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1 f nerve agents, were detected using a SiO(2) microcantilever.
2 detected by monitoring the deflection of the microcantilever.
3 inguish among eight Salmonella serovars on a microcantilever.
4 ls by using infrared (IR)-sensitive hydrogel microcantilevers.
5 and cardiac microtissues constrained between microcantilevers.
6 actuation of arrays of 3D microtissues using microcantilevers.
7 suring animal stiffness using piezoresistive microcantilevers.
8 c supported bilayer were also observed using microcantilevers.
9                                  Gold coated microcantilever, 250 microm long and 50 microm wide, wit
10                   The peptide-functionalized microcantilever allowed efficient capture and detection
11 ick monolayers on substrates such as silicon microcantilevers and elastomer sheets, creating bio-hybr
12 ties and structure, we deform capsules using microcantilevers and use finite element modeling to desc
13 ations of the noise-driven deflection of the microcantilever, and a model for the power spectral dens
14            Here, we introduce a genome-scale microcantilever- and RNAi-based approach to phenotype th
15                                   This novel microcantilever aptasensor has potential for development
16 thylene glycol) diacrylate (PEG-DA) hydrogel microcantilevers are fabricated by ultraviolet (UV) curi
17  phase-contrast images in liquids using soft microcantilevers are often maps of short-range conservat
18            Within each well, two elastomeric microcantilevers are situated above a circumferential ra
19 dard, packed-column gas chromatograph with a microcantilever array (MCA) is demonstrated for enhanced
20  comprises a microfluidic spray nozzle and a microcantilever array operated in dynamic mode within a
21                                            A microcantilever array sensor with cantilevers differenti
22 se of a peptide moiety in conjunction with a microcantilever array system to selectively detect CTCs
23                                              Microcantilever arrays are driven by a piezoelectric ele
24 were also performed before and after dipping microcantilever arrays into a static B. subtilis solutio
25 as obtained by subsequent examination of the microcantilever arrays under a dark-field microscope.
26 chnique readily lends itself to formation of microcantilever arrays, what has remained unclear is the
27 ease in frequency for binding-peptide-coated microcantilevers as compared to that for control peptide
28                                            A microcantilever based method for fluid viscosity and mas
29 luids is required for optimal performance of microcantilever-based biosensors.
30 ilevers could potentially be used to prepare microcantilever-based chemical and biological sensors wh
31                                         This microcantilever-based DNA sensor offers a detection sens
32  (PCR) of cholera toxin gene, ctxA gene, and microcantilever-based DNA sensor to improve the sensitiv
33                  With a simple and versatile microcantilever-based force measurement technique, we ha
34  of DNA mismatches using an elegantly simple microcantilever-based optical deflection assay, without
35                          Herein, we report a microcantilever-based optical detection of SARS-CoV-2 an
36                                              Microcantilever-based sensors comprise an emerging class
37   Combined with phage-derived peptides, this microcantilever-based technique provides a novel biosens
38 molecular binding occurs on one surface of a microcantilever beam, intermolecular nanomechanics bend
39 ucleotides that are grafted on one side of a microcantilever beam.
40                         An array of flexible microcantilever beams, each coated on one side with a mo
41           We report the use of free-standing microcantilever beams, which have been used as an ultras
42 e have gained a great amount of knowledge in microcantilever bending due to surface stress changes, w
43 onto the surface of the microcantilever, the microcantilever bends due to the induced compressive or
44                               Therefore, the microcantilever biosensing technique provides a potentia
45                                          The microcantilever biosensor was approved for the detection
46  an electrical detection of a piezoresistive microcantilever biosensor.
47 ification of the hydration induced stress on microcantilever biosensors functionalized with oligonucl
48    The results of the present piezoresistive microcantilever biosensors showed a solid correlation of
49       This label-free, electrically measured microcantilever can be miniaturized in order to be porta
50              Dynamic responses of the PEG-DA microcantilever can be obtained in a range of IR wavelen
51 te that properly designed and functionalized microcantilevers can be used to construct economical, fa
52 sensing technologies such as SAW devices and microcantilevers can compete with state-of-the art devic
53 chanical sensor based on the deflection of a microcantilever capable of detecting the SARS-CoV-2 spik
54            The peptide-ligand-functionalized microcantilever chip was mounted onto a fluid cell fille
55 ssembled monolayer was prepared on a silicon microcantilever coated with a thin layer of gold on one
56 race amounts of Hg2+ are detected by using a microcantilever coated with gold.
