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Lakowicz J.R. — Principles of Fluorescence Spectroscopy
Lakowicz J.R. — Principles of Fluorescence Spectroscopy



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Íàçâàíèå: Principles of Fluorescence Spectroscopy

Àâòîð: Lakowicz J.R.

Àííîòàöèÿ:

In the second edition of Principles I have attempted to maintain the emphasis on basics, while updating the examples to include more recent results from the literature. There is a new chapter providing an overview of extrinisic fluorophores. The discussion of timeresolved measurements has been expanded to two chapters. Quenching has also been expanded in two chapters. Energy transfer and anisotropy have each been expanded to three chapters. There is also a new chapter on fluorescence sensing. To enhance the usefulness of this book as a textbook, most chapters are followed by a set of problems. Sections which describe advanced topics are indicated as such, to allow these sections to be skipped in an introduction course. Glossaries are provided for commonly used acronyms and mathematical symbols. For those wanting additional informtion, the final appendix contains a list of recommended books which expand on various specialized topics.


ßçûê: en

Ðóáðèêà: Ôèçèêà/

Ñòàòóñ ïðåäìåòíîãî óêàçàòåëÿ: Ãîòîâ óêàçàòåëü ñ íîìåðàìè ñòðàíèö

ed2k: ed2k stats

Èçäàíèå: 2nd

Ãîä èçäàíèÿ: 1999

Êîëè÷åñòâî ñòðàíèö: 725

Äîáàâëåíà â êàòàëîã: 23.02.2007

Îïåðàöèè: Ïîëîæèòü íà ïîëêó | Ñêîïèðîâàòü ññûëêó äëÿ ôîðóìà | Ñêîïèðîâàòü ID
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Ïðåäìåòíûé óêàçàòåëü
Phase-sensitive and phase-resolved emission spectra, theory of phase-sensitive detection, high-frequency or tow-frequency      626—627
Phase-sensitive and phase-resolved emission spectra, theory of phase-sensitive detection, phase suppression      623—624
Phenol, corrected emission spectra      642 643
Phenol, excited-state reactions      515
Phenol, intensity decays      488
Phenol, quantum yield standards      53
Phenylalanine      64
Phenylalanine, corrected emission spectra      642
Phenylalanine, excimer formation by      452
Phenylalanine, quantum yield standards      53
Phenylalanine, quenching of indole      453
Phenylalanine, resonance energy transfer in proteins      456 457
Phenylalanine, spectral properties      446 447
Phenylalanine, tryptophan fluorescence quenching of      503—504
Phosphate sensors      551 552
Phosphate, tyrosine absorption and emission      452
Phosphatide acid, energy transfer      384
Phosphatidylcholine, brominated      270 271
Phosphatidylcholine, dansyl, energy transfer      384
Phosphatidylcholine, NBD-labeled      270
Phosphatidylcholine, parinaroyl      364
Phosphatidylcholine, red-edge excitation      232—233
Phosphatidylethanolamine, energy transfer      372
Phosphatidylethanolamine, NBD-labeled      270
Phosphatidylethanolamine, ruthenium MLC      338
Phosphofructokinase      500
Phosphoglycerate kinase      409 410 416 472 473 500 580
Phospholipase $A_2$      334 462 493
Phosphorescence, defined      1
Phosphorescence, literature references      656
Phosphorescence, microsecond anisotropy decays      337
Phosphorescence, protein      508—509
Phosphorescence, quenching      258—259
Photobleaching      275 439
Photochemistry literature      655—656
Photodiodes (PD), amplification      110
Photodiodes (PD), fast      171
Photodiodes (PD), time-correlated aingle-photon counting      114
Photoinditced electron-transfer (PET) probes      536 551—552
Photomultipher tubes (PMT)      41—47
Photomultipher tubes (PMT), amplification      110
Photomultipher tubes (PMT), constant fraction discriminators      109—110
Photomultipher tubes (PMT), frequency-domain lifetime measurements      150—151
Photomultipher tubes (PMT), instrumentation      41—48
Photomultipher tubes (PMT), instrumentation, CCD detectors      47—48
Photomultipher tubes (PMT), instrumentation, designs and dynode chains      43—44
