ライフサイエンスコーパス: visible absorption

1 , are stable in aqueous solution with strong visible absorption.

2 m peroxidase-mediated oxidation based on its visible absorption.

3 to explore other metal clusters with broader visible absorption.

4 gas chromatography-mass spectrometry, and UV-visible absorption.

5 no-naphthalene-1-sulfonic acid fluorescence, visible absorption, activity, and differential scanning

6 l and spectroscopic techniques, including UV-visible absorption and 57Fe Mossbauer spectroscopies, ha

7 ers can be produced at 20 degrees C and have visible absorption and CD spectra identical to the dimer

8 Visible absorption and CD spectra suggest the cobalt exi

9 UV-visible absorption and CD, resonance Raman, EPR, ENDOR,

10 Enzyme kinetics coupled to UV/visible absorption and electron paramagnetic resonance (

11 center in azurin has been investigated by UV-visible absorption and electron paramagnetic resonance s

12 a characteristic bathochromic shift of their visible absorption and emission bands by ca. 200 nm comp

13 ay absorption spectroscopy, together with UV-visible absorption and emission spectroscopy, indicates

14 , cyclic voltammetry, 1H and 19F NMR, and UV visible absorption and emission spectroscopy.

15 e electrochemical scan cycles as shown by UV-visible absorption and energy dispersive X-ray spectrosc

16 Stopped-flow UV-visible absorption and freeze-quench Mossbauer experimen

17 dialysate and retentate were analyzed by UV-visible absorption and high-resolution Orbitrap mass spe

18 fraction, cyclic voltammetry and NMR, and UV-visible absorption and low-temperature luminescence spec

19 litting parameters, respectively) and the UV-visible absorption and magnetic CD spectra are dominated

20 UV-visible absorption and magnetic circular dichroism (MCD)

21 The UV--visible absorption and magnetic circular dichroism spect

22 d II) or Compound ES] is characterized by UV-visible absorption and magnetic circular dichroism spect

23 Visible absorption and multipeaked fluorescence excitati

24 smission Electron Microscopy (TEM), FTIR, UV-Visible absorption and Photoluminiscence (PL) techniques

25 UV-visible absorption and powder X-ray diffraction measurem

26 The visible absorption and resonance Raman spectroscopic pro

27 d a [Fe(4)S(4)](2+,+) cluster as shown by UV-visible absorption and resonance Raman studies of the ox

28 atic polycyclic compounds resulted in strong visible absorption and sharp fluorescence with efficient

29 Characterization with ultraviolet visible absorption and ultraviolet resonance Raman spect

30 -reduced samples using the combination of UV-visible absorption and variable-temperature magnetic cir

31 -modified forms, using the combination of UV-visible absorption and variable-temperature magnetic cir

32 UV/visible absorption and VTMCD studies facilitate resoluti

33 itration in proteins was detected by UV/Vis (visible) absorption and Western blot analysis.

34 03 mm/s, DeltaE(Q) = 0.58 +/- 0.03 mm/s), UV-visible absorption, and circular dichroism studies of th

35 g high-performance liquid chromatography, UV-visible absorption, and electron spin resonance spectros

36 ctron microscopy (HRTEM), zeta potential, UV-visible absorption, and photoluminescence spectroscopy.

37 R, resonance Raman, Fourier transform IR, UV-visible absorption, and variable-temperature variable-fi

38 nsitions and accompanying blue-shifts of the visible absorptions, as the ligand pi-systems are extend

39 21G azurin resulted in a species with strong visible absorptions at 350 and 452 nm and a relatively l

40 and we show this species to have a distinct visible absorption band and a transition moment that we

41 For one of the anionic guests, a visible absorption band appears upon host-guest formatio

42 ads to a decrease in the magnitude of the UV-visible absorption band at approximately 400 nm that we

43 However, the visible absorption band does not match that of the monom

44 eaction is observed upon excitation into the visible absorption band of ethidium, higher-energy irrad

45 y toward p-nitrophenyl phosphate, exhibits a visible absorption band with lambda(max) at 570 nm.