57                         Such hydrogel-coated microcantilevers could potentially be used to prepare mi
58                                          The microcantilever deflection as a function of the concentr
59                                          The microcantilever deflection increased as the concentratio
60 ction-induced bending and the correlation of microcantilever deflection with the HF concentration are
61 ate (PETN), located 4 m away from the PEG-DA microcantilever detector.
62                                              Microcantilever devices with aptamers as recognition ele
63          The resonance frequency of a PEG-DA microcantilever exhibits high thermal sensitivity due to
64                     This new method of using microcantilevers for detecting and quantifying the surfa
65 tetraalkylammonium salts were used to modify microcantilevers for measurements of the concentration o
66 o stretch/unstretch actuations, as probed by microcantilever force sensors, was dominated by cellular
67                                    A sensing microcantilever, functionalized with a breast cancer spe
68             During the past decade, however, microcantilevers have been increasingly used as transduc
69                             The dual-channel microcantilevers have demonstrated much superior sensing
70                           We report on novel microcantilever heater sensors with separate AlGaN/GaN h
71  simultaneous operation of an array of these microcantilever heaters in multiple sensing modalities.
72 ctor of a dynamically driven, polymer-coated microcantilever in a viscous liquid medium have been obt
73 MC), we observe a compressive bending of the microcantilever, indicating adsorption to the SLB.
74                          Overall, the PEG-DA microcantilever is a promising candidate for further exp
75  expensive, compact methodology that employs microcantilever (MC) arrays for sensitive nanomechanical
76                         Novel nanostructured microcantilever (MC) surfaces were developed by modifyin
77 e demonstrate the use of a sensitive silicon microcantilever (MC) system with a porous silicon oxide
78                         We report the use of microcantilevers (MCs) for the detection of three retino
79                            Nanomechanical Si microcantilevers (MCs) functionalized by a film of tetra
80  monolayers (SAMs) functionalized on silicon microcantilevers (MCs) with gold nanostructured surfaces
81 es caused when common proteins interact with microcantilevers (MCs) with nanostructured (roughened) g
82 detection of trace amounts of CrO4(2-) using microcantilevers modified with a self-assembled monolaye
83                                              Microcantilevers modified with a self-assembled monolaye
84           As an example, we report here that microcantilevers of different geometries have been used
85 ystal microbalance, atomic force microscope, microcantilever, or other tools that measure the concent
86 erogeneous immunoassay at an allergen-coated microcantilever platform.
87 reports on the development of piezoresistive microcantilevers (PMCs) to investigate their potential u
88 d as a biorecognition element coupled to the microcantilever probe from atomic force microscope thus
89 oscopy (dAFM) in liquids where low-stiffness microcantilever probes are often used for nanoscale imag
90          By monitoring the deflection of the microcantilevers, real-time free energy changes in the S
91 of the work is devoted to show the effect on microcantilever resonance frequency of the composition o
92                            Our tool based on microcantilever resonator arrays has shown to be capable
93             We show the feasibility of using microcantilever resonator arrays to effectively identify
94 low concentrations of multiple mycotoxins by microcantilever resonator arrays.
95 xin detection, based on antibody-immobilized microcantilever resonators, a promising label free biose
96 a-estradiol in serum by antibody-immobilized microcantilever resonators, an innovative biosensing pla
97  acid derivative, gold-coated piezoresistive microcantilevers responsive to analytes having vicinal c
98 zed semiconductor manufacturing process, the microcantilever sensing platform can serve as a portable
99  that the nanomechanical fluctuations of the microcantilever sensor are sensitive enough to detect th
100               We report a novel enzyme-based microcantilever sensor by using layer-by-layer nanoassem
101  Systems (CMOS-BioMEMS) based piezoresistive microcantilever sensor for detecting gentamicin, a perit
102                The developed highly specific microcantilever sensor has a response time of approximat
103        The CMOS-BioMEMS-based piezoresistive microcantilever sensor has been demonstrated to have gre
104                          The membrane-coated microcantilever sensor is capable of characterizing the
105                                          The microcantilever sensor operated in fluctuation mode was
106                                              Microcantilever sensor technology has been steadily grow
107          A differential interferometer-based microcantilever sensor was developed with the aptamer as
108 echanical fluctuation based highly sensitive microcantilever sensor, which is capable of characterizi
109     We will also discuss our perspectives on microcantilever sensors based on surface stress changes.
110 s in the liquid stream on the performance of microcantilever sensors operated in both deflection and
111  charged metal cations to the surface of the microcantilever sensors produces surface stress that cau
112          In this paper we explore the use of microcantilever sensors to quantify surfactants' effects
113 tress changes, which is a unique property of microcantilever sensors, we are still in the early stage
114 s: solid-supported lipid bilayers (SLBs) and microcantilever sensors.
