ライフサイエンスコーパス: miniaturization

1 mple production, ability of multiplexing and miniaturization.

2 ition into a pathological state such as hair miniaturization.

3 ks and magnetometers, and also hinders their miniaturization.

4 g parts and opens the possibility of extreme miniaturization.

5 microtubule-based systems, enabling further miniaturization.

6 ork, the sensing film was also optimized for miniaturization.

7 prepare, rapid feedback, and possibility for miniaturization.

8 ditionally present low sensitivity for assay-miniaturization.

9 technique more biocompatible and amenable to miniaturization.

10 cause of their potential for scalability and miniaturization.

11 al switching, wavefront-analysis, and device miniaturization.

12 roteins as reporters; neither is amenable to miniaturization.

13 of hair loss characterized by hair follicle miniaturization.

14 t, electric field optimization, and ion-trap miniaturization.

15 tionally improved and have the advantages of miniaturization.

16 and simulation program in mass spectrometer miniaturization.

17 n the gas phase, which may ultimately permit miniaturization.

18 diverse biosensor assays and is amenable to miniaturization.

19 on of biomolecules with a high potential for miniaturization.

20 s: scope, connectivity, non-invasiveness and miniaturization.

21 ling advantages in each of these areas after miniaturization.

22 fferentiation, thereby causing hair follicle miniaturization.

23 heir inherent fast response time and ease of miniaturization.

24 c levitator, thus readily promoting reaction miniaturization.

25 desirable for system integration and device miniaturization.

26 few seconds and provides great potential for miniaturization.

27 hile retaining the benefit of further device miniaturization.

28 th the loss of macroscopic surface area upon miniaturization.

29 ectly ancestral to birds undergoes sustained miniaturization across 50 million years and at least 12

30 ordiidae appears to have evolved by stepwise miniaturization adapting from coarser to finer sediments

31 re, it is necessary to better understand how miniaturization affects cell behavior.

32 The distinct, prolonged phase of miniaturization along the bird stem would have facilitat

33 led morphology and structure that also favor miniaturization, an interesting advantage when the sampl

34 Here we report dramatic miniaturization and 2 orders of magnitude reduction in o

35 rmances: rapidity, selectivity, sensitivity, miniaturization and affordability.

36 Progress in the miniaturization and automation of complex analytical pro

37 The miniaturization and automation of this technology has le

38 The method is amenable to massive scale-up, miniaturization and automation.

39 applications because of their potential for miniaturization and automation.

40 ages of the method are discussed in light of miniaturization and automation.

41 ar layers are at the quantum limit of device miniaturization and can show enhanced electronic effects

42 This assay is amenable to miniaturization and easily adapted to a format suitable

43 chip-based devices for improved performance, miniaturization and enhanced functionality.

44 n immense drive in modern microscopy towards miniaturization and fibre-based technology.

45 esent the application of 3D-printing for the miniaturization and functionalization of an ion source f

46 perform, versatile in design and amenable to miniaturization and high throughput automation.

47 es to provide new assay methods adaptable to miniaturization and high-throughput screening.

48 , but visible wavelengths would allow system miniaturization and higher energy confinement.

49 w pressures and/or low temperatures prevents miniaturization and hinders practical applications.

50 However, current CGM devices need further miniaturization and improved functional performance.

51 ernal power supplies as well as from further miniaturization and increased detection rate.

52 Microfluidic-based devices have allowed miniaturization and increased parallelism of many common

53 One concern with assay miniaturization and increases in throughput is a potenti

54 thus, TGF is inherently much more suited to miniaturization and integration into lab-on-a-chip-devic

55 For miniaturization and integration of chemical synthesis an

56 Microfluidic systems allow miniaturization and integration of complex functions, wh

57 The miniaturization and integration of frequency-agile micro

58 development is an important step toward the miniaturization and integration of multidimensional and

59 Microfluidic systems allow miniaturization and integration of multiple biochemical

60 ystals offer unprecedented opportunities for miniaturization and integration of optical devices.

