ライフサイエンスコーパス: force microscopy

1 at 5 K, and imaged by high-resolution atomic force microscopy.

2 id at the single-molecule level using atomic force microscopy.

3 troscopy mapping and calibrated Kelvin probe force microscopy.

4 ted in the peak force tapping mode of atomic force microscopy.

5 ce potential change assessed by Kelvin probe force microscopy.

6 d to experimental maps obtained via traction force microscopy.

7 the sialylation was visualized using atomic force microscopy.

8 transmission electron microscopy and atomic force microscopy.

9 d silica wafer was characterized with atomic force microscopy.

10 nanoscale structure characterized by atomic force microscopy.

11 lus, as measured by a method based on atomic force microscopy.

12 with assembly size up to 100 nm under atomic force microscopy.

13 rized utilizing scanning electron and atomic force microscopy.

14 by Fab-epitope antibody fragments via atomic force microscopy.

15 alized at room temperature by using magnetic force microscopy.

16 ethod for distance measurement, e.g., atomic force microscopy.

17 tside" signaling, as measured by single-cell force microscopy.

18 ing atomic force microscopy and Kelvin probe force microscopy.

19 ing cell deformation measurements and atomic force microscopy.

20 ck detectors and analyzed by means of atomic force microscopy.

21 two-dimensional and micropost-based traction force microscopy.

22 r dichroism, and spatially resolved magnetic force microscopy.

23 geneity of the layer was evidenced by atomic force microscopy.

24 acterized using optical microcopy and atomic force microscopy.

25 transmission electron microscopy and atomic force microscopy.

26 of OVT nanofibrils was studied using atomic force microscopy.

27 ing with the TIR excitation for photoinduced force microscopy.

28 tching response revealed from piezo-response force microscopy.

29 enation number of 22 was confirmed by atomic force microscopy.

30 ange was related to cell stiffness by atomic force microscopy.

31 microscopy, electron microscopy, and atomic force microscopy.

32 ng in decellularized ECM during HF by atomic force microscopy, 2-photon microscopy, high-resolution 3

33 Here we applied atomic force microscopy(7-12) to interrogate the morphologicall

34 esolution fluorescence microscopy and atomic force microscopy, a feat only obtained until now by fluo

35 unique approach based on tomographic atomic force microscopy, achieving a fully-3D, photogenerated c

36 Atomic force microscopy (AFM) allows nanoscale structure-functi

37 re we use a combination of noncontact atomic force microscopy (AFM) and density functional theory (DF

38 dispersive X-ray spectroscopy (EDS), atomic force microscopy (AFM) and grazing incidence X-ray diffr

39 erized at nanoscale with contact-mode atomic force microscopy (AFM) and Kelvin force microscopy (KFM)

40 Here we combine atomic force microscopy (AFM) and optical tweezers (OT) experim

41 , Scanning Electron Microscopy (SEM), Atomic Force Microscopy (AFM) and Raman Spectroscopy.

42 single-molecule techniques, including atomic force microscopy (AFM) and the DNA tightrope assay.

43 Atomic force microscopy (AFM) and transmission electron microsc

44 ies in musculotendinous tissues using atomic force microscopy (AFM) and ultrasound elastography.

45 We also provide a deeper focus into atomic force microscopy (AFM) applications that can bridge dive

46 ualize the DNA structures, we used an Atomic Force Microscopy (AFM) assay.

47 NiPAM) with a combined approach using atomic force microscopy (AFM) based single molecule force spect

48 obing of light-matter interactions by atomic force microscopy (AFM) bypasses the diffraction limit.

49 Here we demonstrate that atomic force microscopy (AFM) can be used to reshape, resize an

50 Among these, atomic force microscopy (AFM) combined with modeling has been w

51 Here, we utilize atomic force microscopy (AFM) coupled with other methods to rev

52 hesive properties were examined using atomic force microscopy (AFM) force volume mapping.

