ライフサイエンスコーパス: tweezers

1 ion by dynamic holographic assembly (optical tweezers).

2 r-optical, micropipette, and magneto-optical tweezers.

3 dividual strontium atoms held within optical tweezers.

4 ge complexity by simply removing the optical tweezers.

5 nd while trapping individual GUVs in optical tweezers.

6 a colloidal monolayer substrate with optical tweezers.

7 ercome by trapping particles with 2D optical tweezers.

8 5 at the single-molecule level using optical tweezers.

9 eld under tension in high-resolution optical tweezers.

10 -based trapping by creating atomically sharp tweezers.

11 single-molecule techniques, such as optical tweezers.

12 LRP-overlying cells by ablation with optical tweezers.

13 which have been mostly restricted to optical tweezers.

14 n measurements of folding made using optical tweezers.

15 and classical information science or optical tweezers.

16 data of single protein folding from optical tweezers.

17 e at the single-molecule level using optical tweezers.

18 haperone Hsp90 using single-molecule optical tweezers.

19 particles that can be controlled with laser tweezers.

20 e-molecule force spectroscopy using magnetic tweezers.

21 itiation processes in real time with optical tweezers.

22 el of stochastic bead motion in the magnetic tweezers.

23 erize its mechanical properties with optical tweezers.

24 olecules in bacteriophage phi29 with optical tweezers.

25 , which is monitored in real time by optical tweezers.

26 /droplet transport, and smart magnetic micro-tweezers.

27 of titin dynamics under force using magnetic tweezers.

28 g, and extends the applicability of magnetic tweezers.

29 bination of single molecule FRET and optical tweezers.

30 uplexes bound to telomestatin, using optical tweezers.

31 being synthesized in real-time, via optical tweezers.

32 DNA sequence using freely orbiting magnetic tweezers.

33 unwinding DNA with single-molecule magnetic tweezers.

34 tide conditions using high-precision optical tweezers.

35 n chloroform, as well as in the solid state, tweezers 1 self-assembles to form a linear supramolecula

36 In contrast, tweezers 2 does not interact in an intermolecular fashio

37 3), angular optical trapping(4) and magnetic tweezers(5), have helped to unravel the action mechanism

38 croscope (AFM)(1-4) and optical and magnetic tweezers(5-8), have helped shed new light on the complex

39 Similar to optical tweezers, acoustic tweezers have been proposed to be cap

40 re, we present the all-fiber modular optical tweezers (AFMOTs), in which an optical trap can be relia

41 Thus, junctured-DNA tweezers allow a straightforward and robust access to si

42 ends through attached beads held by optical tweezers, allowing us to record the applied force.

43 The use of optical tweezers also enables the directed deposition and immobi

44 homogeneous levan-DNA mixtures using optical tweezers and a rotational rheometer.

45 namics experiments using holographic optical tweezers and achieve a doubling of escape rates compared

46 lar switch based on terpyridine(Ni-salphen)2 tweezers and addressable by three orthogonal stimuli (me

47 ule manipulation techniques, notably optical tweezers and AFM.

48 circular dichroism, thermodynamics, optical tweezers and calorimetry techniques.

49 sis of viral envelope disruption by specific tweezers and establish a new class of potential broad-sp

50 ouble-stranded DNA is stretched with optical tweezers and exposed to ligand under constant applied fo

51 ecule manipulation methods, such as magnetic tweezers and flow stretching, generally use the measurem

52 single-molecule technique combining optical tweezers and fluorescence microscopy that allows for bot

53 of fibrin and used a combination of optical tweezers and fluorescence microscopy to measure the inte

54 use a combination of single-molecule optical tweezers and MD simulations to investigate the effect of

55 Here we use optical tweezers and molecular dynamics to dissect changes in fo

56 individual ribosomes using dual-trap optical tweezers and observe simultaneous folding of the nascent

57 An integrated holographic optical tweezers and Raman microscope was used to investigate th

58 Here, employing single-molecule magnetic tweezers and rapid kinetic approaches we establish that

59 B interaction using single-molecule magnetic tweezers and rapid kinetic experiments.

60 different conformational states with optical tweezers and simultaneously probing the chromophore with

