ライフサイエンスコーパス: photodiode

1 itored by a single-photon counting avalanche photodiode.

2 to 1010 nm, close to that of a commercial Si photodiode.

3 ndle was detected by a solid-state avalanche photodiode.

4 displacement of the laser beam on a quadrant photodiode.

5 f two tunable semiconductor lasers on a fast photodiode.

6 us-integrated modified uni-traveling carrier photodiode.

7 rrent pulses in an electrically biased p-i-n photodiode.

8 rotations per second measured with a silicon photodiode.

9 eterojunction layer of a stretchable organic photodiode.

10 he remaining UV light is detected by the top photodiode.

11 tom-fabricated nanocalorimetric device and a photodiode.

12 and 0.04 pW, respectively, were measured per photodiode.

13 a long, single-mode optical fiber and a fast photodiode.

14 rchangeable light emitting diode (LED) and a photodiode.

15 -960 nm), which is the highest among organic photodiodes.

16 icon carbide or gallium nitride p-n junction photodiodes.

17 assembly, a capillary Z-type flow cell, and photodiodes.

18 l, we photobleach ampholytes with high-power photodiodes.

19 n single-walled carbon nanotube p-n junction photodiodes.

20 n films with structures optimized for use in photodiodes.

21 h optically-controlled picosecond-switchable photodiodes.

22 ity spectrometry is based on three avalanche photodiodes.

23 m), showing a 1.2-fold higher SNR for Si PIN photodiodes.

24 it its use in applications such as broadband photodiodes.

25 only achieved using laser detection through photodiodes.

26 ponse in single-crystal silicon-based planar photodiodes.

27 nL capture chamber) coupled with a thin-film photodiode (200 x 200 um area) fluorescence readout.

28 e demonstrate a heterogeneously integrated 1-photodiode and 1 memristor (1P-1R) crossbar for in-senso

29 A fast avalanche photodiode and a GHz-bandwidth digital oscilloscope is u

30 performance liquid chromatography coupled to photodiode and mass spectrometry detection revealed the

31 ector was compared with both a semiconductor photodiode and photomultiplier as light sensing elements

32 achieved using the 217 um +/- 15 um diameter photodiode and the 409 um +/- 28 um diameter photodiode

33 therefore combines the low dark current of a photodiode and the high responsivity of a photoconductor

34 tition rates due to the limited bandwidth of photodiodes and electronics.

35 devices such as p-n junctions, transistors, photodiodes and lasers.

36 r monolithically combines vertically stacked photodiodes and perovskite nanocrystals.

37 While expensive avalanche photodiodes and superconducting bolometers are examples

38 placement of photomultipliers with avalanche photodiodes and the need for MRI-based attenuation corre

39 ensor integrates phosphor pairs with silicon photodiodes and transimpedance amplifiers to achieve mic

40 organic light-emitting diodes, solar cells, photodiodes and transistors, including ohmic injection o

41 positioned on substrates, and configured as photodiodes and transistors, respectively.

42 sed structured illumination and a high-speed photodiode, and is capable of reconstructing 128 x 128-p

43 hotons are measured with a silicon avalanche photodiode, and the 3950 nm photons are measured with an

44 heterojunctions form lateral p-n diodes and photodiodes, and can be used to create complementary inv

45 plasmonic interfaces into commercial silicon photodiodes, and demonstrated that such devices can sele

46 rent microelectrodes, light-emitting diodes, photodiodes, and optical filters into a multilayer array

47 y this approach in flexible filters, organic photodiodes, and polarization-sensitive filtering.

48 Mie scatter patterns are collected at all photodiode angles for each of the incident light angles,

49 suited to indium gallium arsenide avalanche photodiode (APD) detectors operated in Geiger mode.

50 ring (DLS) instrument that uses an avalanche photodiode (APD) for recording the scattered intensity s

51 We instead employed a solid-state avalanche photodiode (APD)-based detector for real-time, high-sens

52 Avalanche photodiodes (APDs) are essential components in quantum k

53 Avalanche Photodiodes (APDs) are key semiconductor components that

54 Avalanche photodiodes (APDs) demand multiplication materials with

55 w-noise short-wave infrared (SWIR) avalanche photodiodes (APDs) due to the very wide ratio between it

56 ly, optoelectronic logic gates (OELGs) using photodiodes are of significant interest due to their bro

57 Silicon photodiodes are the foundation of light-detection techno

58 erformance liquid chromatography (HPLC) with photodiode array (DAD), electrochemical (ECD), charged a

59 chanism based on their Liquid Chromatography-Photodiode Array (LC-PDA) data.

