ライフサイエンスコーパス: device design

1 evelopment, and nucleic acid based biosensor device design.

2 the electric fields and fluid flow to guide device design.

3 mbrane, and the implications for biology and device design.

4 perties via substrate engineering for future device design.

5 e-scale high-quality vertical light emitting device design.

6 unction width, providing guidance for future device design.

7 inclusion of an acoustic transition layer in device design.

8 in recent times has opened up new avenues in device design.

9 this is due to inadequate training, or poor device design.

10 h electromagnetic solvers for optomechanical device design.

11 iscuss future prospects for QD materials and device design.

12 s with important implications in stretchable device design.

13 de the groundwork for future improvements in device design.

14 ation, and define engineering guidelines for device design.

15 ncertainty regarding its energy has hindered device design.

16 s apply to nanoelectronics and semiconductor device design.

17 et operations can be achieved using the same device design.

18 c devices, as well as providing guidance for device design.

19 arrier relaxation times required for optimum device design.

20 0 particles per second using the simplest of device designs.

21 raphene heterostructure and strain-releasing device designs.

22 d ionic transport, and will enable new ionic device designs.

23 ay open up new opportunities for spintronics device designs.

24 s that could be exploited in novel nanoscale device designs.

25 though nearly all work has focused on planar device designs.

26 By careful device design, a new class of SAW pumping devices is pre

27 ess energy, and the simpler and more compact device design allows direct integration into PEMFC stack

28 Various parameters, related both to device design and operation were studied.

29 c surfactant or reducing agents, simplifying device design and operation.

30 Improvements in device design and patient selection appear likely to con

31 e of the front electrode are key for optimal device design and performance.

32 e complexity associated with experimental or device design and requires substantial labor for impleme

33 ed in contemporary fuel cells severely limit device design and restrict catalyst choice, but are esse

34 Materials, device designs and manufacturing approaches are presente

35 toPAD-developed to quickly create and modify device designs and provide a free alternative to commerc

36 of solar modules through improved materials, device designs and strategies for light management.

37 analysis was performed to compare different device designs and was verified with flow modeling to op

38 along with microscopic sizes, can influence device design, and give examples from our own work using

39 microelectronics, energy conversion, sensing device design, and many other fields of science and tech

40 esults should lead to more reliable graphene device design, and provide a framework to interpret expe

41 viability and function, its relationship to device design, and the role of, and factors affecting, o

42 s and opportunities for bionanotechnological device design are self-evident.

43 Materials and device designs are presented for electronic systems that

44 interesting results that are informative to device design as well as experimental data interpretatio

45 dual skyrmions controllably in an integrated device design at a selected position has been reported y

46 rol ripple structure in graphene could allow device design based on local strain and selective bandga

47 slow and often limits the rate at which new device designs can be built and tested.

48 However, the process of prototyping device designs can be tedious, error-prone, and time-con

49 s motivated the search for new materials and device designs capable of splitting water using only ene

50 ate materials will ensure that future fusion devices design components with optimal thermal strength.

51 The basic device design consisted of a single channel for the firs

52 rtance of material selection in microfluidic device design, especially in applications involving drug

53 The device design exploits the strong light-matter coupling

54 Device design, fabrication and assembly can be completed

55 Challenges remain, not least encouraging device design focused on smaller infants and the inevita

56 rs the opportunity for simplified diagnostic device design for resource-limited environments.

57 A microfluidic device designed for electrochemical studies on a microli

58 development of a microcuvette: a specialized device designed for exposing cell cultures to intense PE

59 e, to a jet-stirred reactor, an experimental device designed for the study of low-temperature combust

60 We describe a novel computer-controlled device designed for this purpose.

61 ul in the study of more advanced nanofluidic device designs for tailoring ionic current rectification

62 own work using fluid flow in microfabricated devices designed for biological processing.

63 of U.S. Food and Drug Administration-cleared devices designed for indocyanine green-based perfusion i

64 This Review will cover materials and devices designed for mimicking the skin's ability to sen

65 Flexible medical devices designed for monitoring human vital signs, such

66 Fabricated devices designed for operation at central wavelengths of

67 ritical care setting; mechanical circulatory devices designed for pediatric patients; and surgery in

68 Given the recent interest in paper-based devices designed for quantitative analysis in point-of-c

69 monstrate through the recreation of numerous device designs from the literature.