115 sequently the sensitivity and reliability of microcantilever sensors.
116  surface chemistries of surface-stress-based microcantilever sensors.
117                                              Microcantilever stress measurements are examined to cont
118 tigens were first grafted on the gold-coated microcantilever surface pre-functionalized with EDC-NHS
119                     When immobilized on gold microcantilever surface, the cyclic peptide was able to
120 rating a thin film of the MOF HKUST-1 with a microcantilever surface.
121 mobilization of glucose oxidase (GOx) onto a microcantilever surface.
122 ned multivalent minibinders immobilized on a microcantilever surface.
123 niformly through picoliter droplets onto the microcantilever surface; the micrometer-scale drops evap
124 ox properties, providing the regeneration of microcantilever surfaces and allowing their reuse for fu
125 ress, which is caused by interactions on the microcantilever surfaces, would improve the S/N ratio an
126 h and nanostructured (dealloyed) gold-coated microcantilever surfaces.
127 s of thiolated biomolecules (such as DNA) on microcantilever surfaces.
128                                            A microcantilever technique was used to apply force to rec
129                               Here, with the microcantilever technique, where latex beads affixed on
130 ction field effect transistor-integrated GaN microcantilever that utilizes piezoelectric polarization
131 ave incorporated these heterostructures into microcantilevers that are actuated with extremely low dr
132          Here we introduce ion beam-sculpted microcantilevers that enable precise force-feedback-cont
133 of DNA self-assembled monolayers anchored to microcantilevers that occur as a consequence of the hybr
134  As molecules adsorb onto the surface of the microcantilever, the microcantilever bends due to the in
135 ce coated with target chemical onto a PEG-DA microcantilever, the resonance frequency of the cantilev
136                     Coupled with a reference microcantilever, this approach enables detection of acti
137                                       First, microcantilever tips are streamlined using long-carbon t
138 ential ramp, self-organizes around tip-gated microcantilevers to form contracting CaMiRi.
139             We report the use of an array of microcantilevers to measure the specific binding of Salm
140   We report the use of lipid membrane-coated microcantilevers to probe the interactions between phosp
141 yl] diethylenetriamine (DETA) and fabricated microcantilevers to promote the differentiation of disso
142                                        These microcantilevers undergo bending deflection upon exposur
143                    The enzyme-functionalized microcantilever undergoes bending due to a change in sur
144                                          The microcantilever undergoes bending due to accumulation of
145                                          The microcantilever undergoes bending due to sorption of CrO
146                                          The microcantilever underwent bending due to the reaction of
147       A glucose oxidase (GOx) functionalized microcantilever underwent bending when it was exposed to
148 gitally controlled and parametrically pumped microcantilever used for sensing in a Phase-Locked Loop
149 epared on the silicon dioxide surface of the microcantilevers using a vesicle fusion method.
150 urface functionalization or treatment, these microcantilevers utilize the strong surface polarization
151                Experiments with a commercial microcantilever validate the model, but also reveal an i
152  The anchor design principle was extended to microcantilevers via finite element simulations, which c
153 of detection for PETN trace using the PEG-DA microcantilever was 40 ng/cm(2).
154              The miniaturized piezoresistive microcantilever was fabricated by micro-electro-mechanic
155                                              Microcantilevers were used to simultaneously constrain t
156                                       We use microcantilevers which are coated with lipid membranes t
157 tte to form an adhesive contact with a glass microcantilever, which gave a measure of the tethering f
158 d be improved by coating the gold surface of microcantilever with a self-assembled monolayer of a lon
159                           Here, a bimaterial microcantilever with an embedded microfluidic channel wi
160 SMRs) are highly sensitive, batch-fabricated microcantilevers with embedded microchannels that can di
161                    After functionalizing the microcantilevers with two broadly cross-reactive monoclo
162 NNVs with functionalized AMPs onto a sensing microcantilever yielded induced surface stresses, indica

 
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