60 analysis by ultra-HPLC (uHPLC), coupled to a photodiode array (PDA) and tandem MS/MS.

61 Continuous photodiode array (PDA) detection ensured identification

62 ance liquid chromatography (HPLC) coupled to photodiode array (PDA) detector and high resolution mass

63 s Acquity TQD UPLC/MS system equipped with a photodiode array (PDA) detector was used for amino acid

64 ormance liquid chromatography (RP-HPLC) with photodiode array (PDA) detector was used to identify phe

65 erformance liquid chromatography (HPLC) with photodiode array (PDA) detector were developed for the a

66 Each capillary spanned several diodes in a photodiode array (PDA) for absorption measurement.

67 on the transmural wall surface with a 16x16 photodiode array (resolution 1.2 mm/diode).

68 avonoid, and terpenophenolic pathways, using photodiode array (UHPLC-PDA), and time of flight mass sp

69 Theory for ratiometric response of photodiode array absorbance and constant potential amper

70 ers was measured during SEC using an on-line photodiode array absorbance detector.

71 and a comparison made with traditional HPLC-photodiode array analysis.

72 ng an ultraperformance liquid chromatography-photodiode array and determined their heritabilities and

73 pillary microfluidics with a microfabricated photodiode array and electronic instrumentation into a h

74 ormed by means of liquid chromatography with photodiode array and electrospray ionisation mass spectr

75 performance liquid chromatography coupled to photodiode array and electrospray ionization mass detect

76 formance liquid chromatography combined with photodiode array and electrospray ionization quadrupole-

77 nd 3'-oxolutein were determined by HPLC with photodiode array and mass spectral detection.

78 rformance liquid chromatography coupled with photodiode array and mass spectrometry detectors (HPLC-D

79 ressure liquid chromatography coupled with a photodiode array and tandem mass spectrometry.

80 cal signals were recorded with a 100-element photodiode array at high temporal resolution.

81 a 100%-yield, spectrally filtered passive Si photodiode array designed for on-chip fluorescence imagi

82 ormance capillary liquid chromatography with photodiode array detection (cLC-DAD) and chemometric too

83 in the second dimension in combination with photodiode array detection (PDA) and atmospheric pressur

84 rformance liquid chromatography (UHPLC) with photodiode array detection (PDA).

85 -high performance liquid chromatography with photodiode array detection (RP-UHPLC-PDA) and heated ele

86 ultra-performance liquid chromatography with photodiode array detection (UPLC-PDA), and high-performa

87 liquid chromatography coupled to ultraviolet photodiode array detection and ion-trap mass spectrometr

88 mperature liquid chromatography coupled with photodiode array detection and isotope ratio mass spectr

89 erformance liquid chromatography (HPLC) with photodiode array detection for determination of several

90 erformance liquid chromatography method with photodiode array detection has been developed enabling t

91 ography (UHPLC) method with fluorescence and photodiode array detection has been developed to determi

92 t procedure for chromatographic signals with photodiode array detection is presented.

93 rformance liquid chromatography coupled to a photodiode array detection system (UHPLC-PDA).

94 Subsequent UHPLC analysis and photodiode array detection were employed for the quantif

95 high performance liquid chromatography with photodiode array detection.

96 by high-pressure liquid chromatography with photodiode array detection.

97 high-performance liquid chromatography with photodiode array detection.

98 ultra-performance liquid chromatography with photodiode array detection.

99 high performance liquid chromatography with photodiode array detection.

100 high-performance liquid chromatography with photodiode array detection.

101 rformance liquid chromatography coupled with photodiode array detector (HPLC-DAD), respectively.

102 performance liquid chromatography coupled to photodiode array detector (UPLC-DAD) was employed to qua

103 rformance liquid chromatography coupled to a photodiode array detector and a high-resolution mass spe

104 uid chromatography instrument coupled with a photodiode array detector and a high-resolution mass spe

105 d-phase liquid chromatography coupled with a photodiode array detector and a high-resolution mass spe

106 ormance liquid chromatography coupled with a photodiode array detector and a high-resolution Orbitrap

107 rmance liquid chromatography equipped with a photodiode array detector and electrospray ionization hi

108 Photodiode array detector coupled with a fluorescence de

109 de electrochemical detector in series with a photodiode array detector has been developed to determin

110 ons ranging from one-dimensional HPLC with a photodiode array detector to on-line LC x GC x GC/QqQ MS

111 Moreover, capillary electrophoresis with a photodiode array detector was sufficiently sensitive to

112 n absorption at 194 nm was monitored using a photodiode array detector, 8 and 1 pg of underivatized 1

113 Phenolic compounds were analyzed by HPLC photodiode array detector, liquid chromatography high re

114 5 nm (for CIP, DAN, ENR and SAR) by means of photodiode array detector.

