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9783527312269

Proteomics in Drug Research

by ; ; ; ; ; ; ; ;
  • ISBN13:

    9783527312269

  • ISBN10:

    3527312269

  • Edition: 1st
  • Format: Hardcover
  • Copyright: 2006-03-31
  • Publisher: Wiley-VCH

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Summary

From skillful handling of the wide range of technologies to successful applications in drug discovery-this handbook has all the information professional proteomics users need.Edited by experts working at one of the hot spots in European proteomic research, the numerous contributions by experts from the pharmaceutical industry and public proteomics consortia to provide the necessary perspective on current trends and developments in this exciting field.Following an introductory chapter, the book moves on to proteomic technologies, such as protein biochips, protein-protein interactions, and proteome analysis in situ. The section on applications includes bioinformatics, Alzheimer's disease, neuroproteomics, plasma and T-cell proteomics, differential phosphoproteome analysis and biomarkers, as well as pharmacogenomics.Invaluable reading for medicinal and pharmaceutical chemists, gene technologists, molecular biologists, and those working in the pharmaceutical industry.

Author Biography

All six editors are Researchers at the Medical Proteom-Center hosted by the University of Bochum (Germany). This international research center was established in 2002 under the leadership of Helmut E. Meyer, a co-founder of the Protagen AG. Professor Meyer is also initiator and coordinator of the Human Brain Proteome Project within the German National Genome Research Net (NGFN) as well as of the Brain Proteome Project within the Human Proteome Organisation (HUPO BPP).