61 Using optical tweezers and the conventional single-bead assay, we show

62 We implemented the technique in magnetic tweezers and tracked the 3D position of over 100 beads i

63 llar vesicles have been isolated using laser tweezers and, by measuring the intensity modulation of e

64 , including single-molecule assays (magnetic tweezers) and bulk experiments (ultraviolet absorption f

65 echniques, namely optical tweezers, magnetic tweezers, and atomic force microscopy, are described in

66 complexes mechanical coupling with magnetic tweezers, and cell-cell cohesion during collective cell

67 to describe the electrical properties of the tweezers, and correlate model parameters to conformation

68 scanning electron microscope (SEM), optical tweezers, and focused electron-beam nanomanipulation.

69 resonance energy transfer (smFRET), nanopore tweezers, and hybrid techniques that increase the number

70 holographic data storage, tunable plasmonic tweezers, and integrated optical components.

71 nt in the absence of profilin using magnetic tweezers, and observe that increasing force from 0.5 to

72 rent sequences held under tension in optical tweezers, and path shapes were computed by averaging all

73 ments of microdroplets using aerosol optical tweezers (AOT) and analysis of the whispering gallery mo

74 on a droplet suspended in an aerosol optical tweezers (AOT).

75 ur knowledge, a new high-resolution magnetic tweezers apparatus.

76 elop a parallelized single molecule magnetic tweezers approach using engineered DNA hairpins that can

77 Optical tweezers are a highly versatile tool for exploration of

78 Optical tweezers are a laboratory-based platform that can provid

79 Plasmonic optical tweezers are a ubiquitous tool for the precise manipulat

80 Magnetic tweezers are a wide-spread tool used to study the mechan

81 Miniaturization and integration of optical tweezers are attractive.

82 emonstrates that dynamic holographic optical tweezers are capable of manipulating single micrometer-s

83 Magnetic tweezers are straightforward to implement, free of radia

84 indicator for conformational changes in DNA tweezers are the ionic conductivity, while shifts in the

85 ich appropriately substituted bis(porphyrin) tweezers are used.

86 Optical and magnetic tweezers are widely employed to probe the mechanics and

87 gle motor proteins, such as FRET and optical tweezers, are limited to a resolution of approximately 3

88 omic force microscopy or magnetic or optical tweezers, are powerful but limited in their applicabilit

89 manipulation methods, in particular optical tweezers, are shedding new light on the molecular mechan

90 Here, we introduce junctured-DNA tweezers as a generic platform that enables real-time ob

91 "human" time scale and establishes magnetic tweezers as a valuable technique to study low-probabilit

92 y study to assess the use of aerosol optical tweezers as an instrument for sampling and detecting acc

93 forming tasks within living cells and/or DNA tweezers as ultra-sensitive biosensors.

94 Here, we developed a single-molecule optical tweezers assay capable of simultaneously characterizing

95 Here, we present a novel optical tweezers assay that allows monitoring the activity of Re

96 We use a single-DNA magnetic tweezers assay to study compaction of DNA by yeast conde

97 Here, we use a dual-beam optical tweezers assay to study the mechanics of this interactio

98 Using a single-molecule magnetic tweezers assay, we construct RPA-stabilized DNA bubbles

99 Using a single-molecule optical tweezers assay, we explore the effects of oligomeric sta

100 arily on atomic force microscope and optical tweezers assays that, while powerful, are limited in for

101 and techniques such as optical and magnetic tweezers, atomic force microscopy (AFM), single-molecule

102 Magnetic tweezers based on a solenoid with an iron alloy core are

103 In this work, we present a novel plasmonic tweezers based on metahologram.

104 Recently, acoustic tweezers based on tightly focused ultrasound microbeam h

105 We present a holographic optical tweezers based technology to accurately generate bespoke

106 wave (CW) and femtosecond plasmonic optical tweezers, based on gold-coated black silicon.

107 lls by combining micropatterning and optical tweezers-based active microrheology.