115 ultra-fast liquid chromatography coupled to photodiode array detector.

116 d foods and verify them structurally using a photodiode array detector.

117 ucted using liquid chromatography coupled to photodiode array detector.

118 HPLC coupled with in-line mass spectral and photodiode array detectors.

119 Photodiode array experiments for H42A revealed wavelengt

120 A photodiode array in conjunction with a rapid stopped-flo

121 A custom-built avalanche photodiode array is used for detection, permitting the s

122 ng a single lens and a curved image sensor-a photodiode array on a curved surface-, was born of flexi

123 t hearts using a voltage-sensitive dye and a photodiode array or a CCD camera, and the time-frequency

124 quid chromatography, solid-phase extraction, photodiode array spectrophotometric detection, and mass

125 rformance liquid chromatography coupled with photodiode array spectrophotometry and high-resolution m

126 eaction of NO2- with HOCl by continuous flow photodiode array spectrophotometry indicates the formati

127 Single-wavelength and photodiode array stopped-flow kinetic analyses identify

128 ever tips were microscopically imaged onto a photodiode array to extract tip positions, which could b

129 evers and stationary beam were imaged onto a photodiode array to track their positions.

130 f capillary electrochromatography (CEC) with photodiode array UV detection for the analysis of cannab

131 igh-performance liquid chromatography with a photodiode array UV-vis detector and high-resolution mas

132 tified or tentatively characterised based on photodiode array UV-vis spectra (DAD), ESI-MS-MS spectro

133 ormance liquid chromatography coupled with a photodiode array UV-visible absorbance detector and mass

134 f the striations was projected onto a linear photodiode array, and sarcomere length was computed as t

135 al reflector beneath a hemispherical silicon photodiode array, the system reduces excessive light and

136 s into visible fluorescence, detected by the photodiode array, while the remaining UV light is detect

137 *Tag ultra performance liquid chromatography-photodiode array-electrospray ionization-mass spectromet

138 tage-sensitive dye, RH414, and a 464-element photodiode array.

139 at mucosas were monitored by a 10 x 10 pixel photodiode array.

140 of an ultraperformance liquid chromatography-photodiode array.

141 sing elements directly on the surface of the photodiode array.

142 vonoids (TIFLs), and equol (measured by HPLC/photodiode array/mass spectrometry) as reference criteri

143 performance liquid chromatography coupled to photodiode-array detection and electrospray ionization/i

144 ormance liquid chromatography coupled with a photodiode-array detector and a tandem mass spectrometer

145 AD (High performance liquid chromatography - photodiode-array detector) is proposed.

146 tified or tentatively characterised based on Photodiode-array ultraviolet visible (PDA) UV-Vis spectr

147 rtion single-lens camera, where 4096 silicon photodiodes arrayed on a curved surface in a nonuniform

148 All-printed organic photodiode arrays on plastic are reported with average s

149 ges of the heart were focused on two 16 x 16 photodiode arrays to map Ca2+i (emission wavelength (lam

150 osilicate crystal arrays and 3 x 3 avalanche photodiode arrays.

151 membrane potential (V(m)) and Ca2+i with two photodiode arrays.

152 al absorption at 450nm, using a CMOS silicon photodiode as the photodetector.

153 rs (680/780-nm excitation) and two avalanche photodiodes as the basic building blocks.

154 es in the light intensity were measured by a photodiode at the rear of the glass capillary.

155 ssue, with Mie scatter being detected by PIN photodiodes at eight different detection angles.

156 grating the liquid crystal cell with silicon photodiodes at the single-pixel level.

157 hodology for the characterization of organic photodiodes based on polymeric bulk heterojunctions reve

158 tored by a flow-through light-emitting diode-photodiode-based detector.

159 q)) with an inexpensive light emitting diode photodiode-based detector.

160 cells using the voltage clamp technique and photodiode-based displacement measurement system.

161 e that is measured with a miniature blue LED photodiode-based fluorescence detector.

162 her electrical stimulation from a subretinal photodiode-based implant has a neuroprotective effect on

163 Motility was measured with a photodiode-based measurement system.

164 fficient light-capturing material exhibiting photodiode behavior.

165 20 to 60 A/W, exceeding conventional silicon photodiodes by ~225 times in EUV sensing applications.

