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Principles of Fluorescence Spectroscopy

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PRINCIPLES OF FLUORESCENCE SPECTROSCOPY 603<br />

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78. Lakowicz JR, Cherek H, Gryczynski I, Joshi N, Johnson ML. 1987.<br />

Enhanced resolution <strong>of</strong> fluorescence anisotropy decays by simultaneous<br />

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81. Lakowicz JR, Gryczynski I, Cherek H, Laczko G. 1991. Anisotropy<br />

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Engelborghs Y. 1999. <strong>Fluorescence</strong> quenching in the DsbA protein<br />

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microstates <strong>of</strong> tryptophan. Proteins: Struct Funct Genet 37:253–263.<br />

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90. Rouviere N, Vincent M, Craescu CT, Gallay J. 1997.<br />

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92. Eftink MR, Ramsay GD, Burns L, Maki AH, Mann CJ, Matthews<br />

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93. Royer CA. 1992. Investigation <strong>of</strong> the structural determinants <strong>of</strong> the<br />

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95. Hirsch RE, Nagel RL. 1981. Conformational studies <strong>of</strong> hemoglobins<br />

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<strong>of</strong> red kangaroo, horse and sperm whale metmyoglobins.<br />

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98. Sebban P, Coppey M, Alpert B, Lindqvist L, Jameson DM. 1980.<br />

<strong>Fluorescence</strong> properties <strong>of</strong> porphyrin-globin from human hemoglobin.<br />

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99. Hochstrasser RM, Negus DK. 1984. Picosecond fluorescence decay<br />

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100. Bismuto E, Irace G, Gratton E. 1989. Multiple conformational states<br />

in myoglobin revealed by frequency domain fluorometry. Biochemistry<br />

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101. Willis KJ, Szabo AG, Zuker M, Ridgeway JM, Alpert B. 1990.<br />

<strong>Fluorescence</strong> decay kinetics <strong>of</strong> the tryptophyl residues <strong>of</strong> myoglobin:<br />

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Biochemistry 29:5270–5275.<br />

102. Gryczynski Z, Lubkowski J, Bucci E. 1995. Heme–protein interactions<br />

in horse heart myoglobin at neutral pH and exposed to acid<br />

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103. Janes SM, Holtom G, Ascenzi P, Brundri M, Hochstrasser RM. 1987.<br />

<strong>Fluorescence</strong> and energy transfer <strong>of</strong> tryptophans in Aplysia myoglobin.<br />

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104. Szabo AG, Krajcarski D, Zuker M, Alpert B. 1984. Conformational<br />

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105. Kamal JKA, Behere DV. 2001. Steady-state and picosecond timeresolved<br />

fluorescence studies on native and apo seed coat soybean<br />

peroxidase. Biochem Biophys Res Comm 289:427–433.<br />

106. Bucci E, Gryczynski Z, Fronticelli C, Gryczynski I, Lakowicz JR.<br />

1992. <strong>Fluorescence</strong> intensity and anisotropy decays <strong>of</strong> the intrinsic<br />

tryptophan emission <strong>of</strong> hemoglobin measured with a 10-GHz fluorometer<br />

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107. Toptygin D, Brand L. 2000. Spectrally- and time-resolved fluorescence<br />

emission <strong>of</strong> indole during solvent relaxation: a quantitative<br />

model. Chem Phys Lett 322:496–502.<br />

108. Lakowicz JR. 2000. On spectral relaxation in proteins. Photochem<br />

Photobiol 72(4):421–437.<br />

109. Vincent M, Gilles AM, Li de la Sierra IM, Briozzo P, Barzu O,<br />

Gallay J. 2000. Nanosecond fluorescence dynamic stokes shift <strong>of</strong><br />

tryptophan in a protein matrix. J Phys Chem B 104:11286–11295.<br />

110. Zhong D, Pal SK, Zhang D, Chan SI, Zewail AH. 2002. Femtosecond<br />

dynamics <strong>of</strong> rubredoxin: tryptophan solvation and resonance energy<br />

transfer in the protein. Proc Natl Acad Sci USA 99(1):13–18.<br />

111. Petushkov VN, van Stokkum IHM, Gobets B, van Mourik F, Lee J,<br />

van Grondelle R, Visser AJWG. 2003. Ultrafast fluorescence relaxation<br />

spectroscopy <strong>of</strong> 6,7-dimethyl-(8-ribityl)-lumazine and

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