46 7% of the observed spectral evolution in the visible absorption bands and 4% in the MORD.

47 and others lead to a model in which the two visible absorption bands correspond to GFP in two ground

48 The observed UV-visible absorption bands for the Fe(3+)-nitrile intermed

49 ts bathochromic shifts in both the Soret and visible absorption bands in the presence of Cc and an ab

50 e effect of nonplanar deformations on the UV-visible absorption bands is then probed experimentally w

51 contrast, time-resolved perturbations of the visible absorption bands of L29F and V68L deoxyMb genera

52 iew that the large red shifts seen in the UV-visible absorption bands of peripherally crowded nonplan

53 d or Co 3d --> corrin pi* transitions and by visible absorption bands similar to the corrin pi-->pi*

54 n the cytochrome Soret (gamma) and Q (alpha) visible absorption bands, respectively.

55 t a qualitative picture of the origin of the visible absorption based on molecular orbital perturbati

56 he switched state as indicated by an intense visible absorption (ca. 530 nm) and near-infrared (ca. 1

57 In this work, resonance Raman and UV-visible absorption/CD spectroscopies and MS were used to

58 uestions, in vitro spectroscopic studies (UV-visible absorption/CD, resonance Raman and Mossbauer) ha

59 6-N2 dihedral angle could be consistent with visible absorption changes and the chemical shift differ

60 re quantitated by simultaneous monitoring of visible absorption changes in the protein film.

61 We compared femtosecond transient visible absorption changes of normal, white-light (WL)-g

62 ist at C5 could satisfy the observed NMR and visible absorption changes.

63 was quantitated by simultaneously monitoring visible absorption changes.

64 sfolding of the opsins as observed by the UV/visible absorption characteristics and by separation of

65 catechuate 3,4-dioxygenase (3,4-PCD) with UV/visible absorption, circular dichroism (CD), magnetic CD

66 Visible absorption, circular dichroism, and electron par

67 Visible absorption, circular dichroism, and fluorescent

68 d forms have been characterized using the UV-visible absorption, circular dichroism, and variable-tem

69 In this study, UV-visible absorption, circular dichroism, resonance Raman

70 -anilinonaphthalene-1-sulfonic acid binding, visible absorption, copper content, and oxidase activity

71 ing a five points regression graph of the UV-visible absorption data collected at the wavelength of m

72 iquid chromatography (HPLC) with ultraviolet-visible absorption detection and tandem mass spectrometr

73 chromatograms generated with conventional UV-visible absorption detectors.

74 We show that the shift of the main visible absorption edge does not constrain the point of

75 UV-visible absorption, electron paramagnetic resonance, and

76 Combining UV-visible absorption, EPR, and enzyme activity measurement

77 esults, in combination with complementary UV-visible absorption, EPR, and resonance Raman spectroscop

78 Analyses using UV-visible absorption, far-UV circular dichroism, and EPR s

79 The metal ion content coupled with the visible absorption feature is compatible with the presen

80 transition of the solvent and the absence of visible absorption features associated with the Mn(II)2

81 and subunit size, amino-acid composition, UV-visible absorption, heme content, pH optimum, inhibitor

82 esonance, mass spectrometry, and ultraviolet-visible absorption identify the enhancer as lumichrome,

83 ow these results may relate to the origin of visible absorption in (Ga(1-x)Zn(x))(N(1-x)O(x)) and its

84 This product was characterized by visible absorption, infrared absorption, and mass and NM

85 We also find that the strength of the visible absorption is comparable to that of direct band

86 The visible absorption is determined to be dependent on mixi

87 In this work, we present visible absorption, light-scattering, and resonance Rama

88 he self-assembly of these molecules using UV/visible absorption, luminescence, and circular dichroism

89 The UV-visible absorption, magnetic circular dichroism (MCD) an

90 mparison with that of wild-type nNOS with UV-visible absorption, magnetic circular dichroism, and ele

91 BPR, respectively), on the basis of both the visible absorption maxima (530 versus 490 nm) and photoc

92 varying degrees of blue-shift in the flavin visible absorption maxima while visible CD spectra of th

93 rameters obtained from the wavelengths of UV/Visible absorption maxima with solute H-bond parameters

94 S oxygenase domain thus prepared exhibits UV-visible absorption (maxima at 419 and 553 nm, shoulder a

95 a slow light inactivation and a red-shifted visible absorption maximum as compared with the more ext

96 Transient infrared and visible absorption measurements along with density funct

97 ich are in excellent agreement with previous visible absorption measurements, showing the molecular m

98 found for the mutant D76N, in agreement with visible absorption measurements.

