ライフサイエンスコーパス: light source

1 miniature synchrotron X-ray source (Compact Light Source).

2 1.95 A, from data collected at a synchrotron light source.

3 l cation and the influence of oxygen and the light source.

4 onizing, short-wavelength ultraviolet (UV-C) light source.

5 der transmission spectra using an incoherent light source.

6 rcularity, brightness, and stability of this light source.

7 gnitude higher than that of a LED or thermal light source.

8 objects and the spectrum of the illuminating light source.

9 the excitation wavelength or the excitation light source.

10 ible light irradiation with an artificial Xe light source.

11 g diffraction upon illumination with a white light source.

12 twin electron bunches at the Linac Coherent Light Source.

13 plane array (FPA) detector and a synchrotron light source.

14 ume of brain tissue from a small, point-like light source.

15 th band during illumination with a broadband light source.

16 ed optical elements, including an integrated light source.

17 s bright yellow light when excited by a blue light source.

18 y transverse deflector at the Linac Coherent Light Source.

19 pled to the high brightness of a synchrotron light source.

20 owth toward a noncoherent, uniform intensity light source.

21 y machine, a laser called the Linac Coherent Light Source.

22 e vinyl acetate (EVA) film, and exposed to a light source.

23 ee electron laser, namely the Linac Coherent Light Source.

24 produced by a xenon flash or nitrogen laser light source.

25 ter than when they were exposed to a control light source.

26 d in Maxwellian view using a broadband xenon light source.

27 is, an ability to move in the direction of a light source.

28 Mn were obtained at the National Synchrotron Light Source.

29 rientations, collected at the Linac Coherent Light Source.

30 imaging resolution above 100 nm for a white-light source.

31 d by a smartphone camera under a portable UV light source.

32 coherence tomography with a 200-nm bandwidth light source.

33 phototaxis, i.e. actively orients towards a light source.

34 brightness for a speckle-free and narrowband light source.

35 ectly and accurately sense the position of a light source.

36 order transmission using an incoherent white light source.

37 le wavelength (Se-SAD) at the Linac Coherent Light Source.

38 act accelerator building blocks and advanced light sources.

39 ng an alternative to large-scale synchrotron light sources.

40 echniques enabled by modern short-wavelength light sources.

41 maging methods to harness new coherent x-ray light sources.

42 higher X-ray dose rates expected with future light sources.

43 e of high-brightness xenon and mercury vapor light sources.

44 and simulated and natural solar radiation as light sources.

45 ntities of molecules using widely accessible light sources.

46 ures, as well as compact extreme ultraviolet light sources.

47 tive materials for applications as nanoscale light sources.

48 ges that exploit the unique aspects of these light sources.

49 ly high-powered, faster and smaller coherent light sources.

50 ells, photodetectors, optical modulators and light sources.

51 t X-ray fluxes available on third-generation light sources.

52 icals (NO3) in the presence of the different light sources.

53 properties for future solid-state attosecond light sources.

54 e at depths difficult to reach with external light sources.

55 thod that enables low-repetition-rate pulsed light sources.

56 vanced through the discovery of new, tunable light sources.

57 ience, compact plasma-based accelerators and light sources.

58 ats used to discriminate among infrared (IR) light sources.

59 conditions in combination with intense blue light sources.

60 locks for highly efficient broadband visible lighting sources.

61 onomers) and a low energy visible LED as the light source (1-4.8 W, lambda(max) = 435 nm).

62 We thus mated an LED light source, a dark-field condenser and a 20x objective

63 d fashion instead of in the direction of the light source, a global force on the system.

64 The integrated system includes a laser light source, a temperature-regulated flow cell encasing

65 oratories is its reliance on high peak-power light sources, a requirement that typically has been met

66 ch lamellar stripes grew toward the incident light source, adopted an orientation parallel to the lig

67 a neutral cue, predicting the location of a light source, affected the direction of plant growth.

68 ridge along with using a camera flash as the light source allows on-site halocarbon detection in seco

69 nt of robust and compact extreme ultraviolet light sources.Although higher harmonic generation from s

70 y transfer as the basis for flexible on-chip light sources, amplifiers, nonreciprocal devices and sig

71 anoribbon that serves both as an unpolarized light source and a dielectric waveguide.

