ライフサイエンスコーパス: emission spectrum

1 mostly depolarized over the majority of the emission spectrum.

2 th resulting color changes and shifts in the emission spectrum.

3 ompared to a bare organic material in a wide emission spectrum.

4 bsorption spectrum of the cell and the solar emission spectrum.

5 was recorded at 535 nm, the peak of the YFP emission spectrum.

6 at a single wavelength near the peak of the emission spectrum.

7 ncrease in the magnitude of the fluorescence emission spectrum.

8 also the dominant fluorophore of the native emission spectrum.

9 m red-shifted intrinsic protein fluorescence emission spectrum.

10 by a blue shift in the band position of the emission spectrum.

11 of ligand binding and return to the initial emission spectrum.

12 he solution, resulting also in change of its emission spectrum.

13 l molecular fingerprints in their long-lived emission spectrum.

14 ed iron K line and Compton hump in the X-ray emission spectrum.

15 otein pair and alteration of the fluorescent emission spectrum.

16 on in the Lamb-Dicke regime with sub-Doppler emission spectrum.

17 ing there a 'squeezed' narrowband near-field emission spectrum.

18 al (3D) imaging for four dyes 10 nm apart in emission spectrum.

19 aphene and substrate can be used to tune the emission spectrum.

20 ent, allowing for wavelength shifting of the emission spectrum.

21 the PpIX spectral signature in the collected emission spectrum (0.014-0.041 mug/ml in phantoms), and

22 random lasers often have a relatively broad emission spectrum, a random laser that utilizes vibratio

23 ed from hot objects is to tailor the thermal emission spectrum according to the desired application.

24 ganic light emitting diode (OLED), having an emission spectrum adapted to algal absorption spectrum a

25 anoparticles (UCNPs) were customized with an emission spectrum aligned to flavin absorption and conju

26 m with the blue most spectral feature of the emission spectrum allows an unambiguous assignment of th

27 A 4 nm blue-shifted fluorescence emission spectrum and a 25% increase in ellipticity at 2

28 nocrystals have a narrow, tunable, symmetric emission spectrum and are photochemically stable.

29 n to be topotecan from the similarity of the emission spectrum and decay times observed for one-photo

30 thod enables on-demand, low-power control of emission spectrum and nanoscale localization of color ce

31 substitutions are commonly used to shift the emission spectrum and optimize luminescent properties, b

32 ding to characteristic Rabi splitting of the emission spectrum and providing the first example of an

33 bstrate binding leads to a blue shift in the emission spectrum and reduction in accessibility to pola

34 nt, Arg-144 --> Lys cause a red-shift in the emission spectrum and render the fluorophore more access

35 ngths near voltage-sensitive portions of the emission spectrum and shifts in the complete emission sp

36 nt of novel thermal sources that control the emission spectrum and the angular emission pattern is of

37 solar cells, the mismatch between the Sun's emission spectrum and the cells' absorption profile limi

38 The device emission spectrum and the chemical structure of Pt-16 ar

39 We study the sensor's emission spectrum and the distance dependence between th

40 t output versus drive current, with a narrow emission spectrum and the formation of a beam above the

41 c properties of nile red to extract both the emission spectrum and the position of each dye molecule

42 Receptor 2 exhibits a dual monomer-excimer emission spectrum and undergoes a remarked ratiometry in

43 e redox potential of the ferrocene unit, the emission spectrum, and a noticeable color change from ye

44 sensitivity limit (8.51 kBq/muL for (68)Ga), emission spectrum, and ex vivo and in vivo examples are

45 reened for relative light output, a shift in emission spectrum, and glow-type light emission kinetics

46 We simultaneously observe PL brightness, emission spectrum, and in-plane excitation dipole orient

47 vibronic progression in the low-temperature emission spectrum, and solvent dependence.

48 py, quantum yield, and center of mass of the emission spectrum are consistent with the movement of th

49 nt and a 2 nm blue-shift in the fluorescence emission spectrum are consistent with tryptophan residue

50 orption spectrum emulating that of the solar emission spectrum are ideal, given that such combination

51 The peak wavelength and shape of the emission spectrum are not altered by either of these eff

52 nergy distribution and the band shape of the emission spectrum are related to the nature of the 4f-5d

53 The emission spectrum around 511 kiloelectronvolts shows cle

54 to use their characteristic, size-dependent emission spectrum as optical barcode but so far there is

55 aging has been hampered by its 481 nm peaked emission spectrum, as blue wavelengths are strongly atte

56 e effectively, with lamps that have a narrow emission spectrum at 311 +/- 2 nm.