99 scaffold protein has been demonstrated by UV-visible absorption, Mossbauer, and resonance Raman spect

100 tical and spectroscopic methods including UV-visible absorption, Mossbauer, EPR, and HYSCORE spectros

101 ereof were shown to effectively modulate the visible absorption of anthocyanins from strawberry (Frag

102 ipates in proton transfers and regulates the visible absorption of bacteriorhodopsin and its photoint

103 UV-visible absorption of f-HupS has bands approximately 340

104 Under these circumstances, the visible absorption of K is expected to be more red-shift

105 EPR and UV-visible absorption of purified recombinant human ferroch

106 by direct observation of the characteristic visible absorption of the oxidized and inhibited states.

107 imately 1 micros) excited-state lifetime and visible absorption of the sensor simplifies measurements

108 tride (InN) nanocrystals that exhibit both a visible absorption onset ( approximately 1.8 eV) and a s

109 DNA precipitated is accurately determined by visible absorption or fluorescence spectroscopic analyse

110 in reduction was measured either directly by visible absorption or indirectly by coupling ferredoxin

111 ted at 85 degreesC for 2 h, as judged by its visible absorption properties.

112 rge-transfer interactions also determine the visible absorption properties.

113 The two [4Fe-4S]2+ clusters have similar UV-visible absorption, resonance Raman, and Mossbauer prope

114 een investigated using the combination of UV-visible absorption, resonance Raman, and Mossbauer spect

115 Using UV-visible absorption, resonance Raman, and stopped-flow sp

116 This combination of strong broadband visible absorption, sharp near-infrared emission, and lo

117 The elution profile, visible absorption spectra and mass spectra were compare

118 Their visible absorption spectra are dominated by intense pi -

119 The differences in visible absorption spectra between the most common grape

120 ctroelectrochemical measurements afforded UV-visible absorption spectra for both the radical cations

121 Kinetic analysis and UV-visible absorption spectra indicate that the ability of

122 UV-visible absorption spectra indicated that the catalase i

123 ces, core volumes, (57)Fe isomer shifts, and visible absorption spectra make evident the high degree

124 The UV-visible absorption spectra obtained from freshly purifie

125 The static ultraviolet-visible absorption spectra of holo-EAL and ternary compl

126 room temperature was determined from the UV/visible absorption spectra of several pH indicators.

127 The visible absorption spectra of such strains indicate a hi

128 ation that is clearly evident in the EPR and visible absorption spectra of the protein and suggests t

129 ured electrochemical redox potentials and UV-visible absorption spectra reveal little or no ground-st

130 Resonance Raman and UV-visible absorption spectra show that nickel(II) microper

131 EPR and UV-visible absorption spectra show that protonation of the

132 Indeed, the visible absorption spectra show the photoinduced reducti

133 Mn(III)SOD from Thermus thermophilus and by visible absorption spectra showing that azide binding to

134 These both had ultraviolet-visible absorption spectra similar to milk xanthine oxid

135 d Schiff base, and the pH-independence of UV-visible absorption spectra suggests that the protonated

136 The change in the UV--visible absorption spectra upon modification indicated t

137 to contain [2Fe-2S] clusters of which the UV-visible absorption spectra were identical to that of the

138 homolog purified as a homodimer, and the UV-visible absorption spectra were nearly identical to that

139 UV-visible absorption spectra were obtained for the oxidize

140 PP, however, TCPP aggregates below pH 1 have visible absorption spectra which depend on the counterio

141 rhodopsin by the following criteria: (i) UV-visible absorption spectra, (ii) the formation of metarh

142 ncreased rhombicity evident from its EPR and visible absorption spectra, and an increase in distance

143 The molecular masses, UV-visible absorption spectra, and cofactor contents of the

144 thalene-reacted ISPNAP gave almost identical visible absorption spectra.