61 gth devices and opens up new avenues for the miniaturization and integration of THz and optical compo

62 In particular, they lend themselves to miniaturization and integration with cheap electronics.

63 planar acoustic lens is crucial to achieving miniaturization and integration, and should have deep im

64 ion-exchange optodes is described, allowing miniaturization and its concomitant benefits.

65 By virtue of miniaturization and its parallel format, the platform en

66 The remarkable advantages (miniaturization and low-cost) fill the bill of point-car

67 spines in C. praetermissus may indicate that miniaturization and migration to a planktonic lifestyle

68 Miniaturization and parallel processing play an importan

69 licon chips have demonstrated high levels of miniaturization and performance.

70 ectrochemical methods are highly amenable to miniaturization and possess the potential to be multiple

71 ic lithotripsy have increased with endoscope miniaturization and powerful, precise endoscopic lithotr

72 ysis at a reduced cost is driving a trend in miniaturization and simplification of procedures.

73 Such miniaturization and speed advantages are coupled to subm

74 While providing capabilities for miniaturization and system integration thanks to CMOS co

75 The miniaturization and tailorable emission properties of th

76 Miniaturization and the ability to pack thousands of cry

77 atures or/and complex setups, preventing the miniaturization and wide use of these devices.

78 The high EO response can be leveraged for miniaturization and/or reduction of the operating voltag

79 the future of analytical device fabrication, miniaturization, and functionalization.

80 ns owing to their high performance, inherent miniaturization, and low cost.

81 ic integrated devices for improved fidelity, miniaturization, and reconfiguration.

82 ptics architecture for improved performance, miniaturization, and scalability.

83 tion of the spatial arrangement, modularity, miniaturization, and sharing of information between labo

84 With its advantages in biocompatibility, miniaturization, and versatility, the acoustic tweezers

85 The prospects for further miniaturization are discussed.

86 alytical advantages realized from such assay miniaturization are more uniform target-spot coverage an

87 al features and the factors that limit their miniaturization are of considerable theoretical interest

88 usly with focusing, proved most suitable for miniaturization because of high speed, EOF compatibility

89 ical devices lend themselves to considerable miniaturization because of their subwavelength features.

90 chemical synthesis, the ultimate in designed miniaturization can be attained while preparing the most

91 h-efficiency mechanical components that pose miniaturization challenges governed by force-scaling law

92 cted NWM growth patterns, with callitrichine miniaturization coevolving with a series of reproductive

93 g fraction of energy as cell size decreases, miniaturization comes at a considerable energetic cost f

94 Thus, the demand for further miniaturization comes into conflict with the superparama

95 e format and assess the advantages of screen miniaturization compared with conventional high-throughp

96 re we create a practical geometry for device miniaturization, consisting of highly crystalline microm

97 electronic devices promises the ultimate in miniaturization coupled with the flexibility of organic

98 The growing miniaturization demand of magnetic devices is fuelling t

99 The consequences of miniaturization displayed by different insect taxa inclu

100 and crosstalk, which are critical to system miniaturization, diversity in functionality, and non-inv

101 f potassium optode microspots indicated that miniaturization does not alter response characteristics,

102 says, demonstrating that the near 2,000-fold miniaturization does not influence the cytotoxicity resp

103 ral FFF theory indicates few advantages from miniaturization, EFFF theory indicates clear advantages

104 he advantageous attributes such as low-cost, miniaturization, energy efficient, easy fabrication, onl

105 atory devices and there is interest in their miniaturization, even towards on-chip systems.