53 Recent progress in atomic force microscopy (AFM) has allowed the study of live cel

54 morphology of adsorbed PS films using atomic force microscopy (AFM) has been proven to be technically

55 -phosphocholine (DPPC) bilayers using atomic force microscopy (AFM) imaging and AFM-based nanoindenta

56 Atomic force microscopy (AFM) imaging of medin aggregates at di

57 Here, we report atomic force microscopy (AFM) imaging of S. pombe Ctp1-DNA comp

58 Here, we use rapid atomic force microscopy (AFM) imaging to show that MAC proteins

59 Here, using atomic force microscopy (AFM) in conjunction with direct stocha

60 key technological improvements turned atomic force microscopy (AFM) into a nanoscopic laboratory to d

61 Atomic force microscopy (AFM) is used to measure the binding fo

62 Atomic force microscopy (AFM) measurements allowed to ascertain

63 We report results of direct atomic force microscopy (AFM) measurements of adhesion of two M

64 form infrared (FTIR) spectroscopy and atomic force microscopy (AFM) methods were utilized for all cha

65 a novel method for the fabrication of atomic force microscopy (AFM) probes for force spectroscopy usi

66 surfaces were activated locally using atomic force microscopy (AFM) probes to deliver mechanical stim

67 Measurements using atomic force microscopy (AFM) reveal that these spots represent

68 Atomic Force Microscopy (AFM) revealed that the liposomes were

69 High-resolution, in situ atomic force microscopy (AFM) showed that altering one amino ac

70 Previous nanoscale imaging by atomic force microscopy (AFM) showed that the ring-like structu

71 In situ atomic force microscopy (AFM) shows that micelle assembly occur

72 We previously reported an atomic force microscopy (AFM) study on the calcium-mediated adh

73 Traditionally, dynamic atomic force microscopy (AFM) techniques are based on the analy

74 hard to characterize by either SEM or atomic force microscopy (AFM) that has been employed for examin

75 econstruction microscopy (dSTORM) and atomic force microscopy (AFM) to characterize the DNA origami n

76 Here, we use atomic force microscopy (AFM) to determine the three-dimensiona

77 Here we used microtiter and atomic force microscopy (AFM) to investigate adhesion by varian

78 This study utilized atomic force microscopy (AFM) to quantify difference in elastic

79 Here, we apply Atomic Force Microscopy (AFM) to quantitatively measure the cha

80 haeon Sulfolobus acidocaldarius using atomic force microscopy (AFM) to understand how this macromolec

81 Atomic force microscopy (AFM) was used to further characterise

82 ses for this flow resistance, we used atomic force microscopy (AFM) with 10-um spherical tips to prob

83 racterize using low-temperature (5 K) atomic force microscopy (AFM) with CO-terminated tips assisted

84 scanning tunneling microscopy (STM), atomic force microscopy (AFM) with CO-tip, scanning tunneling s

85 four different probe technologies: 1) atomic force microscopy (AFM) with sharp tip, 2) AFM with round

86 embrane structural features imaged by atomic force microscopy (AFM) with the dynamics measured using

87 -D), surface plasmon resonance (SPR), atomic force microscopy (AFM), and fluorescence microscopy.

88 CD, fluorescence and IR spectroscopy, atomic force microscopy (AFM), and theoretical calculations, re

89 canning electron microscopy (SEM) and atomic force microscopy (AFM), and Ti dissolution via light mic

90 chniques, such as Raman spectroscopy, atomic force microscopy (AFM), and transmission electron micros

91 , scanning electron microscopy (SEM), atomic force microscopy (AFM), differential pulse (DPV), and cy

92 sessed by scanning electron (SEM) and atomic force microscopy (AFM), electrochemical impedance spectr

93 igated using cyclic voltammetry (CV), atomic force microscopy (AFM), Field emission-scanning electron

94 surface plasmon resonance (SPR) with atomic force microscopy (AFM), here we studied two complement s

95 Atomic force microscopy (AFM), High-resolution transmission ele

96 ocal Raman microspectroscopy (RM) and atomic force microscopy (AFM), respectively.

97 P-MIPs were investigated by employing atomic force microscopy (AFM), scanning electron microscopy (SE

98 uch as optical and magnetic tweezers, atomic force microscopy (AFM), single-molecule fluorescence res

99 Using atomic force microscopy (AFM), we demonstrate that mESCs lackin

100 all-angle X-ray scattering (SAXS) and atomic force microscopy (AFM), we investigated the overall conf

101 We have studied the atomic force microscopy (AFM), X-ray Bragg reflections, X-ray a

102 Atomic force microscopy (AFM)-based TERS is especially versatil

103 ication of virions based on a modular atomic force microscopy (AFM).