57 rs exhibit a strong room-temperature near-IR emission spectrum at 950 nm.

58 simultaneous measurement of the fluorescence emission spectrum at all sample points.

59 ation at 547 nm yields a glutamate-dependent emission spectrum between 550 and 700 nm that can be exp

60 g emission in the fluorescence line-narrowed emission spectrum can be accounted for, in part, by the

61 The thermal emission spectrum can be strongly modified through the e

62 micontinuous films, and thus the fluorescent emission spectrum, can be controlled and significantly i

63 referencing, pH-sensitive dye SNAFL-1, whose emission spectrum changes at lambda = 550 in response to

64 the remaining pools also had a blue-shifted emission spectrum consistent with immobilized NADH.

65 The emission spectrum contains 6 lines at 320, 400, 490, 560

66 The change in emission spectrum correlated with a loss in the ability

67 d on assembly state-dependent changes in the emission spectrum demonstrated cell proliferation rate-d

68 The shape of the prodan emission spectrum detected both liquid-solid and order-d

69 ssion band fluorescent molecular rotor (FMR) emission spectrum displays a second peak at 620 nm, whic

70 device, suggested the AuI does not quell the emission spectrum for either the triple cation or the MA

71 ort ground-based observations of the dayside emission spectrum for HD 189733b between 2.0-2.4 microm

72 ctam ring in CCF2, changing its fluorescence emission spectrum from green (520 nm) to blue (447 nm) a

73 ed-E5, a fluorescent protein that shifts its emission spectrum from green to red over time, was expre

74 The emission spectrum from the QDs was optimized to match th

75 Time-resolved measurements of the emission spectrum have been extended to a six decade tim

76 formed from above two reactions a bright CL emission spectrum having two peaks (518 nm for fluoresce

77 site, DC6C displayed a strongly blue-shifted emission spectrum, higher intrinsic fluorescence, and we

78 F80W:V21K also shows a shifted fluorescence emission spectrum in both di(C18:1)PC and di(C18:1)PA an

79 ction phenotype, and a shift in fluorescence emission spectrum in di(C18:1)PC not reversed in di(C18:

80 t in a significant shift in the fluorescence emission spectrum in dioleoylphosphatidylcholine [di(C18

81 r cell wall-to-lumen ratio and a distinct UV emission spectrum in outer cortical cells.

82 units of AA Tauri possesses a rich molecular emission spectrum in the mid-infrared, indicating a high

83 the descriptors could be used to predict the emission spectrum in the NIR-II region only if DeltaE(gs

84 nifit displays a GABA-dependent fluorescence emission spectrum in the range of 500-700 nm that permit

85 scence lifetime, good photostability, and an emission spectrum in the visible region.

86 ow for the control and tuning of the thermal emission spectrum in the wavelength regime from [Formula

87 The encoded bead emission spectrum indicates that the peak position of th

88 max) = 499 nm) matches the photoluminescence emission spectrum, indicating that the emission is from

89 External control of the emission spectrum is also achieved, highlighting the fle

90 itio calculations, that the structure of the emission spectrum is attenuated by the presence of coher

91 The dye's fluorescence emission spectrum is blue-shifted 60 nm in liquid-ordere

92 The light-emitting diode emission spectrum is centered around 1100 nm and the emi

93 The emission spectrum is characterised by multiple peaks wit

94 The emission spectrum is characterized by a broad band cente

95 This shift in emission spectrum is due to the transfer of the absorbed

96 ntally that the 1b(1) splitting in the x-ray emission spectrum is related to dynamics and is not evid

97 uorescent fatty acid analogue Laurdan, whose emission spectrum is sensitive to structural differences

98 laced by a dye molecule (coumarin 102) whose emission spectrum is sensitive to the local electric fie

99 ation of both TPrA and Al(HQS)3, and the ECL emission spectrum (lambda(max) = 499 nm) matches the pho

100 Our data show an anomalous dependence of emission spectrum, lifetimes, and quantum yield (QY) on

101 atively low quantum efficiencies and a broad emission spectrum, limiting potential applications.

