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1 ry, design, and construction of this kind of micromachine.
2 roposed as a paradigm for the development of micromachines.
3 or iterative multiphoton microscopy and opto-micromachining.
4 nsity on graphene films by femtosecond laser micromachining.
5 compatible fabrication process based on bulk micromachining.
6 a load sensor fabricated by means of surface micromachining.
7                                      We have micromachined a silicon-chip device that transports DNA
8              To obtain pH sensitivity, laser micromachining (ablation) is utilized to introduce contr
9 ipulation, colloid research, manipulation of micromachines and studies of the properties of light bea
10 spects, among which are quantum information, micromachining and diagnostic tools.
11 sampling probe microfabricated in Si by bulk micromachining and lithography.
12 c hysteresis plasma switch made from silicon micromachining, and implemented in a two-stage efficient
13 as been realized as an advantageous tool for micromachining, and the feasibility of employing it for
14                                Using a laser micromachining approach, the required electrode(s) geome
15                          Functional compound micromachines are fabricated by a design methodology usi
16 ction in the diameter of the orifices of the micromachined arrays led to an additional signal gain of
17     We characterize the performance of these micromachined BNGs by ion imaging in a pseudorandom time
18 complished by the mitotic spindle, a bipolar micromachine built primarily from microtubules.
19 rylate thermoset polymer substrate, and were micromachined by standard MEMS processes.
20                                      Lamella micromachining by focused ion beam milling at cryogenic
21 d at the rim of the channel during CO2 laser micromachining by passing the laser beam through a stain
22                                      Silicon micromachined calorimeters ("calorimeter on a chip") are
23 s a promising approach to the fabrication of micromachined calorimetric gas sensors for combustible g
24                This paper shows that in situ micromachining can be used to simultaneously position an
25 of the MEMS devices, silicon dioxide surface-micromachined cantilever arrays and zinc oxide surface-m
26 an agarose bead detachment from the tip of a micromachined cantilever resulting from BoNT-B action on
27 nts inside an AC, leading to the assembly of micromachines capable of sensing and responding to chang
28 ntages of a diamond electrode detector for a micromachined capillary electrophoresis (CE) system are
29                                            A micromachined capillary electrophoresis chip is describe
30  agent compounds, based on the coupling of a micromachined capillary electrophoresis chip with a thic
31 ining microbeads are selectively arranged in micromachined cavities localized on silicon wafers.
32 The microspheres are selectively arranged in micromachined cavities localized on silicon wafers.
33                                            A micromachined chemical amplifier was successfully used t
34  detector combines a separation column and a micromachined chemoresistive gas sensor fully integrated
35 e been immobilized on beads, introduced into micromachined chips on the electronic tongue sensor arra
36                             Silica-sputtered micromachined columns showed promising separations of li
37          For this purpose, an adapted set of micromachined columns was filled with 10 mum calibrated
38  forms a spindle, a precise self-constructed micromachine composed of microtubules and the associated
39 dex changes were preserved after storing the micromachined corneas and lenses for 1 month.
40                                 This type of micromachine could provide a generic pump or separation
41 duce dynamically autofocused 3D pulsed laser micromachining (d-3DPLM) using a nanosecond pulsed near-
42 l cells have the potential to be designed as micromachines deployed in a host of clinical and industr
43                    On the ventral surface, a micromachined device revealed that traction forces were
44 orces generated by fibroblasts using a novel micromachined device that is capable of determining the
45                The poly(methyl methacrylate) micromachined device was fabricated using X-ray lithogra
46      The separation approach is coupled to a micromachined differential mobility detector to enhance
47 ogy that involves detection via a sensitive, micromachined differential mobility spectrometer (microD
48  microextraction (SPME) and analyzed using a micromachined differential mobility spectrometer with a
49 ion, cost-effective fabrication via advanced micromachining, easier assembly, biocompatibility, pain-
50 such as microfabrication, 3D printing, laser micromachining, electrospinning, screen printing, inkjet
51 microanalytical subsystem comprising silicon-micromachined first- and second-dimension separation col
52  detection in CE microchip systems and other micromachined flow analyzers.
