ライフサイエンスコーパス: two-photon excitation

1 for signal transduction under both one- and two-photon excitation.

2 d) fluorescent proteins, using both one- and two-photon excitation.

3 ure, underfilled objective back-aperture, or two-photon excitation.

4 genetically engineered cascades, and direct two-photon excitation.

5 lobus acidocaldarius have been studied using two-photon excitation.

6 ately 1 microm) were examined under one- and two-photon excitation.

7 geneous or noninvasive clinical sensing with two-photon excitation.

8 and decay times observed for one-photon and two-photon excitation.

9 silica thin bottom chips for one-photon and two-photon excitation.

10 M with a microlens array to enable efficient two-photon excitation.

11 perties in the bulk of these materials using two-photon excitation.

12 ree amyloid types was acquired ex vivo using two-photon excitation.

13 entical results are obtained under nonlinear two-photon excitation.

14 sts higher-order photobleaching pathways for two-photon excitation.

15 and can be monitored with single-wavelength two-photon excitation.

16 t infrared absorption measurements following two-photon excitation.

17 l conditions together with either single- or two-photon excitation.

18 important functional groups through one- and two-photon excitation (1PE and 2PE, respectively) have p

19 ne-photon excitation approaches, their broad two-photon excitation (2PE) and poorly understood photob

20 nt study investigates the characteristics of two-photon excitation (2PE) in comparison with confocal

21 Two-photon excitation (2PE) laser scanning microscopy al

22 Two-photon excitation (2PE) of "caged" biomolecules repr

23 We have used two-photon excitation (720 nm) of retinol fluorescence a

24 d optical electrophysiology recordings using two-photon excitation above 1,100 nm.

25 Dual-wavelength two-photon excitation allowed largely independent functi

26 le optical labels suitable for both one- and two-photon excitation and also two-photon-excited ultras

27 g near-infrared (NIR) lasers for both pulsed two-photon excitation and continuous wave stimulated emi

28 rradiation, the molecule produces acid after two-photon excitation and initiates the polymerization o

29 we have developed a new microscope based on two-photon excitation and pulsed stimulated emission dep

30 Multi-photon processes (e.g. two-photon excitation and upconversion) using longer wav

31 on of dual-color cross-correlation, imaging, two-photon excitation, and coincidence analysis coupled

32 Confocal imaging along with two photon excitation are used to covalently couple phot

33 for in vitro cell imaging with both one- and two-photon excitations, as already demonstrated in the l

34 ed Ca(2+) indicator, REX-GECO1, with optimal two-photon excitation at <1,000 nm.

35 ce time-resolved fluorescence detection with two-photon excitation at 532 nm for label-free analyte d

36 In the present study, we introduce two-photon excitation at 532 nm for label-free fluoresce

37 Two-photon excitation at 532 nm offers a promising alter

38 the caged IP(3) is inert until activated by two-photon excitation at 720 nm.

39 tected in human plasma and whole blood using two-photon excitation at 730 or 820 nm.

40 One-photon excitation at 376 nm or two-photon excitation at 800 nm cleaves the bond holding

41 to study the energy transfer dynamics with a two-photon excitation at 850 nm.

42 Two-photon excitation at 900 nm was more than 60-fold gr

43 To circumvent this problem, we use two-photon excitation at 920 nm to target GFP-expressing

44 on the square of the laser power, indicating two-photon excitation at shorter wavelengths.

45 n excellent signal-to-noise ratio because of two-photon excitation avoiding interference from the fla

46 Upon two-photon excitation by laser at 815 nm this molecule d

47 rption in the range of interest suitable for two-photon excitation by near-IR femtosecond lasers.

48 we use acute hippocampal slices and combine two-photon excitation Ca(2+) imaging in presynaptic axon

49 se InP-ZnS nanoparticles and their efficient two-photon excitation can be potentially useful for deep

50 luted, whole blood as a function of pH under two-photon excitation conditions.

51 NC to the Os(II)PP can be established under two-photon excitation conditions.

52 Large two-photon excitation cross sections ( approximately 100

53 resolution at Angstrom level, and the use of two-photon excitation enables a broader exploration of F

54 When combined with two-photon excitation, excellent spatial control can be

55 linear optical microscopy techniques such as two-photon excitation fluorescence (TPEF) and second har

56 Colocalization of the SHG signal with two-photon excitation fluorescence (TPEF) from the immun

57 Two-photon excitation fluorescence and second harmonic g

58 )-weighted magnetic resonance and single- or two-photon excitation fluorescence images.

