ライフサイエンスコーパス: atomic force microscopy

1 nses in neighboring cells are monitored with atomic force microscopy.

2 lytical transmission electron microscopy and atomic force microscopy.

3 ements as well as direct visualization using atomic force microscopy.

4 ends on lipid bilayers is investigated using atomic force microscopy.

5 terisation, as well as scanning electron and atomic force microscopy.

6 scanning tunneling microscopy and noncontact atomic force microscopy.

7 us of the axon plasma membrane determined by atomic force microscopy.

8 The relaxation is monitored using in situ atomic force microscopy.

9 at microscopic length scale, as revealed by atomic force microscopy.

10 chanical transducers such as cantilevers for atomic force microscopy.

11 ing up to 25-30 nm diameter as determined by atomic force microscopy.

12 t of endorepellin on endothelial cells using atomic force microscopy.

13 minent side-to-side binding was confirmed by atomic force microscopy.

14 nced by transmission electron microscopy and atomic force microscopy.

15 and dynamics at equilibrium were analyzed by atomic force microscopy.

16 ee well with those obtained by (dried-state) atomic force microscopy.

17 cing granulocyte stiffness, as measured with atomic force microscopy.

18 ord at 1.5 and three weeks post-injury using atomic force microscopy.

19 loti (MloK1) in real-time, using high-speed atomic force microscopy.

20 Yields were further verified using atomic force microscopy.

21 to bind to dental enamel was evaluated using atomic force microscopy.

22 s in adsorption were further interrogated by atomic force microscopy.

23 d by measuring cellular elastic moduli using atomic force microscopy.

24 scence, light scattering, SDS stability, and atomic force microscopy.

25 ed to have uniform monolayer distribution by atomic force microscopy.

26 ocess using fluorescent reporters as well as atomic force microscopy.

27 etween exposures, the surface is imaged with atomic force microscopy.

28 after Ag electrodeposition is examined using atomic force microscopy.

29 s from AD patients ex vivo was studied using atomic force microscopy.

30 agen gels were evaluated using rheometry and atomic force microscopy.

31 using high-resolution X-ray reflectivity and atomic force microscopy.

32 By integrating conducting-probe atomic force microscopy (12,13) with custom-fabricated p

33 Using atomic force microscopy, 40% of microcystin-LR dimers we

34 Pulse, Peak Force Tapping, HybriD, etc.) of atomic force microscopy (AFM) allow imaging of compositi

35 In addition, atomic force microscopy (AFM) analysis of WT and TSP2 KO

36 ed by scanning electron microscopy (SEM) and atomic force microscopy (AFM) analysis, respectively.

37 To measure islet stiffness, we used atomic force microscopy (AFM) and developed a novel "bed

38 Atomic force microscopy (AFM) and electrochemical techni

39 Atomic force microscopy (AFM) and force spectroscopy hav

40 of enzyme-NPs conjugate was investigated by atomic force microscopy (AFM) and Fourier transform infr

41 cal, transmission electron microscopy (TEM), atomic force microscopy (AFM) and Fourier transform infr

42 Atomic force microscopy (AFM) and high resolution transm

43 rier transform infrared spectroscopy (FTIR), atomic force microscopy (AFM) and high-resolution scanni

44 ure of groundwater biofilms was monitored by atomic force microscopy (AFM) and optical coherence tomo

45 t angle, scanning electron microscopy (SEM), atomic force microscopy (AFM) and scanning electrochemic

46 Atomic force microscopy (AFM) and scanning electron micr

47 Here, we used atomic force microscopy (AFM) and single molecule fluore

48 ly of the immunochip surface was analyzed by atomic force microscopy (AFM) and the NS1 detection was

49 me and by comparing to the reference methods atomic force microscopy (AFM) and thioflavin T (ThT) ass

50 Atomic force microscopy (AFM) and transmission electron

51 Here we present an atomic force microscopy (AFM) approach for measuring ene

52 Contact and non-contact based atomic force microscopy (AFM) approaches have been exten

53 ere we demonstrate that intermittent-contact atomic force microscopy (AFM) can detect the Hall effect