108 The application of holographic optical tweezers-based micromanipulation will enable novel insig

109 Here, we develop an optical tweezers-based single-molecule (SM) motility assay for p

110 ied their biochemical properties by magnetic tweezers-based supercoil relaxation and classical DNA re

111 Here we present a magnetic-tweezers-based technique that allows, for the first time

112 single-molecule characterization in optical tweezers but also clearly revealed mechanical features o

113 rated that a force application with magnetic tweezers can also affect cell fate, suggesting a therape

114 By a metal coordination stimulus, the tweezers can be mechanically switched from an open "W"-s

115 We further show how 3D acoustic tweezers can be used to pick up, translate, and print si

116 photon flux, while femtosecond-laser optical tweezers can probe the nonlinear optical properties of t

117 rce spectroscopic approaches such as optical tweezers can track the pseudoknot's unfolding intermedia

118 e rotations during stepping, we used optical tweezers combined with an optical microprotractor and to

119 troduce Raman Tweezers (RTs), namely optical tweezers combined with Raman spectroscopy, as an analyti

120 Using near-infrared optical tweezers combined with TIRF microscopy, we were able to

121 Low-power near-field nano-optical tweezers comprising plasmonic nanoantennas and photonic

122 etched by mechanical forces akin to magnetic tweezers contain, in the buckling regime, multiple and b

123 However, tweezers data are still most commonly interpreted post f

124 Experiments with magnetic tweezers demonstrate that non-specific binding leads to

125 Here, using our magnetic tape head tweezers design, we measure the folding dynamics of sing

126 of tape heads to implement one in a magnetic tweezers design, which offers the unique capability of c

127 which is analogous to the well-known optical tweezers effect.

128 Opto-thermo-electrohydrodynamic tweezers employ a finite array of plasmonic nanoholes il

129 Microrheology using optical tweezers enabled us to measure local viscoelastic proper

130 Here, we use single-molecule optical tweezers experiments and stochastic theory to show that

131 The results of the optical tweezers experiments highlight the complex nature of the

132 try will facilitate high-resolution magnetic-tweezers experiments that rely on short molecules and la

133 and pave the way for new classes of magnetic tweezers experiments to dissect the role of twist and to

134 Based on force-clamp optical tweezers experiments we report here that, in a paradoxic

135 for RNA and DNA revealed by single-molecule tweezers experiments, are currently lacking.

136 aging process compatible with recent optical-tweezers experiments.

137 ibe a single-molecule assay based on optical tweezers, fluorescence microscopy and microfluidics that

138 ing of complementary bis(pyridinium)xylylene tweezers, followed by kinetic trapping of the empty rece

139 guration also enables application of optical tweezers for controlled placement of atoms.

140 illustrates the potential of such plasmonic tweezers for further development in lab-on-a-chip device

141 Here, we present standing-wave Raman tweezers for stable trapping and sensitive characterizat

142 ds (EGBs, 500 mum in size and manipulated by tweezers) for AMACR coating.

143 Here we demonstrate a magnetic tweezers force spectroscopy assay that resolves the dyna

144 We use magnetic tweezers force spectroscopy to measure changes in extens

145 Using optical-tweezers force spectroscopy, we found that CS2 fimbriae

146 Optical tweezers has emerged as a powerful tool to study folding

147 cent development of high throughput magnetic tweezers has enabled the simultaneous observation of doz

148 sent the realization of holographic acoustic tweezers (HAT).

149 Similar to optical tweezers, acoustic tweezers have been proposed to be capable of manipulatin

150 nt in constructing a precision axial optical tweezers have been solved.

151 Optical tweezers have emerged as a powerful tool for the non-inv

152 Optical tweezers have revolutionized our understanding of the mi

153 Molecular tweezers have shown high potential as anti-aggregation a

154 Using laser tweezers, here, we have described two mechanical propert

155 cence of two droplets in holographic optical tweezers (HOT) and poke-and-flow experiments on particle

156 s was the development of holographic optical tweezers (HOT) which enabled the independent manipulatio

157 Holographic optical tweezers (HOTs) enable the ability to freely control the

158 The precision of magnetic tweezers, however, is limited by the magnetic hysteresis

159 icroscopy, electron microscopy, and magnetic tweezers in purified and plasma solutions.