102 However, for blue perovskite LEDs, the emission spectrum line width is broadened to over 25 nm

103 d product displays blue fluorescence with an emission spectrum matching the bioluminescence spectrum

104 llows for resolution of subcomponents of the emission spectrum not previously possible at room temper

105 The emission spectrum observed during chemical reduction mat

106 For example, whereas the emission spectrum of 10(-3) M N-hexyl-N-methyl-3-(pyren-

107 The emission spectrum of 2 is found to depend on the nature

108 to unassembled tubulin was observed, but the emission spectrum of 2-AB-PT in the presence of the tubu

109 Exploiting the gamma-emission spectrum of 99mTc, increased uptake of Tc-Q58 i

110 nt changes in the intensity and shape of the emission spectrum of [K(7)(NBD),Nle(12)] alpha-factor du

111 Further, the emission spectrum of a blend of singly doped nanoparticl

112 ploit this 'self-mixing' effect to infer the emission spectrum of a semiconductor laser using a laser

113 When corrected for scattering, the emission spectrum of a thick lipofuscin deposit or intra

114 The shape of the emission spectrum of a thick sample of lipofuscin granul

115 on of individual granules also resembles the emission spectrum of A2E, but the spectrum of individual

116 the very strong spectral overlap between the emission spectrum of benzimidazole (energy donor) and th

117 The bioluminescence emission spectrum of both mutants was normal, and both y

118 ovide a possible explanation for the unusual emission spectrum of C5 protein.

119 d characteristic changes in the fluorescence emission spectrum of dansyl-calmodulin, and had an appar

120 ed characteristic shifts in the fluorescence emission spectrum of dansyl-CaM, with apparent affinitie

121 The fluorescence emission spectrum of Dauda bound to KcsA in bilayers of

122 n shows good agreement with the fluorescence emission spectrum of DSBFNPC.

123 Using intrinsic tryptophan fluorescence emission spectrum of ECD2 polypeptide and fluorescence a

124 or substitutions that alter the fluorescence emission spectrum of environmentally sensitive fluoresce

125 canning by exploiting the position-dependent emission spectrum of fluorophores above a simple biocomp

126 We detect in NGC 1333-IRAS 4B a rich emission spectrum of H2O, at wavelengths 20-37 microm, w

127 The ability to tailor the emission spectrum of high-temperature sources may find a

128 Trp17 dominates the emission spectrum of IL-1ra, while Trp120 is quenched pr

129 The emission spectrum of individual RPE molecules also displ

130 The emission spectrum of internalized A2E was also determine

131 An excimer peak was present in the emission spectrum of labeled S265C F-actin and in the la

132 The emission spectrum of LAURDAN was examined by two-photon

133 iloelectronvolts has long been sought in the emission spectrum of microquasars as evidence for the ex

134 e identify a spectrally silent region in the emission spectrum of most physical matrices.

135 The results show that the uncorrected emission spectrum of pyrene-poly(C) decreases by a facto

136 The emission spectrum of recombinant PR1 was similar to the

137 rescence spectroscopy performance (i.e., the emission spectrum of rhodamine 6G can be acquired with g

138 e components (dark, shot, and flicker), (ii) emission spectrum of the analyte, (iii) emission spectru

139 ylation resulted in an 8-nm red-shift of the emission spectrum of the attached IAANS probe and a redu

140 The emission spectrum of the btIr- and btpIr-based devices (

141 ce of Mg(2+); in the presence of Mg(2+), the emission spectrum of the CheA(F455W):ATP complex was red

142 c)(4)](-) absorption spectrum and in the f-f emission spectrum of the Cm(III) mellitate upon pressuri

143 charge-coupled device detector monitors the emission spectrum of the coil, which includes the dark l

144 using 100 discrete energy points in the beta-emission spectrum of the different radionuclides.

145 The NaCl-induced change in the Trp-31 emission spectrum of the double mutant on the zwitterion

146 W subcomplex indicates that the fluorescence emission spectrum of the enzyme is maximally perturbed w

147 of the substrate overlapped the fluorescence emission spectrum of the enzyme, these abnormalities wer

148 The emission spectrum of the fluorescence of the tryptophan

149 In this assay system, changes in the emission spectrum of the fluorophore acrylodan, induced

150 diation has the same spectral profile as the emission spectrum of the fluorophores.

151 een reported that shifts in the fluorescence emission spectrum of the introduced tryptophans in the b

152 The emission spectrum of the laser-generated breakdown plasm

153 the tubulin-colchicine complex resembled the emission spectrum of the ligand bound to microtubules.

