ライフサイエンスコーパス: photon counting

1 nt fluorescence using time-correlated single photon counting.

2 tate fluorescence and time-correlated single photon counting.

3 bpopulations by using time-correlated single-photon counting.

4 mera provides images within a few minutes of photon counting.

5 tion spectroscopy and time-correlated single-photon counting.

6 onsive luciferase activity were monitored by photon counting.

7 ction was measured by time-correlated single photon counting.

8 e detection statistics derived from discrete photon counting.

9 o more sophisticated methods based on single-photon counting.

10 digital converter for time-correlated single-photon counting.

11 with steady-state and time-correlated single photon counting.

12 were determined using time-correlated single-photon counting.

13 or designs that may possess energy-sensitive photon-counting abilities, thereby facilitating the asse

14 Both the photon antibunching and photon-counting analyses show that reconstituted high-de

15 adopting a multi-image acquisition in single photon counting and by developing a processing algorithm

16 ary interaction using time-correlated single-photon counting and confocal single-molecule FRET micros

17 Mean glandular dose was calculated for DR photon counting and for a conventional DR subgroup.

18 We have integrated time-correlated single-photon counting and NSOM to obtain images of fluorescenc

19 to perform both SLS and DLS measurements by photon counting and photon correlation, respectively.

20 we describe both the time-correlated single photon counting and the frequency-domain methods for FLI

21 or solids, to be prepared and manipulated by photon counting and, in particular, to be distributed ov

22 computational design, time-correlated single photon counting, and expression measurements, we demonst

23 m yields are studied by time-resolved single photon counting, and the results are correlated with dev

24 ps time scale, and a time correlated single photon counting apparatus on the 100 ps to 10 ns time sc

25 time resolution and a time-correlated single photon counting apparatus on the 100 ps to 20 ns time sc

26 iates was measured by time-correlated single photon counting at varying time delays following initiat

27 tenuated signals, each monitored by a single-photon counting avalanche photodiode.

28 ons was found to extend the dynamic range of photon counting by approximately 3 orders of magnitude t

29 laser pulses and a streak camera with single photon counting capability to provide short time resolut

30 otons/mum(2)s at room temperature as well as photon counting capability.

31 nvestigate the feasibility of using spectral photon-counting computed tomography (CT) to differentiat

32 A new prototype spectral photon-counting computed tomography (SPCCT) based on a m

33 times, and picosecond time-correlated single-photon counting confirmed excimer emission at long wavel

34 (2) NP systems, using time-correlated single-photon counting coupled with scanning confocal fluoresce

35 Conclusion Dual-contrast spectral photon-counting CT colonography with iodine-filled lumen

36 ntom was scanned with a preclinical spectral photon-counting CT system to obtain spectral and convent

37 e related analysis of time-correlated single-photon counting data becomes uncertain due to the multit

38 A single photon counting detection operated in a multiframe acqui

39 ith a rotating anode x-ray tube and a single photon counting detector.

40 Purpose To investigate whether photon-counting detector (PCD) technology can improve do

41 -photon scanning microscope operating with a photon-counting detector.

42 ent advances in the use of energy-resolving, photon-counting detectors for CT imaging suggest the abi

43 e-molecule fluorescence experiments based on photon-counting detectors such as single-photon avalanch

44 With photon-counting detectors, images can be acquired at ext

45 rest and interior tomography techniques, and photon-counting detectors.

46 is generated by successively convoluting the photon counting distribution of each species with the ot

47 l upon the super-Poissonian character of the photon counting distribution.

48 Measured photon counting distributions obtained with a two-photon

49 al mammography screening with dose-efficient photon counting enables desirable detection rates of sma

50 sion spectroscopy and time-correlated single-photon counting; energy is transferred from the CCP to a

51 However, Poisson noise in the photon counting experiment limits the ability of this ap

52 -coupled devices (EMCCD) are widely used for photon counting experiments and measurements of low inte

53 Pioneering photon counting experiments, such as the intensity inter

54 In time-resolved, single-photon counting experiments, the standard method of nonl

55 g domain (HNF-4alphaLBD) in conjunction with photon counting fluorescence and circular dichroism.