104 ickness of the deposits acquired from atomic force microscopy (AFM).

105 all-angle X-ray scattering (SAXS) and atomic force microscopy (AFM).

106 l stiffness and viscosity measured by atomic force microscopy (AFM).

107 ited on a solid surface, studied with atomic force microscopy (AFM).

108 d by mass spectrometry (ToF-SIMS) and atomic force microscopy (AFM).

109 ess, and imaging were performed using atomic force microscopy (AFM).

110 orm infrared spectroscopy (FTIR), and atomic force microscopy (AFM).

111 al characterization of utrophin using atomic force microscopy (AFM).

112 graphically patterned substrates with atomic force microscopy (AFM).

113 Our method uses piezoresponse force microscopy, an atomic force microscope modality th

114 In summary, our atomic force microscopy analyses reveal key details in the inte

115 Atomic force microscopy analysis provides compelling evidence o

116 transmission electron microscopy, and atomic force microscopy analysis reveals that as the threshold

117 Atomic force microscopy and cellular studies revealed that olig

118 eptor outer-segment disc membranes by atomic force microscopy and cryo-electron tomography has reveal

119 electron microscopy, high-resolution atomic force microscopy and Cs-corrected scanning transmission

120 BSA) was investigated at pH 3.0 using atomic force microscopy and differential scanning calorimetry a

121 ning probe microscopy, scanning Kelvin probe force microscopy and first-principle calculations.

122 opic spatial mapping using conductive atomic force microscopy and in operando tip-enhanced Raman spec

123 Combining atomic force microscopy and IR lasers (AFMIR) allows acquisitio

124 different thermal conditions by using atomic force microscopy and Kelvin probe force microscopy.

125 on revealed by nanoscale conductive scanning force microscopy and macroscale IV characteristic measur

126 tals of hexagonal boron nitride using atomic-force microscopy and nano-infrared spectroscopy.

127 Atomic force microscopy and nanoparticle labeling experiments r

128 f the polymer was characterized using atomic force microscopy and Raman microspectroscopy.

129 Atomic force microscopy and scanning electron microscopy show c

130 were morphologically characterized by atomic force microscopy and scanning electron microscopy.

131 or has been studied with contact-mode atomic force microscopy and scanning Kevin probe microscopy.

132 ination of high-resolution noncontact atomic force microscopy and scanning tunneling microscopy.

133 orption kinetics were evaluated using atomic force microscopy and the theoretical modeling.

134 the fungal surface using single-cell atomic force microscopy and their influence on biofilm initiati

135 and transmission electron microscopy, atomic force microscopy and x-ray diffraction to investigate th

136 ng tunneling microscopy/spectroscopy, atomic force microscopy, and density functional theory calculat

137 ight scattering, transmission EM, CD, atomic force microscopy, and fluorimetry to analyze the structu

138 n, dielectric, ferroelectric, piezo-response force microscopy, and magnetization measurements of Pd-s

139 voltammetry, square wave voltammetry, atomic force microscopy, and scanning electron microscopy.

140 ion X-ray photoelectron spectroscopy, atomic force microscopy, and scanning tunneling microscopy.

141 Single particle tracking, atomic force microscopy, and single molecule unzipping assays i

142 ot blot analysis, Raman spectroscopy, atomic force microscopy, and transmission electron microscopy.

143 Here we combined biochemical and atomic force microscopy approaches with single molecule R-loop

144 embly pathways obtained using in situ atomic force microscopy are also discussed.

145 A high-precision, atomic force microscopy assay was developed to study the initia

146 of these isoforms were studied using atomic force microscopy at high resolution in air and buffer.

147 Herein, we describe a simple atomic force microscopy based experimental procedure for the si

148 e instrument-designing principles for atomic force microscopy-based infrared microscopy.