106 The trend towards assay miniaturization for high-throughput and ultra-high-throu

107 up is very robust and, as we demonstrate via miniaturization for microplate format, amenable for scre

108 the limitations of analyzing the effects of miniaturization from profile data of neurons and demonst

109 associated with nucleotide addition enables miniaturization, greater portability of testing apparatu

110 The need for their miniaturization has fuelled the rapid growth of interest

111 The blossoming of genomic technologies and miniaturization has opened up the field of genomic scale

112 The pursuit to achieve miniaturization has tantalized researchers across the fi

113 This miniaturization has, however, so far been achieved at th

114 Complementing the magnet miniaturization, here we integrate the NMR spectrometer

115 sensitivity, precision, and feasibility for miniaturization, high-throughput format adaptation, and

116 However, miniaturization imposes steep demands on the flight syst

117 photonic integrated devices and circuits for miniaturization, improved performance, and enhanced func

118 y, simplicity, and feasibility for apparatus miniaturization in analytical tests.

119 Concurrently, a drive for further miniaturization in applications such as optics, electron

120 ple demonstrates the feasibility of improved miniaturization in CGM based on microfluidics.

121 Miniaturization in electronics through improvements in e

122 torage device could bring about the ultimate miniaturization in energy storage.

123 Most studies dealing with the limits to miniaturization in insect brains have until now relied o

124 With advances in automation and miniaturization in material fabrication, hundreds of bio

125 in the effective wavelength opens a path to miniaturization in the science and technology of negativ

126 Miniaturization increases assay throughput while reducin

127 portable prototype, illustrating its facile miniaturization, integration and potential portability.

128 Their miniaturization interferes with the multiple functions t

129 Through miniaturization into microchips, new techniques have bee

130 Miniaturization is accompanied by allometric changes in

131 Assay miniaturization is advocated to improve surface-capture

132 ining both steps may address these problems, miniaturization is required to minimize sample consumpti

133 Miniaturization leads to considerable reorganization of

134 tial benefits they can offer in integration, miniaturization, multiplexing, and real-time label-free

135 Any attempt at compound screening miniaturization must address the significant scaling ine

136 e they approach the absolute limit of sensor miniaturization, nanopores are amenable to parallelizati

137 Advances in miniaturization, nanotechnology, and microfluidics, alon

138 Finally, as the miniaturization needs of combinatorial chemistry become

139 Here, we describe the miniaturization of a pair of assays based on the binding

140 Challenges for the miniaturization of absorbance assays include low signal

141 portable wireless communication systems.The miniaturization of antennas beyond a wavelength is limit

142 han one-tenth of the wavelength, and further miniaturization of antennas has been an open challenge f

143 ng programmable flow, and outlines means for miniaturization of assays based on spectroscopy of volat

144 eker imaging system is a useful new tool for miniaturization of assays for high-throughput screening.

145 The miniaturization of bioelectronic intracellular probes wi

146 Miniaturization of biosensing systems can further enhanc

147 Miniaturization of biosensors is essential for use in th

148 The miniaturization of biosensors using microfluidics has po

149 Microfluidic technology permits the miniaturization of chemical analytical methods that are

150 The miniaturization of chemical and biological processes in

151 The miniaturization of computation and communication technol

152 EUVL) is the leading technology for enabling miniaturization of computational components over the nex

153 high-resolution cross-sectional imaging, and miniaturization of construction systems for making all i

154 Miniaturization of conventional macroscale TFFF systems

155 Metasurfaces allow the miniaturization of conventional refractive optics into p

156 to study neutrino properties and leads to a miniaturization of detector size, with potential technol

157 The rapid miniaturization of devices and machines has fuelled the

158 plications, offering new pathways for future miniaturization of dielectric waveguide-based systems wi

159 s introduced here serve as a step toward the miniaturization of DNA sequencing and are amenable to au

160 The miniaturization of droplet manipulation methods has led

161 At the same time, miniaturization of echocardiography has further expanded

162 Recently, the use of venovenous ECLS and miniaturization of ECLS components have shown potential

163 unctions represent the ultimate limit to the miniaturization of electrical circuits.

164 The miniaturization of electrochemical sensors allows for th

165 devices, technological advances resulted in miniaturization of electronic circuitry and eventually t

166 With the continuing miniaturization of electronic components, low dimensiona

167 The miniaturization of electronic devices has been the princ

168 The miniaturization of electronic devices over the past cent

169 The article considers the miniaturization of existing technologies for sequencing

170 id incorporation of technologies that enable miniaturization of gene expression experiments.