54 High resolution atomic force microscopy (AFM) confirmed the efficiency o

55 Ms by scanning electron microscopy (SEM) and atomic force microscopy (AFM) feature a uniform and open

56 Atomic force microscopy (AFM) force-distance measurement

57 The analysis of the Atomic Force Microscopy (AFM) images showed two differen

58 Using atomic force microscopy (AFM) imaging, we show good agre

59 The atomic force microscopy (AFM) indentation method combine

60 Atomic force microscopy (AFM) is a versatile tool to cha

61 Atomic Force Microscopy (AFM) is a widely used tool to s

62 Atomic force microscopy (AFM) measurements in aqueous so

63 ffraction, Vickers hardness test method, and atomic force microscopy (AFM) measurements.

64 ment (F-Z) curves are the most commonly used Atomic Force Microscopy (AFM) mode to measure the local,

65 expected and use a combination of different atomic force microscopy (AFM) modes to present the first

66 Atomic force microscopy (AFM) on wild-type BM in vivo re

67 transmission electron microscopy (TEM), and atomic force microscopy (AFM) show that ADH-41 wholly su

68 ans cells onto PMMA surfaces by employing an atomic force microscopy (AFM) single-cell force spectros

69 ble because the nanometer-scale radius of an atomic force microscopy (AFM) tip yields a very low sign

70 and iron (oxy)hydroxide that was coated onto atomic force microscopy (AFM) tips and adsorbed with WEO

71 The dynamic wetting properties of atomic force microscopy (AFM) tips are of much concern i

72 We utilized atomic force microscopy (AFM) to apply force selectively

73 We then utilize atomic force microscopy (AFM) to demonstrate that the re

74 ethod, using force-distance (FD) curve based atomic force microscopy (AFM) to detect a target DNA bou

75 this study, we combined adhesion assays and atomic force microscopy (AFM) to identify the ligands in

76 Here we use Atomic Force Microscopy (AFM) to monitor the structural

77 f scanning probe tips that combine SECM with atomic force microscopy (AFM) to perform measurements at

78 lations, X-ray reflectivity (XR) and in situ atomic force microscopy (AFM) to probe the calcite (104)

79 ce plasmon resonance (SPR) method coupled to atomic force microscopy (AFM) to quantify and qualify pl

80 Here, we use atomic force microscopy (AFM) to show that ordered, exte

81 Here, we used atomic force microscopy (AFM) to show that the stiffness

82 ctrophoretic mobility shift assay (EMSA) and atomic force microscopy (AFM) to show that Ver preferent

83 Here we used in situ atomic force microscopy (AFM) to study the interactions

84 We used atomic force microscopy (AFM) to study their mechanical

85 By applying atomic force microscopy (AFM) to the nuclear envelope an

86 nanometre-scale imaging of wet cell walls by atomic force microscopy (AFM) with a stretching device a

87 One such method can be the atomic force microscopy (AFM) working in the force spect

88 y combining electrical probing measurements, atomic force microscopy (AFM), and scanning transmission

89 sometry, scanning electron microscopy (SEM), atomic force microscopy (AFM), and synchrotron radiation

90 ng Cu/In ratio, using Helium Ion Microscopy, Atomic Force Microscopy (AFM), and Time of Flight-Second

91 We used atomic force microscopy (AFM), complemented with electro

92 We used atomic force microscopy (AFM), scanning and transmission

93 EM), energy dispersive X-ray analysis (EDX), atomic force microscopy (AFM), scanning electron microsc

94 h hydrothermal approach and characterized by atomic force microscopy (AFM), scanning electron microsc

95 Atomic force microscopy (AFM), surface plasmon resonance

96 stems relevant to atmospheric aerosols using atomic force microscopy (AFM), which gives information o

97 y (TEM), scanning electron microscopy (SEM), atomic force microscopy (AFM), X-ray diffraction (XRD),

98 using conventional mechanical rheometry and atomic force microscopy (AFM)-based indentation as refer

99 n pull-down protocol enabled high-throughput atomic force microscopy (AFM)-based single-molecule forc

100 Atomic force microscopy (AFM)-based single-molecule forc

101 ce-sensing ability of VWF, we have performed atomic force microscopy (AFM)-based single-molecule forc

102 Atomic force microscopy (AFM)-based single-molecule forc

103 complex with Ag(+)have been investigated by Atomic Force Microscopy (AFM).