160 ed clot architecture as analyzed by magnetic tweezers in purified systems and by thromboelastometry i

161 In order to adopt plasmonic optical tweezers in real-world applications, it is essential to

162 led to many applications involving "acoustic tweezers" in biology, chemistry, engineering, and medici

163 o demonstrate this, we use dual-trap optical tweezers, in combination with fluorescence microscopy, t

164 at cannot be measured with single-beam Raman tweezers, including individual single-walled carbon nano

165 Fluorescence-RBT (FluoRBT) combines magnetic tweezers, infrared evanescent scattering, and single-mol

166 oiled DNA using a standard dual-trap optical tweezers instrument.

167 Optical tweezers integrated with Raman spectroscopy allows analy

168 t immobilizing non-adherent cells by optical tweezers is sufficient to achieve optical resolution wel

169 orce spectroscopy techniques, namely optical tweezers, magnetic tweezers, and atomic force microscopy

170 principles and practical aspects of optical tweezers measurements and discuss recent advances in the

171 Here, we use single-molecule optical tweezers measurements to compare translocation of phage,

172 we use fluorescence microscopy and magnetic-tweezers measurements to resolve the process of DNA comp

173 By combining single-molecule optical tweezers measurements with a quantitative mfold-based mo

174 A dual optical tweezers method can hence be reliably used to assess RBC

175 We use optical tweezers microrheology and confocal microscopy to charac

176 We use optical tweezers microrheology and fluorescence microscopy to ap

177 pon oxidation were followed in situ by Raman tweezers microspectroscopy.

178 present a modular approach based on magnetic tweezers (MT) for highly multiplexed protein force spect

179 ic one-to-one engagement and a micromagnetic tweezers (muMT) that remotely controls the magnitude of

180 Using a combination of optical tweezers, mutagenesis, and chemical cross-linking, we sh

181 ingle-molecule fluorescence imaging magnetic tweezers nanoscopic approach.

182 Optoelectronic tweezers (OET) has advanced within the past decade to be

183 Optoelectronic tweezers (OET) or light-patterned dielectrophoresis (DEP

184 Optical tweezers offer precise control in the force range releva

185 Using optical tweezers (OT) and steered molecular dynamic simulations

186 ne atomic force microscopy (AFM) and optical tweezers (OT) experiments to show that high mobility gro

187 Optical tweezers (OTs) measure the force-dependent time-resolved

188 tion in a nematic liquid crystal using laser tweezers, particle tracking and optical imaging.

189 Our work expands the capabilities of optical tweezers platforms, and represents a new paradigm for ma

190 Molecular tweezers prevent formation of toxic protein assemblies,

191 ulation of individual molecules with optical tweezers provides a powerful means of interrogating the

192 urrent Raman-based instruments such as laser tweezers Raman spectroscopy and hyperspectral Raman imag

193 ential of the integrated holographic optical tweezers-Raman technique to induce deformations to indiv

194 The manipulation of proteins with optical tweezers requires attaching molecular handles to the pro

195 icrofluidics, digital bioassays, and optical tweezers, resulting in a powerful dynamic microwell arra

196 Raman optical tweezers (ROT) as a label-free technique plays an import

197 NA sequencing (scRNA-seq) with Raman optical tweezers (ROT), a label-free single-cell identification

198 Here we introduce Raman Tweezers (RTs), namely optical tweezers combined with Ra

199 e developed a novel temperature-jump optical tweezers setup that changes the temperature locally and

200 Using a dual-trap optical tweezers setup, we found the fusion speeds of four types

201 platform called Self-Locking Optoelectronic Tweezers (SLOT) are proposed and demonstrated to tackle

202 ingle-molecule picometer-resolution nanopore tweezers (SPRNT) to measure the kinetics of translocatio

203 ingle-molecule picometer-resolution nanopore tweezers (SPRNT), a single-molecule technique in which t

204 abetic retinopathy (DR) using a dual optical tweezers stretching technique.

