ライフサイエンスコーパス: MEMS

1 MEMS accelerometers--found in most smart phones--can be

2 MEMS fabrication of acoustic wave based biosensors enabl

3 of a transgenic mouse through our compact 2D MEMS neural array (optrodes).

4 uired for optimum biosensor performance; (3) MEMS processing was used to fabricate suitably sized met

5 This paper presents a MEMS resonant pedestal sensor array fabricated over thro

6 We validate this approach using a MEMS-based chemiresistive microsensor array.

7 The broad implementation of such active MEMS has long been constrained by the inability to integ

8 tions compared 6MP intake by self-report and MEMS.

9 provided by traditional semiconductor-based MEMS.

10 The acoustic wave based MEMS devices reported in the literature as biosensors an

11 per presents a review of acoustic-wave based MEMS devices that offer a promising technology platform

12 In addition, because MEMS manufacturing techniques evolved from the microelec

13 we use gradient stiffness substrates, a bio-MEMS force sensor, and Coulter counter assays to study m

14 ized as a structural material for biological MEMS, a number of SU-8 properties limit its application

15 xpensive, electrochemical technique to build MEMS-like structures that contain several different meta

16 % or more of expected doses were recorded by MEMS.

17 Adherence may be underestimated by MEMS and overestimated by pill count and interview.

18 ios for a 10% increase in adherence for CAS, MEMS, pill count, and interview, respectively, were 1.26

19 Commercial MEMS fabrication processes are limited to silicon-based

20 Currently, MEMS fabrication techniques are primarily based on silic

21 thermally tuned and electrostatically driven MEMS arch resonator operated in air.

22 ngs indicate the great potential to use dual MEMS direction finding sensor assemblies to locate sound

23 Self-reported 6MP intake exceeded MEMS at least some of the time in 84% of patients.

24 The fibre MEMS functionality is enabled by an electrostrictive P(V

25 fine detail could be used for templates for MEMS (micro electro mechanical systems), or their silica

26 rdue University have developed an integrated MEMS-based system, which offers considerable advantages

27 Here, we describe a strategy to interface MEMS sensors with microfluidic platforms through an aero

28 nsors, human-silicon technology interfacing, MEMS, nanorobotics and energy sciences.

29 used for applications in photonic materials, MEMS, biomaterials and self-assembly.

30 ral adherence differed by adherence measure (MEMS, 0.63; pill count, 0.83; interview, 0.93; and CAS,

31 g development, and micro-electro-mechanical (MEMS)-based systems hold great promise to alleviate seve

32 Microelectromechanical (MEMS) and nanoelectromechanical systems (NEMS) are ideal

33 A narrowband MEMS direction finding sensor has been developed based o

34 ine nucleotide levels, and 6MP nonadherence (MEMS-based adherence <95%) associated with the overrepor

35 This paper presents a novel MEMS-based inertial microswitch design with multi-direct

36 used in fast parallel manufacturing of novel MEMS components, sensors, and optical and optoelectronic

37 In this study, we report on the discovery of MEMS functionality in fibres, thereby opening a path tow

38 ng, primarily because of the predominance of MEMS processes dedicated to single-crystal silicon, such

39 The use of MEMS devices provides an unprecedented control over the

40 lity of our instrument compared to any other MEMS device.

41 uded 550 patients implanted with a permanent MEMS-based pressure sensor in the pulmonary artery.

42 Composite adherence score, MEMS values, pill values, and interview values were stat

43 e Microbial Efficiency-Matrix Stabilization (MEMS) framework.

44 gh-precision micro-electromechanical system (MEMS).

45 ectric (PZ) micro-electro-mechanical system (MEMS).

46 with a CMOS micro-electro-mechanical-system (MEMS) microhotplate for humidity sensing.

47 he large-mass microelectromechanical system (MEMS) and optomechanical cavity have been proposed to re

48 we present a microelectromechanical system (MEMS) device with a sensitivity of 40 microgal per hertz

49 We used microelectronic monitoring system (MEMS) caps on participants' capecitabine bottles to reco

50 ing the Medication Events Monitoring System (MEMS) devices, and general glaucoma medication adherence

51 Medication Event Monitoring System (MEMS), pill count, and interview combined into a composi

52 itoring (Medication Event Monitoring System [MEMS]) and identify predictors of overreporting in a coh

53 ll caps (Medication Event Monitoring System [MEMS]) with correction for pocketed doses, analysed by i

54 e developed micro-electromechanical systems (MEMS) sensors, comparable to a single endothelial cell (

55 n array of micro-electro-mechanical systems (MEMS) resonant mass sensors that can be used to directly

56 ation of microelectrical-mechanical systems (MEMS).

57 ity [as in Micro Electro-Mechanical Systems (MEMS)].

58 hrough the micro-electro-mechanical-systems (MEMS) actuation.

59 ) based on Micro-Electro-Mechanical-Systems (MEMS) were designed to deliver spatial repellents that r

60 Microelectromechanical systems (MEMS) are the basis of many rapidly growing technologies

61 d autonomous microelectromechanical systems (MEMS) become distributed and smaller, there is an increa

62 Microelectromechanical systems (MEMS) enable many modern-day technologies, including act

63 Microelectromechanical systems (MEMS) have enabled the development of a new generation o

64 Microelectromechanical systems (MEMS) incorporating active piezoelectric layers offer in

65 The microelectromechanical systems (MEMS) mirror was designed based on the principle of para

66 Microelectromechanical systems (MEMS) resonant sensors provide a high degree of accuracy

67 equency (RF) microelectromechanical systems (MEMS) switch that involve optical and electrical functio

68 icated using microelectromechanical systems (MEMS) techniques.

69 ivo, we used microelectromechanical systems (MEMS) technology to generate arrays of microtissues cons

70 ponents into microelectromechanical systems (MEMS), and implantable devices will need to be built fro

71 es, sensors, microelectromechanical systems (MEMS), human-computer interfacing, nanorobotics, and tou

72 e for use in microelectromechanical systems (MEMS), logic elements, and environmental energy harvesti

73 of titanium microelectromechanical systems (MEMS).

74 Using a microelectromechanical-systems (MEMS) platform, stress-strain response curves up to fail

75 ation using Micro-Electro-Mechanical Systems(MEMS) technology for high throughput chemical or biologi

76 rds flexible, high-aspect ratio, and textile MEMS.

77 "overreporters" (self-report was higher than MEMS by >/=5 days/month for >/=50% of study months), and

78 The MEMS inertial microswitch micro-fabricated by surface mi

79 -fibre thermal drawing process, in which the MEMS architecture and materials are embedded into a pref

80 The method used for generating these MEMS fibres leverages a preform-to-fibre thermal drawing

81 The small size and low cost of this MEMS gravimeter suggests many applications in gravity ma

82 rocess permits the creation of bulk titanium MEMS, which offers potential for the use of a set of mat

83 k acoustic resonator (FBAR) is a widely-used MEMS device which can be used as a filter, or as a gravi

84 ter) fabricated on a silicon substrate using MEMS (microelectromechanical systems) microfabrication t

85 The variable MEMS capacitive device is able to detect and forecast bl

86 res for microfluidic cooling of chips, vias, MEMS, photovoltaic applications and photonic devices tha

87 Methods of integration of the acoustic wave MEMS devices in the microfluidic systems and functionali

88 "perfect reporters" (self-report agreed with MEMS), "overreporters" (self-report was higher than MEMS

89 sesses advantages of high compatibility with MEMS and can be applied to other nanothermite systems ea

90 and on-chip uses that can be integrated with MEMS or CMOS in a single chip.

91 the integration of spray microfluidics with MEMS.