104 rochemical impedance spectroscopy (EIS), and atomic force microscopy (AFM).

105 of soft samples, including living cells, by atomic force microscopy (AFM).

106 rgy electron diffraction (RHEED) and ex situ atomic force microscopy (AFM).

107 EM-energy dispersive X-ray (EDX) mapping and atomic force microscopy (AFM).

108 eal-Time Deformability Cytometry (RT-DC) and Atomic Force Microscopy (AFM).

109 ods, scanning electron microscopy (SEM), and atomic force microscopy (AFM).

110 g unmasking were explored in live cells with atomic force microscopy (AFM).

111 e X-ray scattering, electron microscopy, and atomic force microscopy (AFM).

112 iggered T cells using a novel application of atomic force microscopy (AFM).

113 ification with torsional resonance (TR) mode atomic force microscopy (AFM).

114 , transmission electron microscopy (TEM) and atomic force microscopy (AFM).

115 h were subsequently mapped and quantified by atomic force microscopy (AFM).

116 tion of precipitate was studied in detail by atomic force microscopy (AFM).

117 are then verified by Raman spectroscopy and atomic force microscopy (AFM).

118 HBc particle morphology was confirmed by Atomic Force Microscopy (AFM).

119 ition on nanomaterial fate is explored using atomic force microscopy (AFM).

120 age nanostructures using optical microscopy, atomic-force microscopy (AFM), and scanning electron mic

121 Surface analysis of the biosensor by atomic force microscopy, after contact with JIA positive

122 Height measurements and images obtained by atomic force microscopy also demonstrated the dissociati

123 Using single molecule atomic force microscopy analyses, we demonstrate that Uv

124 at the cellular level, we performed detailed atomic force microscopy analysis across liver lobules fr

125 Atomic force microscopy analysis of PRP and growth facto

126 assembly and dynamics combining electron and atomic force microscopy and biochemical analyses.

127 lectrochemical impedance spectroscopy (EIS), atomic force microscopy and contact angle studies.

128 Atomic force microscopy and dynamic light scattering stu

129 nfirmed by X-ray Photoelectron Spectroscopy, Atomic Force Microscopy and Electrochemical Impedance Sp

130 orin pore assembly, we carried out real-time atomic force microscopy and electron microscopy studies.

131 Here, we use atomic force microscopy and environmental scanning elect

132 Atomic force microscopy and fluorescence analysis in sol

133 Using (high-speed) atomic force microscopy and fluorescence correlation spe

134 hese studies, we use NMR and single-molecule atomic force microscopy and fluorescence imaging to stud

135 ular tunnel formation using a combination of atomic force microscopy and fluorescence microscopy of l

136 supported lipid bilayers in conjunction with atomic force microscopy and fluorescence microscopy.

137 by using a specially designed photoelectric atomic force microscopy and found to be significantly en

138 n of these composites is characterized using atomic force microscopy and found to produce microscale

139 A one-to-one correlation of atomic force microscopy and high- and low-frequency Rama

140 ntrols, consistent with parallel tests using atomic force microscopy and invasion assays, proving the

141 gating micelle incorporation in calcite with atomic force microscopy and micromechanical simulations,

142 Combining in situ atomic force microscopy and multiscale molecular dynamic

143 ons complementing conventional tools such as atomic force microscopy and nanoindentation.

144 ties of these fibers are characterized using atomic force microscopy and Raman spectroscopy.

145 lled CNTs respectively, as established using atomic force microscopy and supported by small angle neu

146 ock copolymers in solution were conducted by atomic force microscopy and transmission electron micros

147 ss of living cells and surrounding matrix by atomic force microscopy and use fluorescence microscopy

148 en individual MV3 cells was quantified using atomic force microscopy and validated by multicellular a

149 By using a complementary approach of atomic force microscopy and vertical scanning interferom

150 ion electron microscopy (HRTEM) coupled with atomic force microscopy and X-ray photoelectron spectros

151 Atomic-force microscopy and scanning electron microscopy

152 of fibrillar insulin aggregates detected by atomic-force microscopy and to an equivalent microplate-

153 g solution and solid-state NMR, electron and atomic force microscopies, and EPR.