56 Time-correlated single-photon counting fluorescence lifetime studies were used

57 Notably, the time correlation of single photon counting fluorescence measurements confirmed the

58 Steady state, photon counting fluorescence spectroscopy directly estab

59 s) by combining results from time-correlated photon counting, fluorescence up-conversion, and transie

60 state investigations, time-correlated single-photon counting, fluorescence up-conversion, and transie

61 onics configured in a time-correlated single-photon counting format.

62 red in a conventional time-correlated single-photon-counting format with all of the counting hardware

63 eveloped for recovering impulse responses in photon counting from a high speed photodetector (rise ti

64 d to recover deconvolved impulses for single photon counting from highly distorted ringing waveforms

65 Here we demonstrate that photon counting histogram (PCH) analysis constitutes a n

66 arlier FCA theory, but in contrast to FCA or photon counting histogram (PCH) analysis is valid for ar

67 We investigate the potential of dual-color photon counting histogram (PCH) analysis to resolve fluo

68 Dual-color photon counting histogram (PCH) analysis utilizes the ph

69 rescence correlation spectroscopy (FCS) with photon counting histogram (PCH) analysis, a sensitive me

70 d in fluctuation correlation spectroscopy or photon counting histogram (PCH) analysis.

71 scence correlation spectroscopy (FCS) and by photon counting histogram (PCH) analysis.

72 orescence correlation spectroscopy (FCS) and photon counting histogram (PCH) are techniques with sing

73 We apply the photon counting histogram (PCH) model, a fluorescence te

74 teins from the fluctuations by analyzing the photon counting histogram (PCH) or its moments and demon

75 lifetime correlation spectroscopy (FLCS) and photon counting histogram (PCH) were applied to characte

76 rescence correlation spectroscopy (FCS) with photon counting histogram (PCH).

77 and cross-correlation spectroscopy (FCS) and photon counting histogram analysis (PCH).

78 scence resonance energy transfer imaging and photon counting histogram analysis indicate that treatme

79 A corresponding photon counting histogram analysis showed that integrins

80 cence imaging, correlation spectroscopy, and photon counting histogram analysis, respectively.

81 on of fluorescence correlation spectroscopy, photon counting histogram analysis, time-resolved fluore

82 cal fluorescence spectroscopy, including the photon counting histogram method, in tandem with epifluo

83 ng fluorescence correlation spectroscopy and photon counting histogram methods for control and potass

84 The photon counting histogram of fluorescence fluctuation ex

85 he quadruple cross-correlation combined with photon counting histogram techniques allowed quantitativ

86 onsisting of confocal spectroscopy XY-scans, photon counting histogram, and fluorescence correlation

87 fluence of these beam distortions by FCS and photon-counting histogram (PCH) analysis and identify th

88 A comparison of FCA with photon-counting histogram (PCH) analysis, a related tech

89 We report on the development of dual-color photon-counting histogram (PCH) analysis.

90 uctuations is experimentally captured by the photon-counting histogram (PCH).

91 mprised of confocal spectroscopy XY-scan and photon-counting histogram analyses.

92 ce correlation spectroscopy measurements and photon-counting histogram analysis in specific domains o

93 Here, we characterize the use of photon-counting histogram analysis in the presence of fl

94 The photon-counting histogram analysis of the fluctuation am

95 sibility of oligomer formation, we performed photon-counting histogram analysis to direct analyze the

96 to simulate single- and multiple-point FCS, photon-counting histogram analysis, raster image correla

97 ins and compare this with values obtained by photon-counting histogram analysis.

98 int fluctuation correlation spectroscopy and photon-counting histogram analysis.

99 Using fluorescence fluctuation techniques (photon-counting histogram and number and brightness anal

100 We demonstrate that a photon-counting histogram efficiently separates the part

101 this position within the capillary, FCS and photon-counting histogram experiments are described by t

102 Photon-counting histogram measurements revealed that the

103 e cross-correlation spectroscopy (FCCS), and photon counting histograms (PCH) are fluctuation methods

104 Photon counting histograms reveal that both complexes co

105 led charge-coupled device camera and digital photon-counting image analysis.

106 times is collected by time-correlated single-photon counting, improving reliable peak assignment in e

107 d a spectroscopic technique featuring single-photon counting in the infrared.

108 Single photon counting is the most sensitive and accurate metho

109 of a fly photoreceptor being an 'imperfect' photon counting machine, we explain how these constraint

110 reatment plus tomosynthesis with a prototype photon-counting machine.