149 easurement of interaction strength by atomic force microscopy-based single-cell force spectroscopy de

150 The recent development of atomic-force-microscopy-based infrared spectroscopy (AFM-IR), w

151 sDNA-GQD complexation is confirmed by atomic force microscopy, by inducing ssDNA desorption, and with

152 Conductive probe atomic force microscopy (cAFM) was used to determine the conduc

153 Here, by coupling an atomic force microscopy cantilever into a solid open-cell set-u

154 d these species with transmission EM, atomic-force microscopy, CD spectroscopy, FTIR spectroscopy, an

155 Finally, atomic force microscopy confirmed that VASH1 depletion reduces

156 Atomic force microscopy corroborated indications from the prote

157 olution by infrared nanospectroscopy (atomic force microscopy coupled to infrared spectroscopy, AFMIR

158 ply an integrative approach combining atomic force microscopy, cryo-electron tomography, network anal

159 Atomic force microscopy data support the sequence-independent n

160 The atomic force microscopy data uniquely reveal a surprise: both t

161 Atomic force microscopy demonstrated that myosin IIB mediated a

162 ligomeric arrangement was revealed by atomic force microscopy demonstrating that Rh exists as a dimer

163 urement approach, in which correlated atomic force microscopy, dynamic light scattering, high perform

164 , thanks to a combination of operando atomic force microscopy, electrochemical strain microscopy and

165 e, scanning tunnelling microscopy and atomic force microscopy enable us to see chemical bonds, but on

166 Here, we employ atomic force microscopy-enabled nanoindentation to determine th

167 o-EM and by atomic force and IR-photoinduced force microscopy established that Ico8 assembles into a

168 Cellular force microscopies evidence that a persistent rise in th

169 Atomic force microscopy evidenced that prolonged heat treatment

170 lecular polymer, light scattering and atomic force microscopy experiments show that water increases t

171 the nano-DESI and shear force probes, shear force microscopy experiments, spectral acquisition, and

172 Fluidic force microscopy (FluidFM) is a recent force-controlled

173 While three-dimensional traction force microscopy for single cells in a nonlinear matrix

174 increasing contact time between the scanning force microscopy force probe and the surface allow an es

175 is is achieved using photo-conductive atomic force microscopy, grazing-incidence wide-angle X-ray sca

176 Using magnetic conductive probe atomic force microscopy, Hall voltage measurements, and spin-de

177 Toward this end, atomic force microscopy has been used to unfold individual memb

178 Magnetic force microscopy has unsurpassed capabilities in analysi

179 Through a combination of conductive atomic force microscopy, high-resolution electron energy loss s

180 We have used high-speed atomic force microscopy (HS-AFM) and all-atom molecular dynamic

181 Here we used high-speed atomic force microscopy (HS-AFM) and kinetic modeling which all

182 High-speed atomic force microscopy (HS-AFM) can be used to study dynamic p

183 n, GAL4-VVD, and DNA using high-speed atomic force microscopy (HS-AFM) is reported.

184 Here, we use high-speed atomic force microscopy (HS-AFM), fluorescence recovery after p

185 Using high-speed atomic force microscopy (HS-AFM), we explored the Mg(2+)-depend

186 visualized in real-time by high-speed atomic force microscopy (HS-AFM).

187 ion scanning electron microscopy, and atomic force microscopy image analysis.

188 lectron cryo-microscopy (cryo-EM) and atomic force microscopy images, we identify key intermediates a

189 tra and surface roughness obtained by atomic force microscopy images.

190 Here, we employed atomic force microscopy imaging in air and liquids to visualize

191 and self-association, as confirmed by atomic force microscopy imaging of proteins exhibiting the two

192 Atomic force microscopy imaging of ringlike structures of Cx26/

193 ectrically written domains and piezoresponse force microscopy imaging of the very same domains reveal

194 transmission electron microscopy and atomic force microscopy imaging upon attaching polystyrene-b-po

195 se model, along with CD spectroscopy, atomic force microscopy, immunofluorescence-based imaging, and

196 w in fresh murine bones, probed using atomic force microscopy in physiological buffer.