154 ry, in combination with electron microscopy, atomic force microscopy, and computational modeling, to

155 d-state NMR spectroscopy, X-ray diffraction, atomic force microscopy, and electron microscopy.

156 of reflectometric interference spectroscopy, atomic force microscopy, and Forster resonance energy tr

157 Combining genetics, atomic force microscopy, and immunolabeling, we demonstr

158 g in live cells, superresolution microscopy, atomic force microscopy, and molecular dynamics simulati

159 aracterized by small-angle X-ray scattering, atomic force microscopy, and scanning electron microscop

160 oscopy, electron microscopy, cryomicroscopy, atomic force microscopy, and various forms of spectrosco

161 n vivo by pulse wave velocity and ex vivo by atomic force microscopy, and wire and pressure myography

162 f the biosensor was carefully optimized with atomic force microscopy applied for visualization of the

163 ely optical tweezers, magnetic tweezers, and atomic force microscopy, are described in detail, and th

164 haracterized using transmission electron and atomic force microscopies as well as dynamic light scatt

165 scence microscopy to measure Tmix and we use atomic force microscopy at 22 degrees C to measure Delta

166 We compare our method with atomic force microscopy-based active oscillatory microrh

167 Additionally, using an atomic force microscopy-based approach, we further show

168 Here we demonstrate the first application of atomic force microscopy-based infrared spectroscopy (AFM

169 Atomic force microscopy-based infrared spectroscopy (AFM

170 Here, we present data from atomic force microscopy-based single-molecule force meas

171 n single-molecule studies, for example using atomic force microscopy-based single-molecule force spec

172 th scanning tunneling microscopy, conducting atomic force microscopy, break junction, nanopore, and c

173 tion charges using a conventional conductive atomic force microscopy (CAFM) without a top electrode i

174 ion electron microscopy, optical microscopy, atomic-force microscopy, cathodoluminescence, Raman spec

175 Using atomic force microscopy, changes in single vascular smoo

176 Atomic Force Microscopy characterization was performed i

177 In this study, by using high-resolution atomic force microscopy combined with biochemical assays

178 Using different biophysical tools, including atomic force microscopy combined with confocal fluoresce

179 rization by small-angle X-ray scattering and atomic force microscopy confirms that GO nanosheets alig

180 pled with mass spectrometry, and optical and atomic force microscopy, confirms the reductive silylati

181 Analysis of H and O-NDs by Atomic Force Microscopy, contact angle measurements and

182 The use of atomic force microscopy controlled nanothermal analysis

183 The junctions are made by conducting probe atomic force microscopy (CP-AFM) in which an Au-coated t

184 obtained using Au-S-OPI//Au conducting probe atomic force microscopy (CP-AFM) junctions with 50 nm(2)

185 complementary biophysical methods, including atomic force microscopy, cryo-electron microscopy, and n

186 brication of 3D RNA prisms, characterized by atomic force microscopy, cryo-electron microscopy, dynam

187 etal dichalcogenide monolayers using dynamic atomic force microscopy (dAFM).

188 Atomic Force Microscopy demonstrated notable topographic

189 brin fibers were studied using turbidimetry, atomic force microscopy, electron microscopy, and magnet

190 oids, we performed biophysical measurements (atomic force microscopy, electron microscopy, confocal m

191 rmed by X-ray photoelectron spectroscopy and atomic force microscopy experiments.