Photomultipher tubes (PMT), instrumentation, failure of, symptoms      47
Photomultipher tubes (PMT), instrumentation, hybrid      47 48
Photomultipher tubes (PMT), instrumentation, photon counting versus analog detection of fluorescence      46 48
Photomultipher tubes (PMT), instrumentation, spectral response      42—43
Photomultipher tubes (PMT), instrumentation, time response of      44—46
Photomultiplier tubes (PMT), pulse pileup      111
Photomultiplier tubes (PMT), time-correlated single-photon counting dynode chain      113—114
Photomultiplier tubes (PMT), time-correlated single-photon counting MCP      111—113
Photophysics literature      654
Photoselection      294
Photoslability, ruthenium MLCs      591
Phthalncyanines      75
Phycobilisomes      167
Phycotnliproteins      82—85 86 562
Phytofluors      86
Picolinium salts, quenching by      238 239
Picosecond dye lasers, tune-correlated single-photon counting      104—106
Picosecond lifetime standards      646 647 648 649
Picosecond lifetime standards, time-domain lifetime measurements      133—134
Picosecond relaxation in solvents      224—226
Picosecond relaxation in solvents, multtexponential relaxation in water      225—226
Picosecond relaxation in solvents, theory of time-dependent solvent relaxation      224—225
Picosecond rotational diffusion, oxytocin      336—337
Planar fluorophores with high symmetry, anisotropy      314
Polarity scales      193—194
Polarity, protein      452—453
Polarity, solvent effects on emission spectra      188
Polarity, solvent effects on emission spectra, calmodulin hydrophobic surface exposure      202—203
Polarity, solvent effects on emission spectra, Lippert equation      193—194
Polarity, solvent effects on emission spectra, membrane binding site      203—205
Polarity, solvent effects on emission spectra, membrane-bound fluorophore      186
Polarization      12 (see also “Anisotropy”)
Polarization assays, DNA hybridization      610—612
Polarization assays, immunoassays      563—565
Polarization spectra, electronic state resolution from      297—298
Polarization spectra, tyrosine and tryptophan      447—449
Polarization, anisotropy measurement      18—19 300—301
Polarization, fluorescence polarization immunoassays      563—565 582—584 585 586
Polarization, instrumentation      34 40—41 48—49
Polarization, monochromator characteristics      33—34
Polarization, transition metal-ligand complexes      416
polarizers      47—49
Poly+proline      373
Polycychc aromatic hydrocarbons      2—3 175 238
Polymer films      312—314
Polymer science literature      656
Polymerase chain reaction (PCR)      612
POPOP      3 52 645 649
Porphyrin ketone derivative      539
Potassium chloride      249
Potassium dihydrogen phosphate (KDP)      225
Potassium probes      78 543—544 545 552 554—556
Potassium-binding benzofuran bophthalate (PBFT)      16 17 554 555 556
PPD (2, 5-diphenyl-1,3,4-oxadiazole)      102 645 646
PPO      238 645 649
Primol 306      338
Principles of fluorescence      1—21
Principles of fluorescence, anisotropy, fluorescence      12—13
Principles of fluorescence, biochemical fluorophores      15—16 17
Principles of fluorescence, emission characteristics      6—9
Principles of fluorescence, emission characteristics, excitation wavelength independence      7—8
Principles of fluorescence, emission characteristics, mirror image rule, exceptions to      8—9
Principles of fluorescence, emission characteristics, Stokes shift      6—7
Principles of fluorescence, fluorescence sensing      19—21
Principles of fluorescence, Jablonski diagram      4—6
Principles of fluorescence, lifetimes and quantum yields      10—12
Principles of fluorescence, molecular information from fluorescence      17—19
Principles of fluorescence, molecular information from fluorescence, emission spectra and Stokes shift      17
Principles of fluorescence, molecular information from fluorescence, quenching      17