197 e reversed-phase (RP) chromatography, atomic force microscopy, in vitro biochemical and cell assays,

198 Atomic force microscopy indentation experiments showed that thi

199 Atomic force microscopy indicated the vesicles presented spheri

200 roscopic imaging techniques including Atomic Force Microscopy Infrared (AFM-IR) and confocal Raman mi

201 al infrared (O-PTIR) spectroscopy and atomic force microscopy infrared (AFM-IR) spectroscopy to probe

202 otothermal-induced resonance-enhanced atomic force microscopy infrared spectroscopy (AFM-IR) to asses

203 o address this limitation, we applied atomic force microscopy infrared spectroscopy (AFM-IR) to asses

204 Atomic force microscopy-infrared (AFM-IR) spectroscopic imaging

205 Using atomic force microscopy-infrared (AFM-IR) spectroscopy, we were

206 Additionally, atomic force microscopy-infrared spectroscopy (AFM-IR) as an ad

207 c polymer nanocomposites by combining atomic force microscopy-infrared spectroscopy (AFM-IR) with fir

208 Using atomic force microscopy-infrared spectroscopy (AFM-IR), we were

209 Infrared photoinduced force microscopy (IR-PiFM) is a scanning probe spectrosc

210 re, we demonstrate that time-resolved atomic force microscopy is capable of temporally and spatially

211 ode atomic force microscopy (AFM) and Kelvin force microscopy (KFM).

212 Here, we develop and apply high-speed atomic force microscopy line-scanning (HS-AFM-LS) combined with

213 interrogated via magnetic conducting atomic force microscopy (mC-AFM), spin-dependent electrochemist

214 Based on our combined study of atomic force microscopy measurements and density functional the

215 l results are confronted with QCM and atomic force microscopy measurements of positively charged poly

216 on (TTF) is a key concept in making Magnetic Force Microscopy measurements quantitative.

217 ver and is thus detectable by regular atomic force microscopy methods.

218 adaxial and abaxial stem sides using atomic force microscopy nano-indentation testing.

219 adient of mechanical properties using atomic force microscopy nanoindentation measurements for a vari

220 /spectroscopy (STM/S) and non-contact atomic force microscopy (nc-AFM) combined with first-principle

221 eling microscopy (STM) and noncontact atomic force microscopy (nc-AFM).

222 the subset of SPM known as noncontact atomic force microscopy (ncAFM).

223 energy landscape by combining in-situ atomic force microscopy observations of assembly with thermodyn

224 Based on the results of AFM (atomic force microscopy) observations together with single DNA

225 nic, anionic, and dianionic states by atomic force microscopy, obtaining atomic resolution and bond-o

226 Atomic force microscopy on the resulting nanoscale toroids reve

227 ion to form peak force infrared-Kelvin probe force microscopy (PFIR-KPFM), which enables simultaneous

228 eption more than 25 years ago, Piezoresponse Force Microscopy (PFM) has become one of the mainstream

229 ical modeling and experimental piezoresponse force microscopy (PFM) studies.

230 creasingly popular technique is photoinduced force microscopy (PiFM), which utilizes the mechanical h

231 s where it is the tip of a conducting atomic-force-microscopy probe.

232 nchrotron resonance-enhanced infrared atomic force microscopy (RE-AFM-IR) is a near-field phototherma

233 scale binding kinetics measured using atomic force microscopy reveal that dendrimer-coated surfaces e

234 Atomic force microscopy revealed 40-300 nm diameter OMVs from c

235 of cyclo[18]carbon by high-resolution atomic force microscopy revealed a polyynic structure with defi

236 Atomic force microscopy revealed that binding of Rv0890c to DNA

237 Atomic force microscopy revealed that MFS CMs are stiffer compa

238 sion scanning electron microscopy and atomic force microscopy revealed that tungsten oxide has a poro

239 r a series of biases using conductive atomic force microscopy, revealing negligible difference betwee

240 Strikingly, atomic force microscopy reveals that many disc membranes in Prc

241 In addition, magnetic force microscopy reveals the ability to tune DMI in a ra

242 Atomic force microscopy reveals the Y269 residue is required fo

243 Characterization by atomic force microscopy, scanning electron microscopy, X-ray di

244 e combine low-temperature non-contact atomic force microscopy, scanning tunneling microscopy and spec

245 Atomic force microscopy showed that hypertrophic chondrocytes a

246 Atomic force microscopy showed that the process of casein micel

247 on with cell migration analysis and traction force microscopy shows a wide-range of applicability and

248 Atomic force microscopy single molecule force mappings revealed

249 Experimental data from atomic force microscopy single-molecule force spectroscopy and

250 p)) and switching spectroscopy piezoresponse force microscopy (SS-PFM) experiments, respectively.