145 e site and resulted in significantly shifted visible absorption spectra.

146 Visible-absorption spectra of purified recombinant TcAPx

147 Partition binding and visible absorption spectral measurements on the gel were

148 The ultraviolet-visible absorption spectrometry (UV-vis), transmission e

149 n both crystal and solution using EPR and UV-visible absorption spectrometry as a function of tempera

150 scopy, electron impact mass spectroscopy, UV visible absorption spectrometry, GC and high pressure li

151 nce liquid chromatography (HPLC)-ultraviolet/visible absorption spectrophotometry (UV/Vis)-mass spect

152 Browning was monitored by UV-visible absorption spectrophotometry and UHPLC-DAD.

153 voltammetry, atomic force microscopy, and UV-visible absorption spectrophotometry.

154 oteins also makes it possible to observe its visible absorption spectroscopic features more clearly.

155 r confirmed by site-directed mutagenesis and visible absorption spectroscopic studies.

156 Femtosecond transient IR and visible absorption spectroscopies have been employed to

157 onal theory, nuclear magnetic resonance, and visible absorption spectroscopies provide valuable insig

158 From X-ray absorption, EPR, and UV/visible absorption spectroscopies, we have shown that al

159 etic parameters with the aid of (1)H NMR and visible absorption spectroscopies.

160 EM), X-ray diffraction (XRD) and ultraviolet-visible absorption spectroscopy (UV-vis).

161 UV-visible absorption spectroscopy also revealed the presen

162 d from purified NirS and characterized by UV-visible absorption spectroscopy and finally identified b

163 ted with pH-dependent resonance Raman and UV-visible absorption spectroscopy and molecular mechanics

164 the acrylic double bond, as indicated by UV-visible absorption spectroscopy and resonance Raman spec

165 UV-visible absorption spectroscopy and transmission electro

166 inic acid in n-dodecane have been studied by visible absorption spectroscopy and X-ray absorption fin

167 by 1H and 19F NMR for 4 and by 1H NMR and UV-visible absorption spectroscopy for 3.

168 ymes with magnetic circular dichroism and UV-visible absorption spectroscopy in order to determine th

169 ) nanocrystal formation was studied using UV-visible absorption spectroscopy integrated with an autom

170 UV-visible absorption spectroscopy of both human and murine

171 e photoproduct dynamics by using ultraviolet-visible absorption spectroscopy on the 10(-7)-10(-1) s t

172 UV/visible absorption spectroscopy showed that the pKa is >

173 extraction followed by HPLC analysis and UV-visible absorption spectroscopy support the above model

174 In this report, using visible absorption spectroscopy we show that the electro

175 e exclusion chromatography, (1)H NMR, and UV/visible absorption spectroscopy with cobalt(II) as a spe

176 ingle-crystal x-ray diffraction, ultraviolet-visible absorption spectroscopy, and scanning electron m

177 With the aid of UV-visible absorption spectroscopy, fluorescence spectrosco

178 This compound was characterized by visible absorption spectroscopy, infrared spectroscopy,

179 orm IR difference spectroscopy combined with visible absorption spectroscopy, isotope labeling, and e

180 yl)porphyrins have been investigated with UV-visible absorption spectroscopy, resonance Raman spectro

181 Characterization with ultraviolet-visible absorption spectroscopy, solid-state nuclear mag

182 The nanocrystals are characterized using UV-visible absorption spectroscopy, transmission electron m

183 fluorescence microscopy, fluorescence and UV-visible absorption spectroscopy, zeta potential analysis

184 mine, and tyramine was carried out, using UV-visible absorption spectroscopy.

185 rystal lattice is confirmed by time-resolved visible absorption spectroscopy.

