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9783540674337

Fluorescence Correlation Spectroscopy: Theory and Applications

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  • ISBN13:

    9783540674337

  • ISBN10:

    3540674330

  • Format: Hardcover
  • Copyright: 2001-05-01
  • Publisher: Springer Verlag
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Summary

This book presents the theoretical background to fluorescence correlation spectroscopy (FCS) and a variety of applications in various fields of science. FCS is based on the detection of single molecules excited to fluorescence in diffraction limited confocal volume elements and the time correlation of stochastic events. It provides ultimate sensitivity in the analysis of molecular processes and has found numerous applications in physics, chemistry and particularly in biomolecular sciences. Its high spatial and temporal resolution has made FCS a powerful tool for the analysis of molecular interactions and kinetics, transport properties due to thermal motion and flow, as well as the physics of the excited state in solution as well as at the cellular level. Its application in high throughput drug screening is using all the potential of this prime analytical tool.

Table of Contents

List of Contributors
xvii
Introduction
1(8)
E. Elson
References
5(4)
Part I FCS in the Analysis of Molecular Interactions
Fluorescence Correlation Spectroscopy of Flavins and Flavoproteins
9(16)
Antonie J.W.G. Visser
Petra A.W. van den Berg
Mark A. Hink
Valentin N. Petushkov
Introduction
9(2)
Materials and Methods
11(1)
Results and Discussion
12(10)
FCS on FMN and FAD
12(6)
FCS on YFP and BFP
18(4)
Conclusions
22(3)
References
23(2)
Fluorescence Correlation Spectroscopy in Nucleic Acid Analysis
25(40)
Zeno Foldes-Papp
Masataka Kinjo
Introduction
25(2)
Oligonucleotide-Target Interactions
27(4)
DNA Analysis by ``Going Micro''
31(2)
Incorporation of Dye Nucleotides into DNA
33(8)
Low-Density Labeling
33(3)
Nick Translation
36(1)
Linear Primer Extension Reactions
37(2)
High-Density Labeling
39(2)
Exonuclease Degradation
41(2)
Restriction Enzyme Cutting and DNA Sizing
43(3)
Polymerase Chain Reactions
46(13)
FCS Autocorrelation Analysis: New Detection Methods
47(6)
FCS Cross-Correlation Analysis: A New Concept for PCR
53(6)
Summary and Conclusions
59(6)
References
60(5)
Strain-Dependent Fluorescence Correlation Spectroscopy: Proposing a New Measurement for Conformational Fluctuations of Biological Macromolecules
65(19)
Hong Qian
Elliot L. Elson
Introduction
65(2)
Theory
67(3)
A Simple Example
70(6)
Discussion
76(6)
SD-FCS
76(4)
Comparison of SD-FCS with Conventional FCS
80(1)
Applications and Feasibility
81(1)
Summary
82(2)
References
82(2)
Applications of FCS to Protein-Ligand Interactions: Comparison with Fluorescence Polarization
84(17)
Edmund Matayoshi
Kerry Swift
Fluorescence Polarization versus FCS
84(3)
Experimental Methods
87(1)
HIV Protease
88(2)
Death Domain Interactions
90(3)
Antibody-Small Ligand Interactions
93(2)
Antibody-Large Ligand Interactions
95(1)
Conclusions
96(5)
References
97(4)
Part II FCS at the Cellular Level
FCS-Analysis of Ligand-Receptor Interactions in Living Cells
101(31)
Aladdin Pramanik
Rudolf Rigler
Introduction
101(1)
Materials and Methods
101(7)
Chemicals
101(1)
Cell Culture
102(1)
Fluorescence Correlation Spectroscopy (FCS)
102(6)
Results
108(14)
Background Signal
108(1)
Binding of Rh-Ligands to the Cell Membranes
108(5)