72 integrated with a magnifying lens, a simple light source and a miniaturised immunoassay platform, th

73 r-infrared 860 nm light emitting diode (LED) light source and a wedge depolarizer to create a phase g

74 The CRET platform needs no external light source and avoids autofluorescence and photobleach

75 CRI) of 73 which is similar to a fluorescent light source and correlated color temperature (CCT) of 7

76 e compared with data obtained using the same light source and detector, but a conventional bend-coupl

77 LEDs provide a compact, low cost light source and have been incorporated directly into th

78 ical microlenses, allowing the cell to see a light source and move towards it.

79 optimized sensor head equipped with a UV-LED light source and optical fiber bundles for efficient flu

80 e demonstrate a silicon waveguide-integrated light source and photodetector based on a p-n junction o

81 coherence can be affected by the size of the light source and propagation distance in use.

82 acteria into the focus of the Linac Coherent Light Source and record diffraction patterns from indivi

83 -producible parts, including a semiconductor light source and sensor.

84 lated to the intensity and wavelength of the light source and that oxygen is essential for an efficie

85 rmance was evaluated through a simulated LED light source and the bioluminescence produced by the gen

86 cessing allows reducing the influence of the light source and the positioning of the microfluidic dev

87 ly test these approaches using a synchrotron light source and two commercially available X-ray instru

88 central organic light-emitting diode (OLED) light source and two opposed organic photovoltaic (OPV)

89 In this article, we introduce a standardized light source and validate its usability for PIT applicat

90 were integrated for filtering the excitation light source and, thereby, increasing the contrast of th

91 an extensive range of discrete monochromatic light sources and allows for an examination of the retin

92 applications for example as efficient white light sources and biolabels are reviewed.

93 sma-based accelerators envisioned for future light sources and colliders.

94 olines and enones using convenient household light sources and commercially available Ru(bpy)3Cl2 as

95 ttractive through the use of inexpensive LED light sources and common UV-vis spectrometers, as well a

96 gly popular because of technical advances in light sources and detectors.

97 Implementation typically requires remote light sources and fiber-optic delivery schemes that impo

98 n order to enable future generations of both light sources and high-energy physics experiments.

99 Coherence properties of different light sources and how they affect the image quality of h

100 structure opens for new experiments tunable light sources and LECs with added electronic functionali

101 ternating-current-powered electroluminescent light sources and light-emitting sensing devices.

102 of light propagation, dynamic access to the light sources and material parameters of the system, as

103 lfamethoxazole were irradiated under various light sources and pH conditions.

104 Suitable light sources and photo detectors have been selected, an

105 However, light sources and photodetectors present ongoing challen

106 Lastly, acne therapies involving the use of light sources and photosensitizers are currently being d

107 The first network, intended for solar cells, light sources and similar devices, has a quasi-fractal s

108 dynamics of both cells' accumulation toward light sources and their dispersion upon light cessation.

109 nstructed from a cell phone camera, a planar light source, and a cardboard box), demonstrate the conc

110 while harvesting its evaporation to power a light source, and a miniature car (weighing 0.1 kg) that

111 The reaction is promoted by any visible light source, and efficient, gram-scale cycloadditions c

112 ted to the awareness of the orientation of a light source, and hence any information presented on a w

113 Using a miniature spectrometer, LED light source, and optical fibers on a rotating benchtop

114 ganic or organic light emitting diode as the light source, and polythiophene: fullerene type bulk-het

115 tions exist even in 'classical'-like thermal light sources, and appear relevant for the implementatio

116 xperiments and measurements of low intensity light sources, and are extensively employed in biologica

117 integration in next-generation electronics, light sources, and biosensors.

118 ovel sensor designs with cheaper and smaller light sources, and consequently increases accessibility

119 onic devices, compact and wavelength-tunable light sources, and micro total analysis systems.

120 s State Park, PA) with minimal anthropogenic light sources, and one city location (Philadelphia, PA).

121 icularly bright mid-infrared (MIR; 3-20 mum) light sources are available offering high spectral brigh

122 As next-generation light sources are developed, using extreme ultraviolet l

123 e passive optical components, but integrated light sources are limited by silicon's indirect band-gap

124 At present, entangled-light sources are optically driven with lasers, which ar

125 ticularly at the high brightness synchrotron light sources, are making SXS an important tool for the

126 Integration of nanostructure lighting source arrays with well-defined emission wavele

127 oscope available at the National Synchrotron Light Source as a high throughput imaging instrument, we

128 y ground hyperspectral imaging of artificial light sources as a complementary method for retrieving f

129 biological laboratories have a wide range of light sources as standard equipment.

130 n fluorescence microscopy, regardless of the light source, as the light power measured can be transla

131 results of a PI-TOF-MS study at the Advanced Light Source at Lawrence Berkeley National Laboratory.

