コーパス検索結果 (１語後でソート)
通し番号をクリックするとPubMedの該当ページを表示します
1 tude lower than the frequency of the driving acoustic wave.
2 f magnitude smaller than that of the driving acoustic wave.
3 , is controlled by a radio frequency surface acoustic wave.
4 t to transient or continuous perturbation by acoustic waves.
5 heory applies equally to electromagnetic and acoustic waves.
6 ubstrate foil surface due to laser-generated acoustic waves.
7 icinity of the observer, and transduced into acoustic waves.
8 rk provides a different way for manipulating acoustic waves.
9 ur method uses tilted-angle standing surface acoustic waves.
10 has been demonstrated in electromagnetic and acoustic waves.
11 iate and cavitate bubbles in the presence of acoustic waves.
12 g the electrode geometry, we determined that acoustic waves alone are not responsible for poration of
14 e principles and different configurations of acoustic wave and acoustic streaming for the manipulatio
17 modes induced by the evanescent guided Lamb acoustic waves and remained Landau undamped due to fermi
18 itous at interfaces with optical, seismic or acoustic waves, and also with electron, neutron or atom
19 o far one of the very few examples of a bulk acoustic wave aptasensor that is able to directly detect
20 nals in 3D space because the X-ray generated acoustic waves are of a spherical nature and propagate i
21 ng pulsed piezoelectric transducer-generated acoustic waves at the surface of a liquid, resulting in
27 coustic waves in the system relative to bulk acoustic wave (BAW)-based actuation, which suppresses Ra
28 ted by the narrow-frequency bandwidth of the acoustic waves because of the large attenuation for high
29 henomena: highly nonlinear distortion of the acoustic wave before it hits the droplet and focusing of
30 evidence for the hydrodynamic nature of the acoustic wave/biomolecule interaction at a solid/liquid
31 st label-free real-time ultra-high frequency acoustic wave biosensor prototype capable of detecting t
32 and microfluidics are easily constructed for acoustic wave biosensors, such as the Love wave device d
34 it is piezoelectrically coupled to a surface acoustic wave cavity, realising circuit quantum acoustod
35 ng such a zero-index medium, we demonstrated acoustic wave collimation emitted from a point source.
40 hese include: Bulk Acoustic Wave and Surface Acoustic Wave devices, micro- and nano-cantilever sensor
42 g oscillations well below the frequencies of acoustic waves, down to much longer periods typical of g
44 ieve real-time control of a standing surface acoustic wave field, which enables flexible manipulation
45 e functionalities at these frequencies, e.g. acoustic wave filtering, that are currently in widesprea
48 plying shear waves to the liver, a pneumatic acoustic wave generator was developed and tested by usin
49 rformance of guided shear horizontal surface acoustic wave (guided SH-SAW) devices on LiTaO3 substrat
51 tics concerns operations with high-frequency acoustic waves in solid media in a similar way to how tr
52 AW-based excitation generates high-frequency acoustic waves in the system relative to bulk acoustic w
54 itive readout, we use this to demonstrate an acoustic wave interference effect, similar to atomic coh
55 A microstructured pillar is used to couple acoustic waves into the fluid channel for noncontact par
57 of quartz, a temperature-compensated surface acoustic wave is generated via an interdigital transduce
58 ing unidirectional transmission property for acoustic waves is extremely desirable in many practical
59 lower part of the MT film, penetrated by the acoustic wave, is able to detect a pronounced cationic d
60 metasurface could enable a new degree of the acoustic wave manipulating and be applied in the functio
61 as versatile platforms for various advanced acoustic wave manipulation and signal modulation, leadin
65 single electron may be captured in a surface acoustic wave minimum and transferred from one quantum d
69 anisotropies in longitudinal and transverse acoustic waves occur, especially along the [110] directi
70 ed by a Gunn diode oscillator, with coherent acoustic waves of frequency ~100 GHz, generated by pulse
73 highly efficient overlap between optical and acoustic waves over an imaging depth of >6 mm in D2O med
74 uidic channel using shear-horizontal surface acoustic waves, producing an array of virtual electrodes
75 can be detected by monitoring changes in the acoustic wave properties such as velocity, attenuation,
77 We study the effect of a propagating surface acoustic wave (PSAW) with different frequencies on parti
78 for numerous applications including surface acoustic wave radio frequencies devices and integrated o
79 -mean-square (RMS) phase noise by minimizing acoustic wave reflections from electrode edges, thus ena
80 on of the acoustic waveform near the surface acoustic wave resonance frequency of the levitated drop
83 d directly by use of higher harmonics of the acoustic wave resonator and indirectly via temperature.