192 We used a combined atomic force microscopy/fluorescence microscopy techniqu

193 ing noncontact acoustic frequency-modulation atomic force microscopy (FM-AFM) and tested it on MDCK p

194 work highlights the potential of high-speed atomic force microscopy for the observation of mechanoch

195 ; specifically, we discuss interpretation of atomic force microscopy, Forster resonance energy transf

196 te dielectric and CuPc films are analyzed by atomic force microscopy, grazing incident X-ray diffract

197 Atomic force microscopy, high-resolution flow cytometry,

198 ication kits, we employed a novel high-speed atomic force microscopy (HS-AFM) method to detect and ch

199 Here we present high-speed atomic force microscopy (HS-AFM) observations of membran

200 Here, we used high-speed atomic force microscopy (HS-AFM) to directly image enzym

201 nd high-resolution electron transmission and atomic force microscopy images are compatible with a tet

202 e spun coat scaffold type was validated from atomic force microscopy images by computing surface roug

203 Atomic force microscopy images showed uniform distributi

204 eraction with the isolated CK domain and the atomic force microscopy images strongly indicate that PD

205 analysis histogram width (W) extracted from atomic force microscopy images.

206 Here we undertake a direct high-speed atomic force microscopy imaging analysis to visualize th

207 It also demonstrated atomic force microscopy imaging and automated analysis,

208 Using atomic force microscopy imaging and nanoindentation meas

209 s for studying the surfaces of biofibers are atomic force microscopy imaging and scanning electron mi

210 Finally, Atomic Force Microscopy imaging revealed that both OVAn

211 py-based single-molecule force measurements, atomic force microscopy imaging, and small-angle x-ray s

212 roism, fluorescence, Raman spectroscopy, and atomic force microscopy imaging, we characterized the mo

213 Based on atomic force microscopy, immunocytochemistry, and chemic

214 Evidence from induced circular dichroism and atomic force microscopy implies that the receptor also f

215 ections of M x giganteus stems and leaves by atomic force microscopy indicates that phloem sieve elem

216 In this paper, the use of a hybrid atomic force microscopy/infrared spectroscopy/mass spect

217 fect on joint cells, we pursued studies with atomic force microscopy investigations.

218 Here, colloidal probe atomic force microscopy is used to confine the calcite-s

219 Atomic force microscopy measurement demonstrate a two to

220 Tunnelling atomic force microscopy measurements demonstrate that th

221 Through conductive atomic force microscopy measurements on an ultra-thin (0

222 Atomic force microscopy measurements reveal the formatio

223 or large nanobubbles with radius 130 nm, our atomic force microscopy measurements show nanobubbles fi

224 tetrapods via in situ scanning electron and atomic force microscopy measurements.

225 By performing atomic force microscopy mechanical mapping combined with

226 imulations, Laurdan multiphoton imaging, and atomic force microscopy microindentation experiments was

227 rom monitoring their dynamic deformations in Atomic Force Microscopy nanoindentation experiments; but

228 nd the promising capabilities of non-contact Atomic Force Microscopy (nc-AFM) techniques are discusse

229 al expansion of the sample at the tip of the atomic force microscopy probe recorded at infrared wave

230 e UPSS are validated using in situ real-time atomic-force microscopy, representing the first instance

231 These atomic force microscopy results tracked remarkably well

232 In vivo atomic force microscopy revealed a noticeable pattern of

233 Furthermore, nanomechanical analysis by atomic force microscopy revealed increased softness and

234 ed by altering the heterocycle sequence, and atomic force microscopy revealed nanofibrillar morpholog

235 METHODS AND Atomic force microscopy revealed that beta-adrenergic si

236 Scanning electron microscopy and atomic force microscopy revealed the presence of Mn Nps

237 Atomic force microscopy reveals mono- and few-layer isla

238 Atomic force microscopy reveals that the length of the s

239 orphology of GO overlay was characterized by Atomic force microscopy, Scanning electron microscope, a

240 nical break junctions, nanopores, conductive atomic force microscopy, scanning tunneling break juncti

241 Here, we show that a combined atomic force microscopy/scanning tunneling microscopy (A

242 iffness, organization and ultrastructure via atomic force microscopy, second harmonic generation imag

243 Images of the template obtained by atomic force microscopy show that TFAM creates loops in

244 Atomic force microscopy showed larger (up to approximate

245 Atomic Force Microscopy showed significant alterations t

246 ypobaric stress thinned the tissue (p<0.05), atomic force microscopy showed that it shrunk the corneo