205 use single-molecule fluorescence and optical tweezers studies to elucidate the role of AAA4 in dynein

206 s compared with the more established optical tweezers, such as higher trapping forces per unit input

207 Using an optical tweezers system, isolated mammalian chromosomes were hel

208 orce measurements in a compact fiber optical tweezers system.

209 ssembly requires a minimal number of optical tweezers that allow operations like chain elongation and

210 Here, using optical tweezers that can simultaneously resolve two-photon fluo

211 rbored unbranched C4 units, which engendered tweezers that were approximately one order of magnitude

212 zers, called opto-thermo-electrohydrodynamic tweezers, that enable the trapping and dynamic manipulat

213 ed in the experimental studies with magnetic tweezers, the force remains nearly constant after the in

214 ess this question by measuring, with optical tweezers, the real-time replication kinetics of the huma

215 sented in the context of single cells, laser tweezers, tissue sections, biopsies and whole animals.

216 We employed Raman tweezers to analyze the phage-host interaction of Staphy

217 r based detection, we used the fiber optical tweezers to apply a force on a cell membrane and simulta

218 reds of microns by using holographic optical tweezers to apply pN forces to microparticles embedded i

219 Using optical tweezers to apply tension to single mRNA molecules, mimi

220 Here we use magnetic tweezers to characterise the mechano-sensitive compact N

221 e temperature controlled system for magnetic tweezers to characterize the replication kinetics temper

222 n single DNA molecules twisted with magnetic tweezers to create plectonemes, the rates or pauses duri

223 sed on parallelized single molecule magnetic tweezers to detect the sequence selectivity and characte

224 To study this possibility, we used optical tweezers to determine and compare the structure and ener

225 We applied optical tweezers to directly measure single-molecule mechanical

226 Here, we have used magnetic tweezers to directly measure the DNA nicking and religat

227 rast to raster assembly that assigns optical tweezers to each particle, vector assembly requires a mi

228 s synthesis, we used high-resolution optical tweezers to follow in real time the co-transcriptional f

229 re, we address these questions using optical tweezers to follow translation by individual ribosomes a

230 cence resonance energy transfer with optical tweezers to measure human telomeric sequences under tens

231 We used optical tweezers to measure single DNA molecule elongation due t

232 Here, we used single-molecule optical tweezers to measure the assembly energy and kinetics of

233 w in mechanical drawing, here, we used laser tweezers to mechanically dissect high-order DNA structur

234 Here, we have used magnetic tweezers to monitor PcrA helicase unwinding and its rela

235 Using optical tweezers to perform microrheology measurements, we explo

236 Using magnetic tweezers to perturb the position of the spindle in intac

237 roofreading, we used high-resolution optical tweezers to probe how DNA-duplex stability affects repli

238 we used single-molecule studies with optical tweezers to probe the kinetics of DNA-phenanthriplatin b

239 We used magnetic tweezers to quantitatively investigate the impact of thr

240 Here we used optical tweezers to show that the free energy cost to form a tre

241 Here, we use optical tweezers to study how the holdase Hsp33 alters folding t

242 Here, we use dual trap optical tweezers to study single yeast RNA polymerase II (Pol II

243 Here, we used optical tweezers to study the folding behavior of individual NCS

244 Here, we introduce single-molecule magnetic tweezers to study the folding dynamics of protein L in p

245 re, the authors use single molecule magnetic tweezers to study the influence of chaperones on protein

246 Using both the TCR alpha- and beta-chains as tweezers to surround and grip the glucose moiety of GMM,

247 that polystyrene beads connected by optical tweezers to the ends of adherent filopodia of J774 macro

248 Here, we used high-resolution optical tweezers to track the path of single budding yeast kines

249 eveloped technique of single-beam acoustical tweezers to trap microbubbles, an important class of bio

250 photo-switchable cross-linkers as 'molecular tweezers' to monitor a series of inter-residue distances

251 ch combines force and urea using the optical tweezers, together with traditional protein unfolding st