154 e that ET is not dependent on overlap in the emission spectrum of the luminophore and the absorption

155 A close to ideal overlap between the emission spectrum of the NanoLuciferase receptor tag and

156 (ii) emission spectrum of the analyte, (iii) emission spectrum of the optical background, and (iv) tr

157 extractions, the nature of the fluorescence emission spectrum of the PEG phase after extraction was

158 tion in a high-signal-to-noise, mid-infrared emission spectrum of the planet itself.

159 and H(2)O absorption features in the thermal emission spectrum of the planet measured by the James We

160 Here we report a thermal emission spectrum of the planet obtained by the NIRCam a

161 did not reveal the presence of water in the emission spectrum of the planet.

162 We found that the emission spectrum of the protonated form does not exhibi

163 - and far-UV CD spectra, in the fluorescence emission spectrum of the single tryptophan residue at po

164 intensity and blue-shift of the fluorescence emission spectrum of the single tryptophan residue of th

165 The fluorescence emission spectrum of the single tryptophan residue-conta

166 Here we present a dayside thermal emission spectrum of the ultra-hot Jupiter WASP-18b obta

167 proach is the voltage-dependent shift in the emission spectrum of the voltage-sensitive dye di-8-buty

168 The fluorescence emission spectrum of this enzyme is quenched differentia

169 The emission spectrum of this initial species mirrors the ab

170 e (TL), OSL, radioluminescence (RL), and OSL emission spectrum of this new material and carried out a

171 The emission spectrum of this probe indicated that the C ter

172 In contrast, the emission spectrum of Trp-141, located on the NH2-termina

173 (i) The fluorescence emission spectrum of Trp-151 and fluorescence-quenching

174 a pronounced blue shift in the fluorescence emission spectrum of wild type MBP and a peak at about 2

175 ing produced a red shift in the fluorescence emission spectrum of wild type MBP and a sharp hypochrom

176 pendent KSV values as well as a blue-shifted emission spectrum on O2 addition.

177 er desirable features, such as a red-shifted emission spectrum or enhanced photostability.

178 h ultraviolet B from lamps that have a broad emission spectrum or, more effectively, with lamps that

179 e dynamical weather structures may alter the emission spectrum over time.

180 ties (including lifetime, quantum yield, and emission spectrum) over time or in different chemical en

181 luorescent molecules of the same type if the emission spectrum overlaps with the absorption spectrum.

182 iguing phenomena, such as the Mollow-triplet emission spectrum, photon antibunching and coherent phot

183 ters its intrinsic (tryptophan) fluorescence emission spectrum, providing a strong indication that li

184 The emission spectrum reveals characteristic Raman peaks of

185 We used QDs and emission spectrum scanning multiphoton microscopy to dev

186 large unilamellar lipid vesicles (LUVs), its emission spectrum shifts up to 30 nm to the blue with in

187 e, in the H117T mutant the 77-K fluorescence emission spectrum shows a much smaller amplitude at 695

188 this fluorophore is the observation that its emission spectrum shows near-zero overlap with the absor

189 metry of inhibition for thrombin and gave an emission spectrum that discriminated between native, cle

190 resence of 0.05 mol % CdS QDs, which have an emission spectrum that overlaps the absorption spectrum

191 l below the peak wavelength of the blackbody emission spectrum, the radiative heat flux increases by

192 m to long lifetime species with blue-shifted emission spectrum; the activation energy for nonradiativ

193 from short lifetime species with red-shifted emission spectrum to long lifetime species with blue-shi

194 orescence emission significantly, shifts the emission spectrum to shorter wavelengths, and also induc

195 ly, accompanied by significant shifts in the emission spectrum to shorter wavelengths.

196 The change in emission spectrum upon vesicle fusion is directly relate

197 vity of unstructured metals, resulting in an emission spectrum useful for solar thermophotovoltaics.

198 th recordings, or from opposite sides of the emission spectrum, varied linearly with the amplitude of

199 on of the polymer, leading to changes in the emission spectrum via Forster Resonance Energy Transfer

200 served, but the low-temperature fluorescence emission spectrum was drastically altered in the mutants

201 amatic spectral shifts in the absorption and emission spectrum wavelengths with added donor groups ar

202 emission spectrum and shifts in the complete emission spectrum were determined for emission from plas

203 apoA-I that exhibits a distinct fluorescence emission spectrum when in different states of lipid asso

204 ft manifests as a resonance splitting in the emission spectrum, which can be detected as a beat frequ

205 sing absorption profiles coinciding with the emission spectrum, which together fundamentally limit th

206 Blue shifts in the emission spectrum with time after excitation and systema