247 In this study, atomic force microscopy showed that KFs were softer than

248 Direct force measurements using atomic force microscopy showed that SdrF mediates bacter

249 nd few-layer island growth, while conducting atomic force microscopy shows that the grown hBN has a r

250 orce-induced unfolding using single molecule atomic force microscopy (smAFM) and steered molecular dy

251 Atomic force microscopy studies and MD simulations sugge

252 on a combined photoluminescence imaging and atomic force microscopy study of single, isolated self-a

253 Here, we have designed novel tools for atomic force microscopy that directly measure the intera

254 We show using atomic force microscopy that the soft keratinocyte matri

255 Here we show, using atomic force microscopy, that although mature guard cell

256 Furthermore, we show, by atomic force microscopy, that Sema7A decreases adhesion

257 Using conducting tip atomic force microscopy, the energies of {Co9(P2W15)3} f

258 y, we show a specific interaction between an atomic force microscopy tip decorated with recombinant a

259 Here, we use atomic force microscopy to analyze the kinetics of self-

260 we adopted a reductionist approach and used atomic force microscopy to define the temporal and spati

261 ination of molecular dynamics simulation and atomic force microscopy to deliver, in atomic detail, st

262 Here, we used atomic force microscopy to demonstrate that the aggregat

263 Here we use high resolution atomic force microscopy to directly image populations of

264 Using atomic force microscopy to directly observe crystallizat

265 Here, we used high-speed atomic force microscopy to directly visualize the membra

266 chemical assays with electron microscopy and atomic force microscopy to distinguish the roles of thes

267 the sensitivity of experiments ranging from atomic force microscopy to gravitational wave detection.

268 n optic nerve glioma is present, we employed atomic force microscopy to measure the stiffness of heal

269 are formed by solution deposition and we use atomic force microscopy to obtain images of the BP surfa

270 Herein we present a technique that uses atomic force microscopy to probe directly for the phase

271 nents and used simultaneous fluorescence and atomic force microscopy to quantify their molecular comp

272 and single-molecule force spectroscopy using atomic force microscopy to study the individual unfoldin

273 spectroscopy with the spatial resolution of atomic force microscopy to study the secondary structure

274 Here we use atomic force microscopy topography imaging and nanomecha

275 ric acid/melamine, we have determined, using atomic force microscopy under ambient conditions, a clea

276 Atomic force microscopy visualized the effect of these p

277 Detailed atomic force microscopy was used to confirm the number o

278 Atomic force microscopy was used to determine the height

279 n of electron microscopy and high-resolution atomic force microscopy was used to structurally charact

280 Using atomic force microscopy, we analysed a variety of bubble

281 Using time-lapse atomic force microscopy, we analyzed the morphology and

282 Using imaging flow cytometry and atomic force microscopy, we characterized the distributi

283 Using atomic force microscopy, we confirmed that HG significan

284 By means of atomic force microscopy, we could therefore investigate

285 Using micropillar arrays and atomic force microscopy, we demonstrate that strengtheni

286 Here, using atomic force microscopy, we directly investigate the int

287 ablation, and traction force microscopy and atomic force microscopy, we find that ubiquitously local

288 By using atomic force microscopy, we found that during reverse tr

289 Using non-contact atomic force microscopy, we imaged the single-bond-resol

290 Using atomic force microscopy, we previously characterized the

291 f ThT binding, Western blot and electron and atomic force microscopy, we report that Abeta nitration

292 With single-molecule atomic force microscopy, we show a specific interaction

293 ted emission depletion microscopy, FRET, and atomic force microscopy, we show that Ca(2+)acts as a ch

294 Using atomic force microscopy, we studied the elasticity of mo

295 Transmission electron microscopy and atomic force microscopy were employed to characterize th

296 al SMH), and roughness and 2D profiles using atomic force microscopy were measured after five cycles.

297 icroscopy, scanning electron microscopy, and atomic force microscopy, which unambiguously confirmed t

298 rface of mica in water using high-resolution atomic force microscopy with 25 ms resolution.

299 Herein, we show the first application of atomic force microscopy with infrared spectroscopy (AFM-

300 High-speed atomic force microscopy with single-molecule resolution