252 Further examination with magnetic tweezers transcription experiments showed that RNAP adop

253 Acoustic structures shaped as tweezers, twisters or bottles emerge as the optimum mech

254 ng and unfolding of T4 lysozyme with optical tweezers under a chemo-mechanical perturbation by adding

255 Acoustic tweezers use sound radiation forces to manipulate matter

256 Optical tweezers use the momentum of photons to trap and manipul

257 A dual optical tweezers was made by splitting and recombining a single

258 A dramatic advancement in optical tweezers was the development of holographic optical twee

259 Using optical tweezers, we characterize the MT-binding strength of rec

260 Using optical tweezers, we demonstrate that arrest of SecM-stalled rib

261 Using optical tweezers, we find that isolated nuclei lacking inner nuc

262 Using optical tweezers, we found that the adhesion strength of a singl

263 Using single-molecule optical tweezers, we have defined the steps leading to fully fol

264 Using optical tweezers, we have dissected early folding events of nasc

265 Using mechanical unfolding in laser tweezers, we identified six DNA species in a cytosine (C

266 Using optical tweezers, we measure A3G binding a single, long ssDNA su

267 Using optical tweezers, we measure the rates of unwinding and rewindin

268 Using optical tweezers, we measured the diffusion coefficient of singl

269 le-stranded (ds) DNA in vitro Using magnetic tweezers, we measured the effects of ssRNA on force exte

270 Using mechanical unfolding assays in laser tweezers, we observed a minor population ( approximately

271 Using optical tweezers, we probe pre-TCR bonding with pMHC at the sing

272 Using magnetic tweezers, we show that the folding of BapA BIg domains r

273 roscopy, and force spectroscopy with optical tweezers, we show that these DNA variants have bending p

274 -molecule total internal reflection magnetic tweezers, we successfully manipulated the enzymatic conf

275 Here, using optical tweezers, we tested the dynamic physical interaction in

276 Using magnetic tweezers, we visualized real-time polymer growth at the

277 In this paper, optical tweezers were implemented on a digital microfluidic plat

278 In this study, optical tweezers were used as a single-molecule force transducer

279 as carried out by calibration of the optical tweezers when trapping microspheres with a diameter of 4

280 thout microbead handles) in the dual optical tweezers where they were observed to adopt a "side-on" o

281 Here we consider FRs in dual-trap optical tweezers where two different forces (one per trap) are m

282 Axial optical tweezers, which apply force to a surface-tethered molecu

283 se measurements were conducted using optical tweezers, which enabled high temporal and spatial resolu

284 patial position of a bead trapped in optical tweezers, which enables us to reconstruct its dynamical

285 two independent modules: holographic optical tweezers, which offer a versatile and precise way to mov

286 zable reactants, the OEEF itself will act as tweezers, which orient the reactants and drive their rea

287 gical techniques such as holographic optical tweezers, which rely on expensive equipment and high-pow

288 Here, we present 3D acoustic tweezers, which use surface acoustic waves to create 3D

289 ed on fast, real-time control of 100 optical tweezers, which we use to arrange atoms in desired geome

290 is stretched at its two ends (e.g., by laser tweezers), while epigenetic enzymes (writers) and chroma

291 thus unfolding forces by combining magnetic tweezers with atomic force microscopy.

292 tes and energy landscapes made using optical tweezers with estimates obtained from the same single-mo

293 ed a single-molecule assay combining optical tweezers with fluorescence to monitor binding to lambda-

294 contactless levitation with aerosol optical tweezers with isotopic exchange (D2O/H2O) to measure the

295 have developed an approach combining optical tweezers with light-sheet microscopy to probe the mechan

296 Optical tweezers with nanometer spatial and millisecond temporal

297 ary structures using high-resolution optical tweezers with single-molecule fluorescence capability.

298 Here, we used optical tweezers with single-molecule fluorescence to observe di

299 Here, we have combined lateral magnetic tweezers with TIRF microscopy to simultaneously control

300 NA hairpin molecule was monitored by optical tweezers within a yoctoliter volume.