166 The general performance of the broadband photodiodes can be further improved by the piezo-phototr

167 The use of nanoscale photodiodes can thus provide original perspective in lin

168 key optical components for light harvesting; photodiodes convert light into a current of electrons fo

169 hat the heater operation does not affect the photodiode currents.

170 t elution C18-chromatography (C18-UFLC) with photodiode (DAD) and fluorescence (FLD) detection for an

171 h the disposable slide including the organic photodiode detected Staphylococcal enterotoxin B at conc

172 A 464 element photodiode detector array was used to record the voltage

173 the ultra-performance liquid chromatography photodiode detector-quadrupole/time of flight-mass spect

174 e (LED) with a 583 nm emission maximum and a photodiode detector.

175 ne interferometry and only a single quadrant photodiode detector.

176 e (SPR) spectrometer equipped with a bi-cell photodiode detector.

177 ored simultaneously using separate avalanche photodiode detectors operating in single photon counting

178 uction, this optoelectronic light sensor and photodiode device holds significant promise for industri

179 and suppression of photon emission from the photodiode due to a change in the chemical potential of

180 can be successfully modeled as two parallel photodiodes, each with its own energetics and exciton dy

181 processing arrays based on dual-gate silicon photodiodes, enabling parallelized event sensing and edg

182 As the applied bias voltage varies, the photodiodes exhibit sequentially the behavior of three d

183 Photodiodes fabricated from thin films of these material

184 present flexible MWIR imagers consisting of photodiodes fabricated on thin plastic substrates using

185 ts (PIC) attached to a uni-traveling carrier photodiode generating high-purity THz carriers.

186 time an InGaP (GaInP) photon counting X-ray photodiode has been developed and shown to be suitable f

187 Hydrogenated amorphous silicon (a-Si:H) PIN photodiodes have been developed and characterized as flu

188 ed with semiconductor lasers, amplifiers and photodiodes, holding the potential of large-volume, low-

189 Using a photodiode imaging technique, we measured hair bundle mo

190 We use a type of silicon avalanche photodiode in which the lateral electric field profile i

191 is found to rival that of low-noise silicon photodiodes in all metrics within the visible spectral r

192 phosphorus-molybdenum disulfide (bP-MoS(2)) photodiodes in the near- and mid-infrared band and silic

193 Photodiodes in the silicon substrate measure fluorescenc

194 urrent understanding of both solar cells and photodiodes - in the latter case defining a detectivity

195 As/Al(0.48)In(0.52)As superlattice avalanche photodiodes (InGaAs/AlInAs SL APDs) on InP substrate to

196 filter with a pinhole, and an annular a-Si:H photodiode is also developed that allows the laser excit

197 A discrete a-Si:H photodiode is first fabricated on a glass substrate and

198 The photodiode is illuminated with different wavelength ligh

199 the calorimetric device and a reverse-biased photodiode is reduced to tens of nanometres-solid-state

200 The performance of optimized organic photodiodes is found to rival that of low-noise silicon

201 00 mum diameter In0.5Ga0.5P p(+)-i-n(+) mesa photodiodes is reported; the i-layer of the p(+)-i-n(+)

202 , light emitting diodes, photovoltaic cells, photodiodes, magnetic photoswitches, etc.

203 trapping time were optimized as well as the photodiode measurement settings, providing minimum detec

204 detection system that uses a microavalanche photodiode (microAPD) as the photodetector for microflui

205 Using photodiode micrometry, laser interferometry, and strobos

206 ents demonstrate that the nanowire avalanche photodiodes (nanoAPDs) have ultrahigh sensitivity with d

207 chemiluminescence) that were detected by the photodiode of the detector.

208 Solution-processed organic photodiodes offer several design opportunities exemplifi

209 ting diodes (OLEDs) are used with an organic photodiode (OPD) sensitive at the aforementioned wavelen

210 characterization of high-performance organic photodiodes (OPDs) and their use as an optical receiver

211 One of the key challenges facing organic photodiodes (OPDs) is increasing the detection into the

212 emitting diode and detected by a monolithic photodiode-operational amplifier.

213 In this context, these photodiodes outperform the encumbent technology (input f

214 -LED, a capillary Z-cell, and a broadband UV photodiode (PD).

215 n (i.e., LEDs operated under reverse bias as photodiodes (PDs)) characteristics.

216 the photocatalytic properties of Pt/n-Si/Ag photodiode photocatalysts using Au/Ag core/shell nanorod

217 opriate scaling of the signals from the five photodiodes produces a linear optical calibration curve

218 fficiencies measured for a series of polymer photodiodes, providing a direct link between local morph

219 ld-insensitive, position-sensitive avalanche photodiode (PSAPD) detectors coupled, via short lengths

220 ) arrays with 2 position-sensitive avalanche photodiodes (PSAPDs), was developed.