111 y the singlet lifetimes obtained from single photon counting measurement.

112 ssonian to a sub-Poissonian photon stream by photon counting measurements of the input and output fie

113 easurements using the Time-Correlated Single Photon Counting method enabled the determination of nonr

114 Single photon counting methods were employed to measure the flu

115 the rod outer segments were measured with a photon-counting microspectrophotometer.

116 detector, a pnCCD, was operated in a single photon counting mode in order to utilize its energy disp

117 che photodiode detectors operating in single photon counting mode.

118 ll bacterial bioreporters await miniaturized photon counting modules with high sensitivity and robust

119 However, because of the statistical photon counting noise in PET and the amplification of no

120 lied maximum entropy-based methods to remove photon-counting noise from single-molecule data.

121 etal-Oxide-Semiconductor (CMOS)-based single photon counting optical sensor.

122 In this study, we explore the photon counting readout properties of the silicon photom

123 So far, in the photon-counting regime, heralded entanglement between at

124 In addition, time-correlated single-photon counting results reveal the reduced lifetimes of

125 y resolved two-photon microscope with single-photon counting sensitivity to acquire spectral and temp

126 tmortem breasts were imaged with a CZT-based photon-counting spectral CT system with beam energy of 1

127 ence spectroscopy and time-correlated single photon counting spectroscopy (TCSPC) in order to quantif

128 urements in combination with time correlated photon counting spectroscopy, we show the conformation a

129 timation of their occurrence times as set by photon counting statistics (shot noise).

130 influence of the excitation profile upon the photon counting statistics for two relevant point spread

131 resonance fluorescence fluctuations based on photon counting statistics which captures the underlying

132 concentration from fluorescence-fluctuation photon-counting statistics using an electron-multiplied

133 try (SMFC) is limited by optical saturation, photon-counting statistics, and fragment overlap to appr

134 mputational analysis, time-correlated single photon counting studies, and transient absorption spectr

135 otted spots is detected with a NIR sensitive photon counting system that is optimized to an instrumen

136 Examinations in 13 312 women with a DR photon-counting system and statewide digital screening e

137 n signal acquisition using a time-correlated photon-counting system.

138 remains a challenge in the design of compact photon counting systems.

139 orescence analyses by time-correlated single-photon counting (TCSPC) and streak camera techniques fur

140 int utilizes advanced time-correlated single-photon counting (TCSPC) correlation algorithms along wit

141 emissions even though time-correlated single photon counting (TCSPC) experiments indicated negligible

142 sing fibre optics and time-correlated single-photon counting (TCSPC) in mice performing an operant ta

143 Time-correlated single-photon counting (TCSPC) measurements were performed on A

144 m for the analysis of time-correlated single photon counting (TCSPC) or time-gated FLIM data based on

145 o lifetime imaging by time-correlated single-photon counting (TCSPC) recorded subtle changes in ER re

146 Time-correlated single photon counting (TCSPC) was combined with fluorescence c

147 of Alexa-labeled Tau (time-correlated single photon counting (TCSPC)), consistent with its pronounced

148 describe how to use a time-correlated single-photon counting (TCSPC)-based fiber optics system to mea

149 Using photon counting techniques and low optical fluence (J/cm

150 ted the BIDS-FM distance, using laser single photon counting techniques as well as steady-state fluor

151 cern over the use of Rayleigh's criterion in photon-counting techniques such as single-molecule micro

152 With the use of time-correlated single-photon counting technology, the temporal resolution of t

153 for subsequent screenings was higher for DR photon counting than statewide rates (0.76% [67 of 8842]

154 subsequent screening rate was higher for DR photon counting than statewide screening (0.23% [20 of 8

155 illumination, from bright sunlight to single-photon counting under dim starlight.

156 ction of invasive cancers up to 10 mm for DR photon counting was high for initial (40% [14 of 35]) an

157 Mean glandular dose for DR photon counting was significantly lower than that for co

158 Using time-correlated single-photon counting, we measured fluorescence lifetimes for

159 onducted by combining time-correlated single-photon counting with steady-state fluorescence spectrosc

160 s paper, for the first time an InGaP (GaInP) photon counting X-ray photodiode has been developed and

161 been developed and shown to be suitable for photon counting X-ray spectroscopy when coupled to a low