53                                              Micromachined fluid-filled variable impedance waveguides
54 c media; these utilized techniques including micromachining, focused ion beam milling, two-photon pol
55 ely heated, temperature-programmable silicon micromachined gas chromatograph that employs a standard
56 ew stationary phase deposition technique for micromachined gas chromatography columns was presented.
57 have been produced by bonding 10-cm-diameter micromachined glass wafers to form a glass sandwich stru
58 tial microswitch micro-fabricated by surface micromachining has been evaluated using the drop hammer
59                                 In addition, micromachining has been used to construct picolitre-scal
60       Planar electrochemical microcells were micromachined in a microcrystalline boron-doped diamond
61 ilters realized from small resonant cavities micromachined in thin films of Yttrium Iron Garnet.
62 ications for synthetic cells as programmable micromachines in biomedicine and biotechnology.
63  systems suggest great potential for complex micromachines in the future, for application in microrob
64 ompetitive assay are carried out in channels micromachined into fused silica substrates.
65             Solvent and reagent filters were micromachined into quartz wafers using deep reactive ion
66 and micrometre-scale features have been bulk micromachined into titanium substrates of various thickn
67                                          The micromachined IREs are shown to outperform a 25 mm radiu
68        Cryogenic focused ion beam (cryo-FIB) micromachining is used to prepare a thin lamella-shaped
69 nductor under mechanical stress, while laser micromachining manufactures flexible, serpentine pattern
70 up to 28 orders of parametric resonance in a micromachined membrane resonator when electrically undam
71                                We describe a micromachining method for making monolithic BNGs using d
72 que hybrid fabrication scheme based on laser micromachining, microfabrication, and transfer printing
73                                  The silicon micromachined microHP arrays contain heating elements (1
74    This paper describes the fabrication of a micromachined miniaturized array of chambers in a 2-mm-t
75                                      The new micromachine-MIP-based target isolation strategy can be
76                               An implantable micromachined multi-electrode array (MEA) microprobe mod
77            Consequently, we have developed a micromachined nanocalorimetric biological sensor using a
78                            Photolithographic micromachining of silicon is a candidate technology for
79 s have permitted the highly anisotropic bulk micromachining of titanium microelectromechanical system
80 , (2) an array of pyramidally shaped nozzles micromachined on a silicon wafer, and (3) a spacer which
81 m(2) and a spacing of 200 microm, which were micromachined on a single 3mm long micro-needle having a
82 aser engravers/cutters, the use of CO2 laser micromachining on poly(methyl methacrylate) (PMMA) has t
83 n miniature soft actuators, and light-fueled micromachines operating in an environment resembling bio
84 m (cryo-FIB) milling has been used to carve (micromachining) out 100-250-nm-thin regions (called lame
85 ing chromatographic experiments on 4 cm long micromachined packed bed columns filled with radially el
86 ting possibilities for applications in laser micromachining, particle micromanipulation, and optical
87 100-fs pulse duration at 80 MHz were used to micromachine phase gratings into each corneal wedge at s
88 opment of chemical sensors utilizing silicon micromachined physical transducers with integrated piezo
89 nd entrapment of single polymeric spheres in micromachined pits while providing to each bead the rapi
90                                            A micromachined plasma chip is coupled to a conventional g
91  SnO2 NRs and their integration with silicon micromachined platforms, but also allows for in-situ fun
92 ilayer column) in a series of interconnected micromachined pockets.
93 on the basis of specific application in bulk micromachining, primarily because of the predominance of
94                           The integration of micromachining process and nanofabrication process endue
95                                            A micromachining process is described for fabricating a ma
96               Conventional photolithographic micromachining processes are typically used to construct
97 on techniques are primarily based on silicon micromachining processes, resulting in rigid and low asp
98 e capillary tube without any need of special micromachining processes.