221 ronic and mechanical devices, including LED, photodiode, pumps, and electronic boards, can be used to

222 A lens-free photodiode readout system represents a cost-efficient ap

223 for the separation from interfering with the photodiode response.

224 to map these effects in a MoS(2)-Au Schottky photodiode, revealing a PTE-dominated region extending h

225 rk, we present an event-driven retinomorphic photodiode (RPD) that mimics the retina's layered struct

226 rate absorption and multiplication avalanche photodiode (SAM-APD) with 100% cut-off wavelength of ~ 5

227 we note a typical digitization of a 60 x 60 photodiode sensor using only 142 TDCs.

228 timulation were detected and measured with a photodiode sensor.

229 were derived from the time series of common photodiode sensors along with standard machine control s

230 The photodiode signals were acquired, displayed and processe

231 Single-photon avalanche photodiode (SPAD) array cameras offer single-photon sens

232 The tuned CQD layer incorporated into a photodiode structure achieves improved performance with

233 e replaced by amorphous hydrogenated silicon photodiode structures (a-Si:H p-i-n/SiO2 or n-i-p/SiO2)

234 The photodiode structures were shown to be suitable for SPIM

235 MR-compatible PET scanner based on avalanche photodiode technology that allows simultaneous acquisiti

236 eamide linker thus acts as a "conformational photodiode" that conducts stereochemical information as

237 a-camera uses a position-sensitive avalanche photodiode to detect charged particle-emitting probes wi

238 in conjunction with a commercially available photodiode to perform blood oxygenation measurements on

239 The dye-tracing method uses a photodiode to track the movement of a bleach front of fl

240 nel is built directly above unpackaged p-i-n photodiodes to detect beta-particles with maximum effici

241 t here free-standing silicon-based nanoscale photodiodes to optically modulate single, identified neu

242 We successfully functionalize nano-photodiodes to target single molecules, such as glutamat

243 As a result, photodiode-type photodetectors based on n = 3 CMHS revea

244 ever, we were unable to achieve a rectifying photodiode using CQDs and molybdenum oxide/polymer hole

245 quencies and then conjugated onto Pt/n-Si/Ag photodiodes using well-defined chemistry.

246 Uni-Travelling-Carrier Photodiodes (UTC-PDs) are pivotal for the advancement of

247 we report an efficient MoS(2)/AsP vdW hetero-photodiode utilizing a unilateral depletion region band

248 The InGaP photodiode was connected to a custom-made low-noise char

249 An In0.5Ga0.5P p-i-n (5 mum i-layer) mesa photodiode was illuminated by a standard 206 MBq (55)Fe

250 mum diameter InGaP (GaInP) p(+)-i-n(+) mesa photodiode was studied across the temperature range 100

251 Each photodiode was then investigated as a high-temperature-t

252 l lens, a 515-nm-long pass filter, and an Si-photodiode, was used to detect fluorescence and convert

253 based flow cytometer that utilizes avalanche photodiodes, wavelength-division multiplexing, enhanced

254 Using a photodiode, we were able to clearly resolve the zinc flu

255 photodiode and the 409 um +/- 28 um diameter photodiode were 1.31 keV +/- 0.04 keV and 1.64 keV +/- 0

256 (+)-i-n(+) (3 mum i-layer) Al0.2Ga0.8As mesa photodiodes were used as conversion devices in a novel X

257 id and polyimine pumps to create a colloidal photodiode, where we attain both spatial and temporal co

258 ; light passes through this electrode into a photodiode which charges the electrode.

259 ection, the photodetector transitions from a photodiode with a rectifying Schottky contact in the dar

260 Employing an ultrafast p-i-n photodiode with smaller active area diameter and lower n

261 In this work, thin-film amorphous silicon photodiodes with an integrated fluorescence filter were

262 stom-made Al(0.52)In(0.48)P p(+)-i-n(+) mesa photodiodes with different diameters (217 um +/- 15 um a

263 ptical detector based on a white LED and two photodiodes with interference filters.

264 These devices are based on organic photodiodes with optically thick junctions.

265 s ring-shaped, large-area, flexible, organic photodiodes with silicon-level performance.

266 yield approaches that of commercial silicon photodiodes, with a responsivity exceeding 0.25 A/W for

267 s; we demonstrate experimentally three-color photodiodes without using additional terminal contacts.

268 ere, a high-performance p-Si/n-ZnO broadband photodiode working in a wide wavelength range from visib