Presentation of Ligand-Receptor Complexes with Distribution of Diffusion Times
113(2)
Saturation of Binding
115(2)
Specificity and Kinetics of Binding
117(3)
Measurement of the Association Rate Constant
120(1)
Effect of Pertussis Toxin on the Ligand Binding
121(1)
Measurement of IC50
121(1)
Discussion
122(6)
Demonstration of Specific Binding
122(1)
Nature of Ligand-Receptor Interaction
123(1)
Binding Kinetics
124(1)
Different Ligand-Receptor Complexes and Binding Sites/Receptor Subtypes
124(1)
Allosteric Nature of Signal Transduction and Receptor Aggregation
125(2)
Problems, Limitations, and Precautions
127(1)
Future Perspectives and Cross-Correlation
128(4)
References
129(3)
Fluorescence Correlation Microscopy (FCM): Fluorescence Correlation Spectroscopy (FCS) in Cell Biology
132(30)
Roland Brock
Thomas M. Jovin
Introduction
132(1)
Theory of Cellular FCS
133(5)
FCS in Multi-component Systems
133(1)
Detection of Molecular Association Without Explicit Analysis of the Diffusion Constant D
134(1)
Determination of N for Distributions of Molecules Carrying Different Numbers of Fluorophores per Molecule
135(1)
Intracellular FCS - Approximation of Local Equilibria
136(1)
FCS in Small Volumes-The Problem of Fluorophore Depletion
137(1)
FCS-Derived Parameters in Cell Biology
137(1)
Instrumental Requirements for Intracellular FCS
138(4)
Design of the Fluorescence Correlation Microscope
138(4)
Applications of Intracellular FCM
142(11)
FCM in the Analysis of Receptor Diffusion-Measurement Protocols for Intracellular FCM
142(6)
FCM in the Analysis of Metabolic Conversions
148(3)
Comparison of Cytoplasmic and Nuclear GFP
151(1)
FCM in Cellular High Throughput Screening
152(1)
Limitations and Perspectives of Cellular FCM
153(9)
FCM-Specific Problems in Intracellular Research
153(2)
Perspectives in Cellular FCM
155(2)
Comparison of FCM with Other Techniques
157(2)
References
159(3)
FCS and Spatial Correlations on Biological Surfaces
162(25)
Nils O. Petersen
The Problem
162(1)
The Solution
163(2)
The Experiment
165(5)
Generating Images Using a Confocal Microscope
165(1)
Correlation Calculations
165(1)
Correlation Function Analysis
166(1)
Extracting the Amplitude Information
167(2)
Technical Issues
169(1)
Interpretation of Correlation Function Amplitudes
170(4)
Cluster Densities
170(1)
Degree of Aggregation
171(1)
Multiple Populations
172(1)
Dynamics of Aggregation
173(1)
Intermolecular Interactions and Colocalization
173(1)
Applications to Cell Surfaces
174(7)
Receptor Distributions
175(3)
Interactions in Coated Pits
178(2)
Virus Assembly and Fusion
180(1)
Other Applications and Future Prospects
181(1)
Conclusions
181(6)
References
183(4)
Part III Applications in Biotechnology, Drug Screening, and Diagnostics
Dual-Color Confocal Fluorescence Spectroscopy and its Application in Biotechnology
187(17)
Andre Koltermann
Ulrich Kettling
Jens Stephan
Thorsten Winkler
Manfred Eigen
Introduction
187(2)
Real-Time Monitoring of Enzymatic Activity by Dual-Color FCS
189(4)
RAPID FCS and CFCA for Screening Applications
193(6)
Applications in Evolutionary Biotechnology
199(2)
Outlook
201(3)
References
202(2)
Nanoparticle Immunoassays: A new Method for Use in Molecular Diagnostics and High Throughput Pharmaceutical Screening based on Fluorescence Correlation Spectroscopy
204(21)
F.J. Meyer-Almes
Introduction
204(2)
Theory
206(4)
Competitive NPIA
206(1)
Sandwich NPIA
207(2)
Autocorrelation Amplitudes
209(1)
Material and Methods
210(2)
Substances
210(1)
Equipment
211(1)
Reactions
211(1)