Principles of fluorescence, molecular information from fluorescence, resonance energy transfer      19
Principles of fluorescence, phenomenon      1—4
Principles of fluorescence, resonance energy transfer      13—14
Principles of fluorescence, steady-state and time-resolved fluorescence      14—15
probes      see “Fluorophores”
Prodan      71 205
Prodan derivatives      199
Prodan, apomyoglobin spectral relaxation      215—216
Prodan, phase-sensitive detection      621—624
Prodan, solvent effects      208
Prodan, solvent effects, fatty acid binding proteins      202
Prodan, solvent effects, LE and ICT states      200—201
Prodan, solvent effects, phase transition in membranes      201 —202
Prodan, solvent effects, protein association      202
Proflavine      247 248
Propanol      189 225
Propidium iodide      605
Propylene glycol, anisotropic rotational diffusion      357 358
Propylene glycol, diffusion coefficients in      427
Propylene glycol, perylene anisotropy spectra in      313 314
Propylene glycol, rotational correlation times in      497
Propylene glycol, tryptophan anisotropy spectra in      449
Protein binding and association reactions      see “Association reactions”
Protein fluorescence      445—481
Protein fluorescence, aromatic amino acids, phenylalanine, excimer formation by      452
Protein fluorescence, aromatic amino acids, spectral properties      445—452
Protein fluorescence, aromatic amino acids, tryptophan, solvent effects on emission      449—450
Protein fluorescence, aromatic amino acids, tyrosine and tip, excitation polarization spectra      447—449
Protein fluorescence, aromatic amino acids, tyrosine, excited-state ionization of      450—451
Protein fluorescence, aromatic amino acids, tyrosine, ground-state complex formation by      451—452
Protein fluorescence, association reactions      465—469
Protein fluorescence, association reactions, calmodulin, tryptophan mutants, calcium binding site resolution      468—469
Protein fluorescence, association reactions, emission maxima, anisotropy, and quenching constant for trp      466—467
Protein fluorescence, association reactions, ligand binding      465—466
Protein fluorescence, association reactions, melittin, self-association and calmodulin binding of      465
Protein fluorescence, challenge of      480—481
Protein fluorescence, decay-associated emission spectra      499—501
Protein fluorescence, energy transfer      456—461
Protein fluorescence, energy transfer, anisotropy decreases, detection of ET by      459
Protein fluorescence, energy transfer, interferon-$\gamma$, tyrosine-to-tryptophan energy transfer in      456—457
Protein fluorescence, energy transfer, phenylalanine-to-tyrosine      459—461
Protein fluorescence, energy transfer, RET efficiency quantitation      457—458
Protein fluorescence, general features      452—453
Protein fluorescence, genetically engineered proteins, spectral properties      469—473
Protein fluorescence, genetically engineered proteins, spectral properties, bamase      470—472
Protein fluorescence, genetically engineered proteins, spectral properties, human tissue factor      470
Protein fluorescence, genetically engineered proteins, spectral properties, protein tyrosyl transferase      469 470
Protein fluorescence, genetically engineered proteins, spectral properties, tyrosine proteins      472—473
Protein fluorescence, indole      449
Protein fluorescence, intensity decays      492—493
Protein fluorescence, literature references      654
Protein fluorescence, multiphoton excitation      479—480
Protein fluorescence, perspectives      509—510
Protein fluorescence, phenylalanine      460
Protein fluorescence, phosphorescence      508—509
Protein fluorescence, protein folding      473—474
Protein fluorescence, protein folding, lactate dehydrogenase      475—476 477
Protein fluorescence, protein folding, native and denatured, emission spectra for      485 476
Protein fluorescence, protein folding, ribonuclease mutants for      474
