEM) limits the temporal resolutio

212 tion distribution were analyzed via scanning electron microscope(SEM) and energy dispersive spectrome

213 pression experiments conducted in a scanning electron microscope show an emergent electromechanical r

214 while imaging within an in situ transmission electron microscope show that the electric field modifie

215 experiments inside scanning and transmission electron microscopes show that penta-twinned silver nano

216 ace analysis of the product under a scanning electron microscope showed an increasingly rigid density

217 Scanning Electron Microscope (SME) was utilized to study the micr

218 n aberration-corrected scanning transmission electron microscope (STEM) can enable direct correlation

219 e aberration-corrected scanning transmission electron microscope (STEM) has emerged as a key tool for

220 cope (SEM) imaging and scanning transmission electron microscope (STEM) tomography.

221 series acquired in the scanning transmission electron microscope (STEM).

222 AADF) imaging within a scanning transmission electron microscope (STEM).

223 cal tests conducted in scanning/transmission electron microscopes (STEM/TEM) provide a critical tool

224 Electron microscope studies show that embryos depleted o

225 Transmission electron microscope studies showed clear chemical modula

226 Additionally, scanning electron microscope study indicated morphological damage

227 nanoparticles were confirmed by transmission electron microscope study.

228 ulties involved studying the human brain via electron microscope techniques.

229 st to observe in a conventional transmission electron microscope (TEM) and too slow for ultrafast ele

230 actions at the nanoscale in the transmission electron microscope (TEM) has been demonstrated.

231 a custom-designed photoelectric transmission electron microscope (TEM) holder.

232 cles using aberration-corrected transmission electron microscope (TEM) imaging and monochromated scan

233 The transmission electron microscope (TEM) imaging, UV-vis spectrophotome

234 Transmission electron microscope (TEM) observation reveals distinct d

235 Measurements with a transmission electron microscope (TEM) show that nano-Se particles sy

236 g electron microscope (SEM) and transmission electron microscope (TEM) showed cell membrane damage co

237 A systematic transmission electron microscope (TEM) study revealed a similar struc

238 g electron microscopy (SEM) and transmission electron microscope (TEM) techniques were used for phase

239 Here, we describe how to use Transmission Electron Microscope (TEM) to obtain Electron Magnetic Ci

240 ectron microscope (FE-SEM), and transmission electron microscope (TEM) with EDAX.

241 g electron microscope (SEM) and transmission electron microscope (TEM), as well as the nuclear labeli

242 Observed with the transmission electron microscope (TEM), CLDIs were bounded by an atyp

243 reeze-substituted sections in a transmission electron microscope (TEM), combined with conventional TE

244 ng electron microscopy (FESEM), transmission electron microscope (TEM), energy dispersive X-ray spect

245 croscopy (AFM), High-resolution transmission electron microscope (TEM), Fourier-transform infrared sp

246 ning electron microscope (SEM), transmission electron microscope (TEM), x-ray diffraction (XRD) metho

247 ning electron microscope (SEM), transmission electron microscope (TEM), x-ray diffraction (XRD), cycl

248 ne crystals when observed under Transmission Electron Microscope (TEM).

249 d using an aberration-corrected transmission electron microscope (TEM).

250 les, have been characterized by transmission-electron-microscope (TEM) image analysis.

251 e been determined using 300-keV transmission electron microscopes (TEMs).

252 canning electron microscope and transmission electron microscope testing of the smooth and rough nano

253 In situ scanning electron microscope tests of individual nanowires showed

254 ically studied using analytical transmission electron microscope that together with outcomes from adv

255 parallel imaging pipeline using transmission electron microscopes that scales this technology, implem

256 ion of TiN in a high-resolution transmission electron microscope, the nucleation of full as well as p

257 At the sizes visible within transmission electron microscope they appear nearly immobile.

258 In the electron microscope, three major types of terminals were

259 loss spectroscopy in a scanning transmission electron microscope to around ten millielectronvolts now

260 attering (DLS) and confirmed by transmission electron microscope to be about 400 nm.

261 cture-toughness measurements in the scanning electron microscope to characterize effects at micromete

262 roscopy mapping with a scanning transmission electron microscope to confirm the transition metal cati

263 loss spectroscopy in a scanning transmission electron microscope to directly resolve carbon-site-spec

264 us to apply the powerful capabilities of the electron microscope to imaging and analysis of liquid sp

265 r diffraction (EBSD) technique in a scanning electron microscope to non-destructively characterise an

266 e in situ heating in a scanning transmission electron microscope to observe the transformation of an

267 d nanofabricated diffraction holograms in an electron microscope to produce multiple electron vortex

268 We employ an ultrafast electron microscope to record movies of the subsequent e

269 eynman once asked physicists to build better electron microscopes to be able to watch biology at work

270 ing convergent-beam geometry in an ultrafast electron microscope, to selectively probe propagating tr

271 oscopy analyses, including three-dimensional electron microscope tomographic imaging, have fundamenta

272 show by electron tomography [3D transmission electron microscope tomography (3D TEM)] that chirality

273 orted to be the highest, were analyzed using electron microscope tomography (EMT).

274 sicles in glutamatergic synapses revealed by electron microscope tomography in unstimulated, dissocia

275 Focused ion beam/scanning electron microscope tomography reveals the key membrane

276 Here we used electron microscope tomography to obtain 3D visualizatio

277 Using live-cell imaging and electron microscope tomography, we find that the mitotic

278 ar to active zone structures described using electron microscope tomography.

279 intermediate-voltage electron microscopy and electron microscope tomography.

280 future development of single-shot ultra-fast electron microscope (UEM).

281 ns suffer radiation damage when imaged in an electron microscope, ultimately limiting the attainable

282 Here we used a recent electron microscope volume of the fly brain [4] to recon

283 tion, and additional analysis using scanning electron microscope was performed.

284 Via bright-field imaging with an ultrafast electron microscope, we are able to image the sub-picose

285 in situ annealing in a scanning transmission electron microscope, we directly discern five distinct s

286 n aberration-corrected scanning transmission electron microscope, we find that a single point defect

287 Using a scanning electron microscope, we have developed and implemented a

288 By growing III-V nanowires in a transmission electron microscope, we measured the local kinetics in s

289 ning in an aberration-corrected transmission electron microscope, we report on the salient atomistic

290 y using an aberration-corrected transmission electron microscope, we report the fabrication of precio

291 ion electron energy-loss spectroscopy in the electron microscope, we show that a single substitutiona

292 in situ electrical biasing in a transmission electron microscope, we show that electronic band bendin

293 uminium inside an environmental transmission electron microscope, we show that hydrogen exposure of j

294 ion irradiation technique in a transmission electron microscope, we show that nanoporous (NP) Ag has

295 n films under a high-resolution transmission electron microscope, we show that the plasticity mechani

296 Using the electron microscope, we studied spines and their associa

297 electron beam of a conventional transmission electron microscope; which can strip away multiple layer

298 e promise of vibrational spectroscopy in the electron microscope with single-atom sensitivity and has

299 n be identified with high probability in the electron microscope without specific labeling.

300 Vibrational spectroscopy in the electron microscope would be transformative in the study