84 rimentally demonstrate a high-frequency bulk acoustic wave resonator that is strongly coupled to a su
86 s and presented in this review are film bulk acoustic wave resonators (FBAR), surface acoustic waves
89 s propagates through a thin metal foil as an acoustic wave, resulting in desorption of neutral molecu
91 re diagnostic device which harnesses surface acoustic wave (SAW) biochips, to detect HIV in a finger
93 We describe the fabrication of a surface acoustic wave (SAW) device on a LiNbO(3) piezoelectric t
96 ectra of specifically functionalized surface acoustic wave (SAW) devices concurrently with analyte ex
101 ection of odorant molecules based on surface acoustic wave (SAW) resonators coated with odorant-bindi
105 104 MHz lithium tantalate (LiTaO(3)) surface acoustic wave (SAW) sensor have been used to investigate
106 rs collected from six polymer-coated surface acoustic wave (SAW) sensors were used in Monte Carlo sim
108 f combining molecular imprinting and surface acoustic wave (SAW) technologies for the selective and l
109 energy relationships (LSERs) and the surface acoustic wave (SAW) transducers being mass sensitive.
111 trate that the propagation path of a surface acoustic wave (SAW), excited with an interdigitated tran
114 e introduce highly focused traveling surface acoustic waves (SAW) at high frequencies between 193 and
115 ulk acoustic wave resonators (FBAR), surface acoustic waves (SAW) resonators and SAW delay lines.
116 We exploit the mechanical action of surface acoustic waves (SAW) to differentially lyse human cancer
120 It has recently been shown that surface acoustic waves (SAWs) can be piezoelectrically coupled t
124 man blood plasma, using ultra-high frequency acoustic wave sensing in combination with ultrathin, oli
126 ast gas-chromatograph coupled with a surface acoustic wave sensor (UFGC-SAW) was also used to monitor
128 Results showed that the sensitivity of the acoustic wave sensor can be improved by simply increasin
129 sing polymer-guided shear horizontal surface acoustic wave sensor platforms on 36 degrees rotated Y-c
130 s) to amplify the mass loading effect of the acoustic wave sensor to achieve a limit of detection of
131 escribe the development and evaluation of an acoustic wave sensor, the quartz crystal microbalance (Q
135 an array of 6 diverse polymer-coated surface acoustic wave sensors are used to illustrate the approac
136 n integrated array of polymer-coated surface acoustic wave sensors configured and tested similarly.
137 s suggest that DNA conformation probing with acoustic wave sensors is a much more improved detection
138 ity to fabricate Love wave and other surface acoustic wave sensors using planar metallization technol
140 The system uses shear-horizontal surface acoustic wave (SH-SAW) sensors operating directly in the
141 es this need, using shear horizontal surface acoustic wave (SH-SAW) sensors, which function effective
142 In this study, a shear horizontal surface acoustic wave (SHSAW) was used for the detection of food
144 n this article, we report a standing surface acoustic wave (SSAW)-based cell coculture platform.
145 e short bursts (150 mus) of standing surface acoustic waves (SSAW) triggered by an electronic feedbac
148 nfiguration of tilted-angle standing surface acoustic waves (taSSAW), which are oriented at an optima
151 asic concepts remain the same: to produce an acoustic wave that can be focused at a specific location
152 to demonstrate a novel type of leaky-guided acoustic wave that couples simultaneously to two indepen
153 gh the piezo-electric effect, which produces acoustic waves that are routed and coupled to the optome
155 sent 3D acoustic tweezers, which use surface acoustic waves to create 3D trapping nodes for the captu
156 stage, it can also be accomplished by using acoustic waves to deflect the laser beam in a manner tha
158 e we demonstrate microwave frequency surface acoustic wave transducers co-integrated with nanophotoni
159 ngle-crystal samples of periclase (MgO) from acoustic wave travel times was measured with ultrasonic
164 e of an array of four polymer-coated surface acoustic wave vapor sensors was explored using calibrate
166 ) as models of responses from polymer-coated acoustic-wave vapor sensors are critically examined.
167 t, these ultrasonic metamaterials can convey acoustic waves with a group velocity antiparallel to pha
WebLSDに未収録の専門用語（用法）は "新規対訳" から投稿できます。