Protein fluorescence, protein folding, ribose binding protein      474—475
Protein fluorescence, quenching      239 464
Protein fluorescence, representative protems      501—508
Protein fluorescence, representative protems, annexinV      501—503
Protein fluorescence, spectral relaxation in      498—499
Protein fluorescence, structure, effects in intensity and anisotropy decay of ribonuclease $T_1$      493—496
Protein fluorescence, structure, effects in intensity and anisotropy decay of ribonuclease $T_1$, conformational heterogeneity      494—496
Protein fluorescence, structure, effects in intensity and anisotropy decay of ribonuclease $T_1$, protein unfolding      493—494
Protein fluorescence, time-resolved, anisotropy decays      496—498
Protein fluorescence, time-resolved, anisotropy decays in frequency domain      498
Protein fluorescence, time-resolved, anisotropy decays, melittin      497—498
Protein fluorescence, time-resolved, representative proteins, aspartate transcarbamylase, noninteracting tryptophan      504—505
Protein fluorescence, time-resolved, representative proteins, beme proteins, intrinsic fluorescence      506—508
Protein fluorescence, time-resolved, representative proteins, immunophilin FKBP59, phenylalanine quenching of tryptophan fluorescence      503—504
Protein fluorescence, time-resolved, representative proteins, thermophilic $\beta$-glycosidase      505—506 507
Protein fluorescence, time-resolved, representative proteins, tryptophan repressor, site-directed mutagenesis      504
Protein fluorescence, tryptophan analogs      476—479
Protein fluorescence, tryptophan and tyrosine, intensity decays      489—491
Protein fluorescence, tryptophan and tyrosine, intensity decays, decay-associated tryptophan emission spectra      490—491
Protein fluorescence, tryptophan and tyrosine, intensity decays, neutral tryptophan derivatives, intensity decays      491—492
Protein fluorescence, tryptophan emission in apolar ermronrnent      454—456
Protein fluorescence, tryptophan emission in apolar ermronrnent, azurins, emission spectra of molecules with one or two tryptophan      455—456
Protein fluorescence, tryptophan emission in apolar ermronrnent, azurins, site-directed mutagenesis of single-tryptophan      454—455
Protein fluorescence, tryptophan quenching      461 —465
Protein fluorescence, tryptophan quenching, emission maxima, effects of      461—463
Protein fluorescence, tryptophan quenching, emission spectra resolution by      464—465
Protein fluorescence, tryptophan quenching, fractional accessibility in raulti-tryptophan proteins      463—464
Protein fluorescence, tryptophan quenching, tyrosine      450
Protein fluorescence, tryptophan, intensity decays-rotarner model      488—489
Protein fulding      251—252 376 473—474
Protein kinase C      580
Protein kinase subunit dissociation      378—379
Protein tyrosyl transferase      473 474
Proteins      see also “Fluorophores”
Proteins as sensors      88—89
Proteins, anisotropy decay, collisional quenching, analysis with      360—361
Proteins, anisotropy decay, frequency-domain      335—337
Proteins, anisotropy decay, frequency-domain, apomyoglobin, rigid rotor      334—336
Proteins, anisotropy decay, frequency-domain, melittin      336
Proteins, anisotropy decay, frequency-domain, oxytocin, picosecund rotational diffusion      336—337
Proteins, anisotropy decay, time-domain      333—335
Proteins, anisotropy decay, time-domain, alcohol dehydrogenas      333
Proteins, anisotropy decay, time-domain, domain motions of immunoglobulins      334—335
Proteins, anisotropy decay, time-domain, free probe, effects of      335
Proteins, anisotropy decay, time-domain, phospholipase Az      334
Proteins, anisotropy, Perrin plots      306—308
Proteins, conformation      see “Conformation”
Proteins, distance distributions      401—410
Proteins, distance distributions from time-domain measurements      409
Proteins, distance distributions, analysis with frequency domain data      404—406