132 l, highly intense, single-particle, coherent light sources at subwavelength scale.

133 on of OCT system, which is a function of the light source bandwidth, is sufficient to resolve retinal

134 e potential for providing tabletop broadband light sources but so far are limited by their low conver

135 hnology not only resulted in efficient white light sources, but continues to enable a host of applica

136 nistic spatiospectral control of a broadband light source by means of wavefront shaping.

137 attered x ray light from a fourth generation light source can be used to detect the modification of t

138 First, these III-V plasmonic light sources can be directly grown on Si substrates fre

139 demonstrating that existing third generation light sources can significantly enhance the brightness a

140 on of radiation, is recognized as a coherent light source capable of confining optical fields at subw

141 role that molecular oxygen (O2), solvent and light-source (CF lamp or blue LED) play in a variety of

142 e closed by laser-driven compact synchrotron light sources (CLS), which use an infrared (IR) laser ca

143 theoretically possible) opsin properties and light source configurations that would maximise therapeu

144 ters whose interrogation is carried out with light sources, detectors and fibre components readily av

145 enetics in particular, the ability to insert light sources, detectors, sensors, and other components

146 resolution for both incoherent and coherent light sources, different types and sizes of beads, and d

147 (LEDs) are gradually replacing conventional lighting sources due to their advantages in energy savin

148 bursts or continuous waveforms with only the light source, electrical drives/controls and detectors b

149 tion developed for use at the Linac Coherent Light Source enabled efficient and flexible FX experimen

150 ation of optomechanical systems with on-chip light sources feasible.

151 ges and a defined alignment of the observer, light source/fixation target, and subject eye, the subje

152 the tips are illuminated by a monochromatic light source for concurrent spectroscopic detection of t

153 adband radiations as an all-purpose tabletop light source for general applications in science and tec

154 Optical frequency combs are a revolutionary light source for high-precision spectroscopy because of

155 riton laser an attractive low-power coherent light source for medical and biomedical applications or

156 ht-emitting diode (LED) is investigated as a light source for optical detection in chemical analysis.

157 -field optical microscope is utilized as the light source for photolithography, it is possible to fab

158 The novel flower HOPS beams can act as a new light source for photonic applications.

159 is great need to characterize a standardized light source for PIT application.

160 ernment (0.64 microM), using a halogen white light source for the stimulation of algal photosynthetic

161 and medical therapy, university-scale X-ray light sources for biological and materials research, and

162 ue light-emitting diodes are important white light sources for our daily life.

163 light emitting diodes (OLEDs) as excitation light sources for quantum dot-based fluorescent lateral

164 racterize frequency-multiplexed nonclassical light sources for quantum info-communications technology

165 intense X-ray pulses from the Linac Coherent Light Source free-electron laser and compare it with the

166 oherent X-ray pulses from the Linac Coherent Light Source free-electron laser.

167 eated and diagnosed using the Linac Coherent light Source free-electron X-ray laser, tuned to specifi

168 ng up novel opportunities for designs of the light sources, free electron lasers, and high energy col

169 high harmonics as useful broadband tabletop light sources from the extreme ultraviolet to the X-rays

170 Using appropriate light sources guided by fiber optics, we determined a de

171 d activity upon irradiation with an external light source has provided new tools to target cells for

172 Modern light sources have advanced many fields by providing ext

173 So far, the light sources have been limited to continuous wave or hi

174 addition to O2, the effects that solvent and light-source have on the dual-catalyzed decarboxylative

175 y the potential of using deep UV-LEDs as the light source in photometric detection for even lower-wav

176 rward, sensitive visualization with a simple light source in resource-limited situations.

177 an epidermal keratinocytes (NHEK) to an FS20 light source in vitro can induce the formation of mitoch

178 emiconductor lasers are widely used, compact light sources in optical communications.

179 are the most powerful and versatile compact light sources in the mid-infrared range, yet achieving t

180 esults suggest a design strategy for quantum light sources in the mid-IR/terahertz: ones that prefer

181 far-field, and behave as arrays of nanoscale light sources in the near-field.

182 ied avian responses to powerful ground-based light sources in urban areas.

183 Common approaches for light sources include one or few off-chip or wafer-bonde

184 on fluxes and distance dependences of indoor light sources including halogen, incandescent, and compa

185 n the near future as general bright tabletop light sources, including intense attosecond pulses.

186 This single light source induced significant behavioral alterations

187 a, a retinal bleaching flash, and a Ganzfeld light source inside a pair of light-obscuring goggles.