251 hase evolution with a comprehensive magnetic force microscopy study of nominal 50 nm thick FeRh thin

252 n size distribution confirmed through atomic force microscopy study.

253 Atomic force microscopy, surface X-ray diffraction, and vibrati

254 Tomographic atomic force microscopy (TAFM) is presented as a subtractive sc

255 Here, we describe a single-molecule force microscopy technique that monitors the folding of

256 Here, we use an atomic force microscopy technique to report precise adhesion me

257 cal (scanning electron microscopy and atomic force microscopy) techniques.

258 cterization was performed by means of atomic force microscopy, tensile biaxial deformation, and real-

259 mages are generally not used for 3D traction force microscopy (TFM) experiments due to limitations in

260 Traction force microscopy (TFM) has been instrumental for studyin

261 Traction force microscopy (TFM) is a family of methods used to qu

262 Here, by using electrostatic force microscopy, this effect is observed as a strain-in

263 ron scattering experiments as well as atomic force microscopy to access molecular properties of CWPE.

264 We also use high-speed atomic force microscopy to analyse the deformability of PIEZO1

265 We employ atomic force microscopy to confirm that transport barriers of N

266 We use in situ atomic force microscopy to directly image individual aluminum i

267 e we use cryo-electron microscopy and atomic force microscopy to examine the structure of highly infe

268 iophen-5,5'''-diyl)] films with Kelvin probe force microscopy to highlight the role of the spatial di

269 Andres et al. now use atomic force microscopy to image Ctp1-DNA complexes, demonstrat

270 We used atomic force microscopy to measure the nucleosome positions and

271 Here we use in situ atomic force microscopy to monitor three distinct mechanisms of

272 To address this, we have employed atomic force microscopy to perform micro-indentation measuremen

273 injury to the actin cytoskeleton, and atomic force microscopy to quantify impairment to cellular biom

274 nce and reflectance spectroscopy with atomic force microscopy to reveal the presence of a direct gap

275 Applying chemical kinetics and atomic force microscopy to the assembly of Abeta and lysozyme,

276 Here, we used high-speed atomic force microscopy to visualize and characterize the in si

277 ations by employing CO-functionalized atomic force microscopy to visualize structures corresponding t

278 ere, we applied time-lapse high-speed atomic force microscopy to visualize the conformational changes

279 Here, we used atomic force microscopy to visualize the interaction of PriA wi

280 egrees C in 20 mTorr O(2) is shown by atomic force microscopy to yield nearly pinhole-free film growt

281 d nucleotides were corroborated using atomic force microscopy, transmission electron microscopy, and

282 al integrity upon repeated scans with Atomic Force Microscopy up to a peak force of 1 nN.

283 Atomic force microscopy was used to map the viscoelastic proper

284 Atomic force microscopy was used to study changes in cell stiff

285 With atomic force microscopy we also monitored real-time changes in

286 emical and electrical measurements in atomic force microscopy, we demonstrate that at a buried interf

287 -force assays, immunofluorescence and atomic force microscopy, we demonstrate that immunoglobulin and

288 Using atomic force microscopy, we find that during maturation, DC cor

289 g, mechanochemical reconstitution and atomic force microscopy, we find that mammalian Par3 couples ge

290 Using atomic force microscopy, we investigated how the reovirus sigma

291 Using atomic force microscopy, we quantified a 2.9-fold stiffening of

292 Using low temperature piezoresponse force microscopy, we revealed coexistence of piezoelectr

293 correlative single-molecule fluorescence and force microscopy, we show that CMG harbors a ssDNA gate

294 Here, by PeakForce Tapping atomic force microscopy, we show that human XPA binds and bends

295 Using flow cytometry and atomic force microscopy, we show that local assembly of C5b6 at

296 oxygen sensing, X-ray scattering, and Atomic Force Microscopy, we show that mammalian pulmonary membr

297 ng are investigated in situ by piezoresponse force microscopy while the real-time evolution of interf

298 Here we show that noncontact atomic-force microscopy with a CO-terminated tip (used previous

299 imodal chemical imaging that combines atomic force microscopy with time-of-flight secondary mass spec

300 tiv-AFM, combining time-lapse in vivo atomic force microscopy with upright fluorescence imaging of em