Proteins, distance distributions, distance distribution functions      409—410
Proteins, distance distributions, domain motion in      409
Proteins, distance distributions, melittin      401—404
Proteins, energy transfer      425
Proteins, labeling, probes, noncovalent      71—72
Proteins, labeling, reagents      67—70
Proteins, labeling, Stokes’ shift in      70—71
Proteins, metal-ligand complexes, domain-to-domain motions in      580—581
Proteins, queaching applications to      249—257
Proteins, queaching applications to, colicin E1 folding      251—252
Proteins, queaching applications to, conformational changes and tryptophan accessibility      250
Proteins, queaching applications to, effects of quenchers on proteins      251
Proteins, queaching applications to, endonuclease $\Pi1$      249—250
Proteins, queaching applications to, multiple decay time quenching      250—251
Proteins, quenching, distance-dependent      285
Proteins, quenching, radiation boundary model      280—281
Proteins, quenching, specific binding reactions      255—256
Proteins, quenching, substrate binding to ribozymes      256—257
Proteins, time-resolved emission spectra (TRES), apomyoglobulin      215—217
Proteins, time-resolved emission spectra (TRES), membranes      217—218 219
Proteins, time-resolved emission spectra (TRES), spectral relaxation in      220—222
Protems, fluorescent      82—86
Protems, fluorescent, green fluorescent protein      85—86
Protems, fluorescent, phycobiliproteins      82—85 562
Protems, fluorescent, phytofluors      86
Protonation      515
Protons, quenching by      239
Pulse pileup      111
Pulse sampling or gated detection, time-resolved measurements      116—117
Purines      239 243 244
Pyrene      86
Pyrene, DNA technology      610
Pyrene, emission spectrum      9
Pyrene, excited-state reactions      276 515
Pyrene, Forster distances      388
Pyrene, lipids labeled with      80—81 271 272
Pyrene, lipids labeled with pyrenyl-DPPE      278
Pyrene, lipids labeled with pyrenyl-PC      72—73
Pyrene, quari-thiee-dimensional diffusion in membranes      276—278
Pyrene, quenchers of      238
Pyridine      238
Pyridine-2      106
Pyridoxal 5-phosphate      64 376—377
Pyriduiium hydrochloride      239
Pyrimidines      239 243 244
Quantum counters, corrected spectra      52
Quantum counters, instrumentation      50—51
Quantum yield standards      52—53
Quantum yields      10 34
Quantum yields and lifetime      452
Quantum yields, principles      10—12
Quantum yields, principles, quenching      11
Quantum yields, principles, time scale of molecular processes in solution      11—12
Quantum yields, resonance energy transfer in proteins      457 458
Quartz-tungsten halogen (QTH) lamps      31
Quenchers      238 (see also “Specific agents”)
Quenching      11 15 18 237—289 359—361
Quenching and association reactions      255—257
Quenching and association reactions, specific binding reactions      255—256
Quenching and association reactions, substrate binding to ribozymes      256—257
Quenching constants      466—467
Quenching efficiency      241 278—280
Quenching of lanthanides      440
Quenching of phosphorescence      258—259
Quenching, advanced topics      267—285
Quenching, advanced topics, boundary lipid      273—274
Quenching, advanced topics, excuner      276—278
Quenching, advanced topics, experimental studies      281—285
Quenching, advanced topics, lipid-water partitioning effects      274—276
Quenching, advanced topics, localized quenchers      270—272
Quenching, advanced topics, membranes      267—279
Quenching, advanced topics, membranes, diffusion in      276—278
Quenching, advanced topics, membranes, diffusion in, lateral      278
Quenching, advanced topics, membranes, diffusion in, quasi-three dimensional      276—278
Quenching, advanced topics, parallax quenching in      272—273
Quenching, advanced topics, partitioning      274—276
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