188 live cells and function as highly localized light sources inside the cell.

189 stem enables the use of a low-cost broadband light source instead of a bulky and expensive tunable la

190 mental conditions including ultraviolet (UV) light sources, intensity, solution pH, and Cl(2,T) conce

191 When the light source is a pulsed laser, water splitting is accom

192 Such a light source is also ideal for space communications, bot

193 employing GaN or InGaN chips as the primary light source is explored.

194 A high-resolution image of the light source is focused on the edge of the cell opposite

195 interferometric method means that a coherent light source is not required, making the monolithic inte

196 When the light source is removed, and the sample is slowly heated

197 axis tomography scheme is adopted, where the light source is rotated along two orthogonal axes.

198 y, the modulation bandwidth of the plasmonic light-sources is enhanced to significantly higher than c

199 followed by exposure to a laser or broadband light source, is a promising modality for treatment of m

200 The bowel was illuminated with an incoherent light source laparoscope (D-light-P, KarlStorz).

201 e using the full power of the Linac Coherent Light Source (LCLS) and a dose up to 1.3 GGy per crystal

202 sults from experiments at the Linac Coherent Light Source (LCLS) demonstrating that serial femtosecon

203 The Linac Coherent Light Source (LCLS) is an X-ray source of unmatched bril

204 x-ray pulses produced at the Linac Coherent Light Source (LCLS) were used for simultaneous x-ray dif

205 With the advent of the Linac Coherent Light Source (LCLS) X-ray laser, high-intensity radiatio

206 cond (fs) X-ray pulses of the Linac Coherent Light Source (LCLS), the Ni center electronic configurat

207 -ray free-electron laser, the Linac Coherent Light Source (LCLS).

208 20-Hz repetition rate of the Linear Coherent Light Source (LCLS).

209 a obtained with the Stanford Linear Coherent Light Source (LCLS).

210 e of a complex set-up that involves multiple light sources, lenses or mirrors.

211 Compact on-chip light sources lie at the heart of practical nanophotonic

212 This technique was evaluated using various light sources, lighting angles, imaging backgrounds, and

213 d with bright, economical, nanosecond-pulsed light sources like flashlamps and nitrogen lasers are an

214 thers the experimental animal to an external light source, limiting the range of possible experiments

215 units conveyed significant information about light-source location, whereas, over a corresponding reg

216 High harmonic light sources make it possible to access attosecond time

217 tion between those designing new indicators, light sources, microscopes, and computational analyses w

218 ed on a trapezoidal prism for the disposable light source module.

219 domain and Fourier domain devices, and with light sources of different wavelengths.

220 oherence properties are measured for various light sources of diode-pumped solid-state (DPSS) laser,

221 Non-classical light sources offer a myriad of possibilities in both fu

222 II-V nanolasers as monolithically integrated light source on Si chips due to many advantages.

223 figurable, and low lasing threshold coherent light sources on a chip.

224 s, rendering individually identifiable point light sources on compliant substrates.

225 ues for developing monolithically integrated light-sources on conventional microchips.

226 assive photonic devices for on-chip coherent light sources, optical signal processing, and the invest

227 ed by means of external factors, such as the light source or filters.

228 , there is no need for a pulsed or modulated light source or for additional time-resolved detection.

229 es not use any mechanical elements, external light sources, or reflectarrays, creating, for the first

230 ped at the Materials Science beamline (Swiss Light Source, Paul Scherrer Institute, Switzerland).

231 bedded flash in the cell phone camera as the light source, piped the light with an optical fiber from

232 A partially coherent light source placed approximately 70 mm away from the se

233 Broadband light sources play essential roles in diverse fields, su

234 tages for the use of many directly modulated light sources positioned at the transmitter location.

235 e semiconductor laser (SCL) is the principal light source powering the worldwide optical fiber networ

236 (CO formation); however, conventional (LED) light sources produce water splitting exclusively.

237 f the technique is parallel to that of laser light sources, recent advances have spurred a resurgence

238 The usage of the SoLux light source represents a new method which enables a con

239 channels with dense arrays of implanted red light sources resulted in successful defibrillation.

240 Because each single fluorophore acts a light source roughly 1 nm in size, microscopic observati

241 With suitable light sources, s-SNOM is instrumental in numerous discov

242 ence instruments by replacing the excitation light source (short duty cycle rectangular signal instea

243 hat the silica products excited by different light sources show different luminescence properties.