186 xidase has been investigated by Raman and UV-visible absorption spectroscopy.

187 etal binding site and probed by EXAFS and UV-visible absorption spectroscopy.

188 of the modified HBC were investigated by UV/visible absorption spectroscopy.

189 nant human CBS by static and stopped-flow UV-visible absorption spectroscopy.

190 as A2E levels were quantified by HPLC and UV-visible absorption spectroscopy.

191 cale at 295 K by using transient ultraviolet-visible absorption spectroscopy.

192 gives rise to a shoulder at 391 nm in the UV/visible absorption spectrum and indicates that the hydro

193 of SRFA in the dialysate had a different UV-visible absorption spectrum and was enriched in low mole

194 litatively similar perturbations of the MTOX visible absorption spectrum are observed for complexes f

195 Co-TrzN showed a visible absorption spectrum characteristic of other memb

196 This double mutant had a UV-visible absorption spectrum consistent with a protonated

197 environmental sensitivity of quercetin's UV-visible absorption spectrum gave information about querc

198 The visible absorption spectrum in solution is characteristi

199 The peak of the excited-state visible absorption spectrum is shifted to ca. 490 nm, an

200 ATATGGCCATATAT)] have been examined by using visible absorption spectrum methods.

201 n of the DHOase secondary structure, but the visible absorption spectrum of a Co(2+)-substituted DHOa

202 The PAS instrument is used to measure the UV-visible absorption spectrum of ambient aerosol demonstra

203 The ultraviolet/visible absorption spectrum of E.NAD+ from denaturation-

204 The visible absorption spectrum of FeIIMb-CN has a split alp

205 In addition, the UV-visible absorption spectrum of H77Y Fe(II) CooA without

206 We also report that the maximum of the visible absorption spectrum of human MnSOD (epsilon480 =

207 the UV-visible absorption spectrum of L-Arg-bound ferric full l

208 h a positively charged Arg did not shift the visible absorption spectrum of PR.

209 llamine (SNAP), indicate a rapid loss of the visible absorption spectrum of the [2Fe-2S] cluster.

210 The visible absorption spectrum of the cobalt(II) complex is

211 ed by a bathochromically shifted band in the visible absorption spectrum of the DASA.

212 This yields a significant change in the visible absorption spectrum of the film, with a decrease

213 alently attached to the polypeptide, and the visible absorption spectrum of the mutant protein is ide

214 The dependence of the visible absorption spectrum of the oxy-ferrous complex o

215 The visible absorption spectrum of this intermediate closely

216 The visible absorption spectrum of W161F MnSOD in the inhibi

217 mol of S (2-) per ApbC monomer and had a UV-visible absorption spectrum similar to known [4Fe-4S] cl

218 n of the C9-linked perylene wire) exhibits a visible absorption spectrum that is the sum of the spect

219 rified N-terminal domain has an identical UV/visible absorption spectrum to the wild-type protein and

220 Q143N MnSOD lacked the visible absorption spectrum typical of wild-type Mn(III)

221 The UV-visible absorption spectrum was characteristic of iron-s

222 chromatography (HPTLC) and a characteristic visible absorption spectrum with a peak near 450 nm.

223 ectrum of the chromophores was compared with visible absorption spectrum, and both were deconvoluted.

224 concentrations is in agreement with CPO-II's visible absorption spectrum, which shows no change over

225 ibit intense metal-to-ligand charge-transfer visible absorptions that are red-shifted and more intens

226 buted to the broad, high oscillator strength visible absorption, the ordered molecular packing, and a

227 Further, we investigate the nature of this visible absorption using electron attachment/detachment

228 were investigated using a combination of UV-visible absorption, variable temperature magnetic circul

229 results, taken together with the previous UV-visible absorption, variable temperature magnetic circul

230 ty of methods including electrochemistry, UV-visible absorption, variable temperature photoluminescen

231 e been investigated by the combination of UV/visible absorption, variable-temperature magnetic circul

232 Visible absorption, visible circular dichroism, and elec

233 The UV-visible absorption, X- and Q-band EPR, and Cu EXAFS spec