Simulations and Data Fitting
212(1)
Results
212(9)
Simulations
212(1)
Experiments
213(8)
Discussion
221(4)
References
223(2)
Protein Aggregation Associated with Alzheimer and Prion Diseases
225(26)
Detlev Riesner
Introduction
225(1)
Prion-Protein Multimerization
226(11)
Conformation and State of Aggregation
226(3)
Analysis of Multimerization by FCS
229(2)
Influence of Fluorescence Labeling on the Multimerization Reaction
231(2)
Kinetics of Spontaneous Multimerization
233(1)
Seeded Multimerization of PrP
233(3)
Summary of PrP Conformational Transitions
236(1)
Amyloid β-Peptide Multimerization
237(7)
Spontaneous Multimerization
237(3)
Seeded Aggregation as a Diagnostic Tool
240(4)
Synopsis
244(7)
References
245(6)
Part IV Environmental Analysis and Monitoring
Application of FCS to the Study of Environmental Systems
251(25)
Konstantin Starchev
Kevin J. Wilkinson
Jacques Buffle
Introduction
251(1)
Nature and Characteristics of Aquatic and Terrestrial Colloids and Biopolymers
252(8)
Nature of the Major Aquatic and Terrestrial Colloids
252(5)
Aggregation Processes and Aggregate Structure
257(2)
Potential Advantages and Limitations of FCS for Environmental Applications
259(1)
Development of FCS for its Application to the Study of Environmental Systems
260(6)
Colloids With Sizes Comparable to the Beam Width
260(2)
Polydisperse Systems
262(4)
Example: Determination of the Diffusion Coefficients of Humic Substances as a Function of Solution Conditions
266(7)
Factors Distinguishing Humic Substances From Model Compounds
268(3)
The Role of Solution Conditions (pH, Ionic Strength, Concentration) on the Diffusion Coefficients of Humic Substances
271(2)
Conclusions and Future Perspectives
273(3)
References
274(2)
Photophysical Aspects of FCS Measurements
276(29)
Jerker Widengren
Introduction
276(2)
Photophysics in the Fast Time Range
278(16)
Triplet State Formation
281(6)
Charge Transfer Reactions
287(3)
Photo-Induced Isomerization
290(3)
Effects of Non-Uniform Excitation
293(1)
Photophysics in the Slow Time Range-Photodegradation
294(2)
Strategies to Improve Photophysical Conditions
296(3)
Concluding Remarks
299(6)
References
300(5)
Part V New Developments and Trends
Fluorescence Correlation Spectroscopy: Genesis, Evolution, Maturation and Prognosis
305(26)
Watt W. Webb
Introduction
305(1)
Genesis
305(5)
Evolution
310(4)
Maturation of FCS at Cornell
314(12)
Green Fluorescent Proteins in FCS
315(4)
Molecular Diffusion in Lipid Membranes of Giant Unilamellar Vesicles
319(2)
Two-Photon Molecular Excitation (2PE) for FCS
321(2)
FCS in Cells and Tissues
323(3)
Prognosis for FCS
326(5)
References
328(3)
ConfoCor 2 The Second Generation of Fluorescence Correlation Microscopes
331(15)
Tilo Jankowski
Reinhard Janka
Introduction
331(1)
Instrumental Setup
331(8)
Laser Module
332(1)
Detection Unit
333(2)
Detection Efficiency Profile
335(2)
Detection of Fuorescence Correlation Signals
337(1)
FCS Data Analysis
338(1)
Autocorrelation Measurements
339(3)
Cross Correlation Measurements
342(3)
Summary
345(1)
References
345(1)
Antibunching and Rotational Diffusion in FCS
346(14)
Ulo Mets
Introduction
346(1)
Antibunching
346(8)
Rotational Diffusion
354(4)
Discussion
358(2)
References
359(1)
Cross-correlation analysis in FCS
360(19)
Petra Schwille
Introduction
360(3)
Theory
363(8)
Fluctuation Correlations
363(1)
The Effective Measurement Volume in FCS
364(2)
Autocorrelation and Cross-correlation Functions for Pure Diffusion
366(2)
Detector Cross-Talk
368(1)