244 Experiments with different monochromatic light sources showed that rus1 phenotypes can be rescued

245 s been to develop an efficient silicon-based light source since indirect band-gap of silicon gives ri

246 essential components of the device like the light source, spectrometer, filters, microcontroller and

247 ation of the MERLIN beamline at the Advanced Light Source storage ring (Berkeley, USA).

248 with the increasing availability of advanced light sources such as quantum cascade lasers and the adv

249 Accordingly, chemiluminescent light sources such as those generated by luciferases hav

250 In a classical light source, such as a laser, the photon number follows

251 Modern tuneable high-power light sources, such as free-electron lasers and vacuum t

252 In contrast, traditional incoherent light sources, such as thermal sources or light emitting

253 To overcome this, we demonstrated a light source system having a wide tunability in the spat

254 of a psychophysics procedure with a quantum light source that can generate single-photon states of l

255 ystem with a 1.7 mum center wavelength swept light source that can readily penetrate deeper into the

256 The development of a robust light source that emits one photon at a time will allow

257 equirements on the temporal coherence of the light source that no longer can be met by current SCLs.

258 ht for a wide range of angles could become a light source that reaches luminous efficiencies ( approx

259 Laser frequency combs are coherent light sources that simultaneously provide pristine frequ

260 Random lasers are a developing class of light sources that utilize a highly disordered gain medi

261 ight, using the flash of the smartphone as a light source, the image captured with the built-in camer

262 lopment of a new generation of compact x-ray light sources, the coherence of which depends directly o

263 y on rigid fiber optics tethered to external light sources, these novel devices carry wirelessly powe

264 Testing revealed the light source to be safe, easy to use, and independent of

265 can potentially serve as a tunable coherent light source to enable on-chip signal processing for int

266 activity coefficients" (ELAC) for the white light source to generate calibration curves that relate

267 s capable of serving simultaneously as local light source to initiate photo(bio)electrochemical react

268 chnique has been extended from a synchrotron light source to utilise a lab-based microfocus X-ray sou

269 oncentrations of 1 and using a low-intensity light source, to activate the enzyme soluble guanylyl cy

270 high reflectivity mirrors and hence intense light sources (typically lasers) to have enough light tr

271 The LSPR probing light source used a green light-emitting diode (LED; lam

272 point out shortcomings of the low-resolution light source used in their experiments.

273 igate the nature of correlations in Gaussian light sources used for ghost imaging.

274 driven by a blue (lambda(max) = 472 nm) LED light source using [Ru(bpy)(3)]Cl(2) (bpy = 2,2'-bipyrid

275 ion spectroscopy (XES) at the Linac Coherent Light Source using redox-active Mn complexes.

276 ectures, thus enabling easy manufacturing of light sources using printing tools.

277 Coherent and tunable nanoscale light sources utilizing optical nonlinearities are requi

278 o ligand coadditive) and a readily available light source (UVC compact fluorescent light bulb), a wid

279 To demonstrate utility beyond quantum light sources we show that nanocavity-coupled SWCNTs per

280 unable synchrotron radiation at the Advanced Light Source, we demonstrate the first evidence of nitro

281 With a single light source, we stimulated channelrhodopsin-2-expressin

282 d x-ray pulses emitted by the Linac Coherent Light Source were used to conduct time-resolved serial f

283 Light sources were modelled as synchronously activating

284 termine the safety power level for different light sources when viewing the produced images by human

285 and a third sample was irradiated by a SoLux light source which closely models the solar emission pro

286 -cost laser to realize a compact inexpensive light source, which can ultimately impact many fields of

287 andom walk toward or away from a directional light source, which is sensed by intracellular photorece

288 n of electroluminescence emitters as quantum light sources, which can be studied with high time resol

289 d to the intrinsic spectrum bandwidth of the light source, while spatial coherence can be affected by

290 We combine a thermal light source with a conventional thermal infrared camera

291 results could pave way to produce low- cost light source with high luminance, using TADF molecules.

292 se of random Raman lasing as a novel imaging light source with unprecedented brightness for a speckle

293 ts on the performances of self-powered PD to light sources with different wavelengths and indicates h

294 Other light sources with more intense UV output hold potential

295 tudy explores two approaches for integrating light sources with nuclear magnetic resonance (NMR) spec

296 t of densely integrated, electrically driven light sources with tailored emission properties.

297 tral properties of incoherent supercontinuum light sources with the advantages of cavity ring-down sp

298 nventional lithography, works under ordinary light source without complex optics system, giving rise

299 The ultimate form of such a light source would be a monolithic white laser.

300 measurements performed at the Linac Coherent Light Source X-ray free-electron laser.