171 The miniaturization of gene transfer assays to either 384- o

172 e stem cell (HFSC) aging causes the stepwise miniaturization of hair follicles and eventual hair loss

173 ent of such nanoporous structure enables the miniaturization of high-performance electrochemical bios

174 diffractive counterparts, leading to further miniaturization of high-performance optical devices and

175 toward higher maximum pressures and further miniaturization of high-pressure devices, in the process

176 Miniaturization of high-throughput screening (HTS) assay

177 With the miniaturization of integrated devices, current research

178 The miniaturization of integrated optical circuits below the

179 Miniaturization of ion mobility spectrometry (IMS) is ex

180 The miniaturization of lateral flow nucleic acid detection p

181 Recently the miniaturization of liquid chromatography (LC) systems an

182 have been dramatic parallel advances in the miniaturization of mechanical and electromechanical devi

183 tructures is of increasing importance in the miniaturization of mechanical or fluidic devices, optica

184 The miniaturization of medical devices and the progress in i

185 With the continued push for miniaturization of medical diagnostics to reduce cost an

186 ese devices could play a pivotal role in the miniaturization of microwave front-end antenna circuits.

187 This confinement both facilitates miniaturization of nanophotonic devices and makes their

188 lets online and represents an advance in the miniaturization of natural products screening.

189 Miniaturization of optical cavities has numerous advanta

190 ngth metasurface platform allows for further miniaturization of optical components and offers a scala

191 of semiconductor lasers, and integration and miniaturization of optical components, makes the search

192 The miniaturization of optical systems (to the micro and nan

193 th diffractive planar components enables the miniaturization of optical systems.

194 The miniaturization of optoelectronic devices is essential f

195 ed strategy to be particularly conducive for miniaturization of pressure-driven separations yielding

196 Miniaturization of Raman instruments has created a new g

197 lectronic and energy storage devices, making miniaturization of robots difficult.

198 throughput without sacrificing sensitivity: miniaturization of samples to reduce material cost and p

199 Miniaturization of SDS-PAGE has attracted significant at

200 fied all in vitro sample preparation and the miniaturization of sequencing chemistries, enabling mass

201 Despite advances in the miniaturization of solid-phase extraction, the technique

202 ties for improvement of conductivity and for miniaturization of solid-state ionic devices by the care

203 ent developments in metamaterials enable the miniaturization of such computing elements down to a sub

204 ractical importance in defining the limit to miniaturization of superconducting electronic circuits.

205 Motivation for miniaturization of TFFF systems was established by exami

206 issue reveals the severe penalty incurred by miniaturization of the antenna.

207 To address this, we report here the miniaturization of the AVEXIS (avidity-based extracellul

208 umber of microfluidic platforms have enabled miniaturization of the conventional microtitre plate ELI

209 presented here is particularly suitable for miniaturization of the CZE method and may be easily inte

210 The simple design of the sensor facilitates miniaturization of the device and its implementation for

211 Here is reported a miniaturization of the device described above, in which

212 Miniaturization of the device, beyond that achievable wi

213 n, EFFF theory indicates clear advantages to miniaturization of the EFFF channel.

214 is degree of sensitivity will facilitate the miniaturization of the entire assay procedure down to ce

215 3D macroscale hydrogels, indicating that the miniaturization of the experimental system did not alter

216 s, application of magnetic-sector-ICPMS, and miniaturization of the extraction/separation methods we

217 as electrochemical sensing platforms for the miniaturization of the lactate biosensor.

218 anent magnet represents a useful step toward miniaturization of the overall NMR spectrometer into a p

219 Miniaturization of the platform circumvented the need fo

220 illimeter or less ("microimplants"), but the miniaturization of the power source remains challenging.

221 With miniaturization of the power supplies and controllers, s

222 tself amenable to remote delivery and to the miniaturization of the probe head which could be benefic

223 The possible miniaturization of the pump for use as a field-deployabl

224 in), the simplicity, and easy automation and miniaturization of the required instrumentation make the

225 advantages like low-cost, low-power and easy miniaturization of the required instrumentation.