99  lamellae generated by cryo-focused ion beam micromachining provides insights into the ultrastructura
100              Refractive index changes in the micromachined regions were calculated immediately and af
101             Refractive index (RI) changes in micromachined regions were measured immediately by recor
102               The overall performance of the micromachined resonators is demonstrated for the example
103 ion of technical advances in microchemistry, micromachining, separation technologies, detection syste
104 rane was sandwiched between two chips having micromachined serpentine channels.
105 lsed laser ablation in both the clinical and micromachining setting is the uncertainty regarding the
106 ry robust boron-doped diamond deposited on a micromachined Si wafer, which provides extended mid-IR t
107                                        Thin, micromachined Si wafers, designed as internal reflection
108 micromachined-Si focuser for injection, dual micromachined-Si columns for separation, and an integrat
109 igh-volume sampler of conventional design, a micromachined-Si focuser for injection, dual micromachin
110                                 We present a micromachined silicon attenuated total reflection-infrar
111 array of individually addressable sites on a micromachined silicon chip.
112 e demonstrate the Casimir effect between two micromachined silicon components on the same substrate.
113 leneglycol monohexadecyl ether (C16EO8) onto micromachined silicon hotplate structures.
114                                   By using a micromachined silicon substrate with moving parts, we de
115  fabricated by imprinting or molding using a micromachined silicon template as the stamping tool.
116 onlinear saturation phenomenon on a compound micromachined structure of U-shape (micro portal frame).
117                                         Bulk micromachined structures are generally free of residual
118          We demonstrate that the adhesion of micromachined surfaces is in a regime not considered by
119 e size created by most entry-level CO2 laser micromachining systems is too large to become a function
120                                              Micromachines take the micromotor concept a step further
121 ricated platform was constructed using laser micromachining techniques for the rapid fractionation an
122     The device is manufactured using silicon micromachining techniques, and we have conducted acute r
123                                        Using micromachining techniques, we fabricate both 2-pole and
124 ems was made possible through utilization of micromachining technologies.
125    The coupling of screen-printing and laser micromachining technology has been used to create a nano
126               The chamber was prepared by 3D micromachining technology utilizing deep reactive ion et
127               The chamber was prepared by 3D micromachining technology utilizing deep reactive ion et
128 SonoTransformer," the acoustically activated micromachine that delivers shape transformability using
129                             Microsensors and micromachines that are capable of self-propulsion throug
130 ggered delivery systems are based on complex micromachines that are controlled with electromagnetic w
131 's engineering frontier, building artificial micromachines that emulate the biological machinery of l
132 hemical stimuli can be used to build dynamic micromachines that lie at the interface between biologic
133 re we introduce light-driven micromotors and micromachines that rely on optoelectronic tweezers (OET)
134 thography is an alternative to silicon-based micromachining that uses replica molding of nontradition
135 d-dimension separation columns and a silicon-micromachined thermal modulator (muTM) for comprehensive
136 ct in microelectromechanical systems using a micromachined torsional device.
137  source for mass spectrometry named array of micromachined ultrasonic electrosprays (AMUSE) is presen
138 nics, including piezoelectric and capacitive micromachined ultrasonic transducer (i.e., pMUT and cMUT
139 udy proposes a silicon nanocolumn capacitive micromachined ultrasonic transducer (snCMUT) array for r
140  based on Lithium Niobate (LN) Piezoelectric Micromachined Ultrasonic Transducers (pMUTs).
141      We manufactured and tested a capacitive micromachined ultrasound transducer (CMUT)-based sensor
142 a fully-encapsulated, flexible piezoelectric micromachined ultrasound transducer that incorporates a
143 distance, and hexagonal unit cell pattern is micromachined using a combination of state-of-the-art mi
144 onal (3D) photonic crystals--such as silicon micromachining, wafer fusion bonding, holographic lithog
145 visioned that thousands and millions of such micromachines will swarm and communicate with each other
146  torque for the transformation of the entire micromachine within milliseconds.

 
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