70 In vitro testing revealed that the initial device design had detection limits for amino acids of ap

71 ical experiments, but open-source sharing of device designs has lagged behind sharing of other resour

72 Among other material and device design improvements studied, use of a methanol-ba

73 nd hydrodynamics predict animal movement and device design in air and water through the computation o

74 in engineering has been a critical aspect of device design in semiconductor manufacturing for the pas

75 AAI device design is a major determinant of successful adren

76 gical radiation of microfluidic cell culture device designs is currently in progress.

77 uming motions with a single-channel pipet or device designs limited to the configurations of traditio

78 frequent type of revision, changes involving device design (n = 667; 24%) and labeling (n = 417; 15%)

79 Device design or implementation strategies require furth

80 The median number of changes altering device design or labeling was 3.5 (IQR, 1-9).

81 e structures, but the kink configuration and device design places limits on the probe size and the po

82 The device design principles presented here balance the phot

83 , single-group trial of a ventricular assist device designed specifically for children as a bridge to

84 an implantable mixed-flow ventricular assist device designed specifically for patients up to 2 years

85 Although eye protective devices designed specifically for paintball sports are e

86 mental understanding of these materials, for device design, stability studies, and quality control be

87 tegies for forming partnerships, prototyping devices, designing studies, and evaluating POC diagnosti

88 A second device design that allowed electric fields of 1320 V/cm

89 However, the optimal device design that gives rise to the desired controlled

90 intronic circuits with a versatile, scalable device design that is adaptable to emerging material phy

91 Molecular device designs that utilize such bridges will need to ad

92 ding manufacturing changes that do not alter device design, the number of supplements approved each y

93 Two of these device designs, the Intrastromal Corneal Ring and the In

94 Despite advances in device design, there remains an apparent bleeding diathe

95 By controlling the device design through the study of the emission of DDMA-

96 Using a device designed through optimization by Monte Carlo simu

97 of the proposed soft materials and ultrathin device designs through theoretical modeling and finite e

98 or material choice, material properties, and device design to achieve low-loss PS-BAW resonators alon

99 es, and underline the importance of holistic device design to achieve the intrinsic performance limit

100 illness was detected after in-home use of a device designed to be highly effective in removing micro

101 We evaluated a new device designed to clean the endotracheal tube in mechan

102 scribe a simple, easy-to-fabricate perfusion device designed to focally deliver pharmacological agent

103 ichia coli cells by employing a microfluidic device designed to follow steady-state growth and divisi

104 f a transesophageal echocardiographic-guided device designed to implant artificial expanded polytetra

105 The Helex septal occluder is a new type of device designed to improve the results of transcatheter

106 In a microfluidic device designed to mimic naturally occurring bacterial n

107 We present a microfluidic device designed to monitor the endothelium on two fronts

108 PLAATO is a device designed to seal the neck of the left atrial (LA)

109 o characterization pipeline for prescreening device designs to identify promising candidates for in v

110 NISs are emerging medical devices designed to allow persons with paralysis to oper

111 nal mechanical cardiopulmonary resuscitation devices designed to augment circulation, and may soon ad

112 analyte species in nanoscale cantilever-type devices designed to detect small concentrations of biomo

113 IVD have been confined to purely mechanical devices designed to either eliminate or enable flexibili

114 Although AEDs are complex medical devices designed to function during life-threatening eme

115 ontrol signals for neuroprosthetic assistive devices designed to interact with objects in a flexible

116 s assumption through the use of microfluidic devices designed to mimic human capillary constrictions

117 e surface modification of glass microfluidic devices designed to perform electrophoretic separations

118 consist of implantation of iris prostheses, devices designed to reduce symptoms of aniridia.

119 ally used in reference to sensory prosthetic devices designed to replace input from one defective mod

120 Thus, any device design using graphene has to take into considerat

121 To optimize our device design, we carried out systematic simulations of

122 To aid in device design, we employed a pseudo-steady-state diffusi

123 We present microfluidic device designs with a two-dimensional planar format and

124 ther methods, and also offers flexibility in device designs within that growth environment.

125 This facilitates a host of device designs, within a relatively simple growth enviro