59 ated simultaneous CARS imaging of myelin and two-photon excitation fluorescence imaging of intra- and

60 Two-photon excitation fluorescence imaging provides thin

61 d combining the sectioning capability of the two-photon excitation fluorescence microscope and the pa

62 by exploiting the sectioning capability of a two-photon excitation fluorescence microscope.

63 Two-photon excitation fluorescence microscopy (TPEFM) pe

64 Two-photon excitation fluorescence microscopy of nest fo

65 s have been investigated by surface tension, two-photon excitation fluorescence microscopy, specular

66 ent structural extracellular matrix (ECM) by two-photon excitation fluorescence optical sectioning (T

67 us nonlinear (second harmonic generation and two-photon excitation fluorescence) imaging and voltage

68 ary phospholipid mixtures visualized through two-photon excitation fluorescent microscopy.

69 allows one to exploit the full potential of two-photon excitation for a sensitive detection.

70 In this study, we used two-photon excitation-Forster resonance energy transfer-

71 With two-photon excitation, FRET can now be extended to in vi

72 With two-photon excitation, FRET can now be extended to in vi

73 Spatial confinement of two-photon excitation gives rise to several advantages o

74 For endomicroscope application, wide-field two-photon excitation has the advantage of requiring no

75 Quantitative two-photon excitation imaging of NAD(P)H autofluorescenc

76 Using two-photon excitation in a conventional microscope offer

77 The intensity-squared dependence of two-photon excitation in laser scanning microscopy restr

78 onstitutes a unique class of eNOS probe with two-photon excitation in the 800-950-nm range, with grea

79 ngers have had very small cross sections for two-photon excitation in the IR region.

80 Two-photon excitation is gaining rapidly in interest and

81 ability to form triplet excited states upon two-photon excitation is important for several applicati

82 In deep-UV non- or less-transparent devices two-photon excitation is mandatory for label-free detect

83 Two-photon excitation is used to probe the intrinsic flu

84 he square of the Gaussian-Lorentzian PSF for two photon excitation, is explicitly treated.

85 Two-photon excitation laser scanning microscopy (2PLSM),

86 Here we show that two-photon excitation laser scanning microscopy can pene

87 al invasion into axonal arbors, we have used two-photon excitation laser scanning microscopy to direc

88 Third, two-photon excitation markedly reduces overall photoblea

89 Two-photon excitation measurements on liposomes containi

90 The chemical nature of the two-photon excitation mechanism allows the use of inexpe

91 nt wavelengths as a function of power of the two-photon excitation microbeam, we determined the activ

92 Applying two-photon excitation microchip separations and label-fr

93 A video-rate (30 frames/s) scanning two-photon excitation microscope has been successfully t

94 the non-linear optical microscopy techniques Two-Photon Excitation microscopy (TPE) and Second Harmon

95 Visualization by two-photon excitation microscopy (TPEM) demonstrated the

96 the blastomeres at the two-cell stage using two-photon excitation microscopy (TPEM).

97 Two-photon excitation microscopy can image retinal molec

98 First second harmonic generation and two-photon excitation microscopy is used to map the micr

99 microfluidic laminar flow and time-resolved two-photon excitation microscopy to investigate the earl

100 luorescence anisotropy imaging combined with two-photon excitation microscopy to map nanoscale diffus

101 We have used two-photon excitation microscopy to measure and compare

102 Two-photon excitation microscopy was used to image and q

103 e targeted genetically and imaged by one- or two-photon excitation microscopy, they offer great promi

104 By imaging calcium dynamics with two-photon excitation microscopy, we show that LC11 resp

105 Furthermore, using two-photon excitation microscopy, we show that NMNAT-1 c

106 ew aims to provide an overview of the use of two-photon excitation microscopy.

107 his higher-order photobleaching is common in two-photon excitation microscopy.

108 ness and photostability under one-photon and two-photon excitation modes, respectively.

109 etime in a CdTe crystal by 10x and show that two-photon excitation more accurately measures the bulk

110 obtain functional images based on selective two-photon excitation of a pH-sensitive chromophore in a

111 Two-photon excitation of an extracellular indicator disp

112 photolysis of atmospheric O(2), followed by two-photon excitation of atomic oxygen.