Not Completely Overlapping Detection Volumes
369(1)
Cross-correlation of Internal Fluctuations
370(1)
Experimental Realization
371(2)
Applications
373(6)
Slow Association Reactions: Comparison Between Autocorrelation and Cross-correlation
373(2)
Cross-correlation Applications in Various Biochemical Systems
375(2)
Outlook
377(1)
References
377(2)
Cross-correlated Flow Analysis in Microstructures
379(17)
Michael Brinkmeier
Introduction
379(1)
The Experimental Setup
380(2)
Theory
382(5)
Pseudo-Autocorrelation
386(1)
Experimental Procedures
387(3)
Optimizing the Setup
387(1)
Flow Measurements
387(3)
Applications
390(4)
Continuous Flow Kinetics
391(2)
Rapid DNA Sequencing
393(1)
Conclusion
394(2)
References
395(1)
Introduction to the Theory of Fluorescence Intensity Distribution Analysis
396(14)
Peet Kask
Kaupo Palo
Introduction
396(2)
Photon Count Number Distribution Corresponding to a Rectangular Sample Profile
398(1)
Photon Count Number Distribution Corresponding to an Arbitrary Sample Profile: The Convolution Technique
398(1)
Photon Count Number Distribution Corresponding to an Arbitrary Sample Profile: The Technique of the Generating Function
399(1)
Sample Profile Models
400(1)
Distribution of the Specific Brightness Within a Species
401(1)
Weighting in FIDA
402(1)
Data Simulation Algorithms
403(1)
Statistical Errors of Estimated Parameters
404(6)
References
409(1)
Photon Counting Histogram Statistics
410(28)
Joachim D. Muller
Yan Chen
Enrico Gratton
Introduction
410(1)
Theory
411(1)
PCH and the Theory of Photon Detection
411(10)
PCH of a Single Particle
414(1)
PCH of Multiple Particles
414(1)
PCH of Particles with Number Fluctuations
415(1)
PCH of Multiple Species
416(1)
PCH for Different PSFs
416(2)
Describing PCH with the Moment Generating Function
418(2)
Two-fold PCH Statistics
420(1)
Data Analysis
421(1)
Single Species PCH
421(7)
Influence of the Particle Concentration
421(2)
Influence of Molecular Brightness
423(2)
Sensitivity of PCH Algorithm
425(3)
PCH for Multiple Species
428(5)
Resolvability of Two Species
428(2)
Experimental Results
430(3)
Conclusions
433(5)
References
435(3)
High Order Autocorrelation in Fluorescence Correlation Spectroscopy
438(21)
Nancy L. Thompson
Jennifer L. Mitchell
Introduction
438(1)
Temporal High Order FCS
439(12)
Definitions
439(1)
First Order Fluorescence Fluctuation Autocorrelation
440(2)
High Order Fluorescence Fluctuation Autocorrelation
442(2)
Multicomponent Analysis
444(3)
Experimental Considerations
447(2)
Experimental Applications
449(2)
Spatial High Order FCS
451(4)
Overview
451(1)
Spatial Fluorescence Fluctuation Autocorrelation Functions
452(1)
Autocorrelation Function Magnitudes and Decay Shapes
452(1)
Experimental Considerations
453(1)
Experimental Application
454(1)
Discussion
455(4)
References
456(3)
FCS in Single Molecule Analysis
459(18)
R. Rigler
S. Wennmalm
L. Edman
Introduction
459(1)
Single Molecule Detection in Solution and Correlation Functions
459(3)
Confocal Single Molecule Imaging
462(1)
Conformatial Transitions in Single DNA Molecules
463(1)
Single Molecule Traces
464(1)
Homogeneous and Heterogeneous Behavior
465(1)
Time Resolution of Single Molecule Behaviour
465(2)
Kinetic Analysis, Death Numbers, and Survival Times
467(1)
The Fluctuating Enzyme
468(1)
Evidence for Multiple Conformational Transition and Catalysis
468(6)
Higher Order Correlations and Non-Markovian Behavior
474(1)
Conclusions
474(3)
References
475(2)
Subject Index 477

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