226 eamlined workflow integration, with possible miniaturization of the sample handling process making it

227 The miniaturization of the solvent-free MALDI approach allow

228 nd provide the ideal platform for the future miniaturization of the technology.

229 ade predators, or hunt prey; and second, the miniaturization of their body size, which profoundly inf

230 and cooling steps in PCR largely hamper the miniaturization of thermocyclers for on-site detection o

231 e write heads, which is important for future miniaturization of these devices.

232 The miniaturization of this concept, however, imposes a rest

233 in microfluidic approach reveals a means for miniaturization of time-resolved emission spectroscopy.

234 ion technology has clearly demonstrated that miniaturization often leads to unprecedented performance

235 t, and low-cost instrument is attractive for miniaturization on a lab-on-a-chip system to deliver poi

236 advantages of the stacked pad assay include: miniaturization, operational simplicity, fast response t

237 titial taxa evolved from larger ancestors by miniaturization, or (3) progenesis [3].

238 length) demonstrates 1-2 orders of magnitude miniaturization over state-of-the-art compact antennas w

239 d handling requirements and enable efficient miniaturization, parallelization, and integration of ass

240 ive analytical performance, and the distinct miniaturization/portability advantages of electrochemica

241 probes and the experimental simplicity, and miniaturization potential provided by the diffraction-ba

242 dependent resonant enhancement features, and miniaturization potential provided by the diffraction-ba

243 coustic wave based biosensors enables device miniaturization, power consumption reduction and integra

244 ed through the strategies of de novo design, miniaturization processes and protein redesign.

245 Device miniaturization produces distinct properties and phenome

246 llenges of Moore's Law, predicting ambitious miniaturization rates of integrated circuits, requires t

247 amase assay is well suited to automation and miniaturization required for high-throughput screening.

248 Miniaturization requires an assay design that has few st

249 Both progenesis and miniaturization should be considered when investigating

250 ost, promising response speed, potential for miniaturization, simple instrumentation and easy automat

251 As a critical step toward NMR spectrometer miniaturization, small permanent magnets with high field

252 Existing miniaturization strategies involve complex approaches no

253 ng a rationale to understand surface capture miniaturization strategies.

254 Under the trend of miniaturization, such quantum electrodynamical effects a

255 been accelerated with the advent of emerging miniaturization techniques, advanced materials and sensi

256 But in recent years, advances in miniaturization technology have led to optical systems t

257 of photonic systems towards integration and miniaturization, the need for an on-chip waveguide type

258 The move towards optical system miniaturization therefore motivates the development of m

259 ndidates for clean and renewable power; with miniaturization, they might also serve as integrated pow

260 Thus, in addition to progenesis [3, 4], miniaturization, thought to be too slow for an adaptatio

261 polarization sensing, which is suitable for miniaturization to a point-of-care lactate monitor.

262 ertain advantages advocated for capture spot miniaturization using a rationale to understand surface

263 rtz wafer, is a very attractive approach for miniaturization using Micro-Electro-Mechanical Systems(M

264 Considering the potential for system miniaturization using, e.g., dedicated quantum cascade l

265 and phylogenetic position imply that extreme miniaturization was ancestral for Paraves (the clade inc

266 al sensor resulting from the microstructural miniaturization was demonstrated.

267 t electronic length scales are desirable for miniaturization, while strong interactions that mediate

268 ances in electronics, optics, materials, and miniaturization will accelerate development of more soph

269 oved to be highly sensitive and robust after miniaturization with IC(50)s for fenretinide and retinol

270 stem was designed to focus on automation and miniaturization with minimal sample and reagent consumpt

271 profile data of neurons and demonstrate that miniaturization within the nervous system can lie beyond

272 FCS allows assay miniaturization without compromising sensitivity, making

273 cal analysis, validating the hypothesis that miniaturization yields many practical assay advantages.