113 Here we demonstrate two-photon excitation of azobenzene-based protein switch

114 Two-photon excitation of di-4-aminonaphthenyl-pyridinum-

115 These results suggest that two-photon excitation of dimer and linear trimer is stro

116 r for proteins has been constructed based on two-photon excitation of fluorescence from phenylalanine

117 s we propose a microscopic system which uses two-photon excitation of fluorescence in a volume of abo

118 Using two-photon excitation of fluorescent indicator dyes, we

119 Two-photon excitation of fluorescent proteins is an attr

120 Imaging of cellular metabolism by two-photon excitation of NAD(P)H autofluorescence indica

121 ed-state absorption intensities after direct two-photon excitation of the carotenoid S(1) state are r

122 The method employs two-photon excitation of the metabolic intermediate, red

123 Hole injection into the DNA was initiated by two-photon excitation of the Py residue with 355 nm lase

124 he long-lived species formed from the direct two-photon excitation of the S(1) state.

125 Efficient two-photon excitation of these particles and two-photon

126 Two-photon excitation of topotecan was demonstrated by a

127 ge light elicits attractant responses, while two-photon excitation (orange followed by near-UV light)

128 f these indicators is that they have optimal two-photon excitation outside the near-infrared window (

129 ar plot of the fluorescence intensity versus two-photon excitation power increased with a slope of ap

130 ical delivery of nitric oxide in single- and two-photon excitation processes.

131 Then, we introduce a dynamic two-photon excitation protocol to simultaneously determi

132 Two-photon excitation provides high spatial resolution i

133 rded by these new VSDs spans 440-670 nm; the two-photon excitation range is 900-1,340 nm.

134 In addition, a two-photon excitation readout system has been developed

135 However, wide-field two-photon excitation requires peak power that is 10(4)-

136 s) in the doped quantum dots, the sequential two-photon excitation requires relatively low excitation

137 Using two-photon excitation scanning fluorescence imaging, we

138 Results from fluorescence spectroscopy and two-photon excitation scanning microscopy using the memb

139 ernal reflection fluorescence detection, and two-photon excitation second harmonic generation to eval

140 se strategy applied, 11 fold increase in the two photon excitation signal has been demonstrated.

141 hoton counting distributions obtained with a two-photon excitation source agree, within experimental

142 fluctuation correlation spectroscopy with a two-photon excitation source improved this technique so

143 Two-photon excitation spectra are determined for the nap

144 Substantial overlap between the two-photon excitation spectra of the LSS-mKates and blue

145 More than 25 two-photon excitation spectra of ultraviolet and visible

146 Here, two-photon excitation spectroscopy bolsters the exciton

147 itonic dark states in single-layer WS2 using two-photon excitation spectroscopy.

148 We developed a new class of two-photon excitation-stimulated emission depletion (2PE

149 laser pulses optimized to achieve selective two-photon excitation survive as the laser pulses propag

150 With the two-photon excitation, the number of cross-bridges was s

151 Built on spatiotemporally multiplexed two-photon excitation, this approach requires only one d

152 We have advanced a two-photon excitation time-resolved imaging technique, w

153 orescence Correlation Spectroscopy (FCS) and two photon excitation to determine the translational D o

154 junction with structured illumination and/or two-photon excitation to create thinner light sheets (<0

155 We introduce the application of two-photon excitation to scanning FCS and discuss its im

156 been used in conjunction with laser-induced two-photon excitation (TPE) to damage a specific DNA tar

157 iments described here demonstrate the use of two-photon excitation (TPE) to sensitize nitric oxide (N

158 xcitation, can also be activated by using IR two-photon excitation (TPE).

159 vel easy-to-use homogeneous method utilizing two-photon excitation (TPX) for quantification of protei

160 e fluorescence intensity distribution in the two-photon excitation volume, a theoretical expression f

161 Two-photon excitation was found to elicit a better deGFP

162 in viable, unsectioned tissue biopsies at a two-photon excitation wavelength of 780 nm.

163 This wavelength is too long for two-photon excitation, which is expected to occur for wa

164 ectra in determining optimal wavelengths for two-photon excitation, while providing additional inform

165 Irradiation with 365 nm light or two-photon excitation with 800 nm light resulted in effi

166 razoles that can be efficiently activated by two-photon excitation with a 700 nm femtosecond pulsed l

167 We used two-photon excitation with a near-infrared (NIR) laser m

168 ndria and monitor mitochondrial Zn(2+) under two-photon excitation with low cytotoxicity.

169 lutamate receptors in neurons via sensitized two-photon excitation with NIR light.

170 roscopy (TPLSM) hardware, the integration of two-photon excitation with optogenetics has thus far req