Table of Contents

A Personal Foreword xiii
Preface xv
List of Contributors
xvii
I. Introduction
1(30)
Administrative Optimization of Proteomics Networks for Drug Development
3(16)
Andre van Hall
Michael Hamacher
Introduction
3(1)
Tasks and Aims of Administration
4(2)
Networking
6(1)
Evaluation of Biomarkers
7(2)
A Network for Proteomics in Drug Development
9(1)
Realization of Administrative Networking: the Brain Proteome Projects
10(9)
National Genome Research Network: the Human Brain Proteome Project
11(3)
Human Proteome Organisation: the Brain Proteome Project
14(1)
The Pilot Phase
15(2)
References
17(2)
Proteomic Data Standardization, Deposition and Exchange
19(12)
Sandra Orchard
Henning Hermjakob
Manuela Pruess
Rolf Apweiler
Introduction
19(2)
Protein Analysis Tools
21(2)
UniProt
21(1)
InterPro
22(1)
Proteome Analysis
22(1)
International Protein Index (IPI)
23(1)
Reactome
23(1)
Data Storage and Retrieval
23(1)
The Proteome Standards Initiative
24(1)
General Proteomics Standards (GPS)
24(1)
Mass Spectrometry
25(2)
Molecular Interactions
27(1)
Summary
28(3)
References
28(3)
II. Proteomic Technologies
31(154)
Difference Gel Electrophoresis (DICE): the Next Generation of Two-Dimensional Gel Electrophoresis for Clinical Research
33(24)
Barbara Sitek
Burghardt Scheibe
Klaus Jung
Alexander Schramm
Kai Stahler
Introduction
34(2)
Difference Gel Electrophoresis: Next Generation of Protein Detection in 2-DE
36(21)
Application of CyDye DIGE Minimal Fluors (Minimal Labeling with CyDye DIGE Minimal Fluors)
38(1)
General Procedure
38(1)
Example of Use: Identification of Kinetic Proteome Changes upon Ligand Activation of Trk-Receptors
39(5)
Application of Saturation Labeling with CyDye Dige Saturation Fluors
44(1)
General Procedure
44(1)
Example of Use: Analysis of 1000 Microdissected Cells from PanIN Grades for the Identification of a New Molecular Tumor Marker Using CyDye Dige Saturation Fluors
45(2)
Statistical Aspects of Applying DIGE Proteome Analysis
47(1)
Calibration and Normalization of Protein Expression Data
48(2)
Detection of Differentially Expressed Proteins
50(1)
Sample Size Determination
51(1)
Further Applications
52(1)
References
52(5)
Biological Mass Spectrometry: Basics and Drug Discovery Related Approaches
57(32)
Bettina Warscheid
Introduction
57(1)
Ionization Principles
58(4)
Matrix-Assisted Laser Desorption/Ionization (MALDI)
58(2)
Electrospray Ionization
60(2)
Mass Spectrometric Instrumentation
62(3)
Protein Identification Strategies
65(2)
Quantitative Mass Spectrometry for Comparative and Functional Proteomics
67(2)
Metabolic Labeling Approaches
69(4)
15N Labeling
70(1)
Stable Isotope Labeling by Amino Acids in Cell Culture (SILAC)
71(2)
Chemical Labeling Approaches
73(5)
Chemical Isotope Labeling at the Peptide Level
75(1)
Stable Isotope Labeling at the Peptide Level
75(3)
Quantitative MS for Deciphering Protein-Protein Interactions
78(2)
Conclusions
80(9)
References
81(8)
Multidimensional Column Liquid Chromatography (LC) in Proteomics--Where Are We Now?
89(24)
Egidijus Machtejevas
Klaus K. Unger
Reinhard Ditz
Introduction
90(1)
Why Do We Need MD-LC/MS Methods?
91(1)
Basic Aspects of Developing a MD-LC/MS Method
92(8)
General
92(1)
Issues to be Considered
93(1)
Sample Clean-up
94(1)
Choice of Phase Systems in MD-LC
94(3)
Operational Aspects
97(1)
State-of-the-Art--Digestion Strategy Included
98(1)
Multidimensional LC MS Approaches
98(2)
Applications of MD-LC Separation in Proteomics--a Brief Survey
100(4)
Sample Clean-Up: Ways to Overcome the ``Bottleneck'' in Proteome Analysis
104(5)
Summary
109(4)
References
110(3)
Peptidomics Technologies and Applications in Drug Research
113(24)
Michael Schrader
Petra Budde
Horst Rose
Norbert Lamping
Peter Schulz-Knappe
Hans-Dieter Zucht
Introduction
114(1)
Peptides in Drug Research
114(6)
History of Peptide Research
114(2)
Brief Biochemistry of Peptides
116(1)
Peptides as Drugs
117(1)
Peptides as Biomarkers
118(1)
Clinical Peptidomics
118(2)
Development of Peptidomics Technologies
120(4)
Evolution of Peptide Analytical Methods
120(1)
Peptidomic Profiling
121(2)
Top-Down Identification of Endogenous Peptides
123(1)
Applications of Differential Display Peptidomics
124(5)
Peptidomics in Drug Development
124(3)
Peptidomics Applied to in vivo Models
127(2)
Outlook
129(8)
References
130(7)
Protein Biochips in the Proteomic Field
137(22)
Angelika Lucking
Dolores J. Cahill
Introduction
137(2)
Technological Aspects
139(5)
Protein Immobilization and Surface Chemistry
139(2)
Transfer and Detection of Proteins
141(1)
Chip Content
142(2)
Applications of Protein Biochips
144(6)
Contribution to Pharmaceutical Research and Development
150(9)
References
151(8)
Current Developments for the In Vitro Characterization of Protein Interactions
159(14)
Daniela Moll
Bastian Zimmermann
Frank Gesellchen
Friedrich W. Herberg
Introduction
160(1)
The Model System: cAMP-Dependent Protein Kinase
161(1)
Real-time Monitoring of Interactions Using SPR Biosensors
161(2)
ITC in Drug Design
163(2)
Fluorescence Polarization, a Tool for High-Throughput Screening
165(2)
AlphaScreen as a Pharmaceutical Screening Tool
167(3)
Conclusions
170(3)
References
171(2)
Molecular Networks in Morphologically Intact Cells and Tissue-Challenge for Biology and Drug Development
173(12)
Walter Schubert
Manuela Friedenberger
Marcus Bode
Introduction
173(1)
A Metaphor of the Cell
174(2)
Mapping Molecular Networks as Patterns: Theoretical Considerations
176(1)
Imaging Cycler Robots
177(2)
Formalization of Network Motifs as Geometric Objects
179(3)
Gain of Functional Information: Perspectives for Drug Development
182(3)
References
182(3)
III. Applications
185(134)
From Target to Lead Synthesis
187(22)
Stefan Mullner
Holger Stark
Paivi Niskanen
Erich Eigenbrodt
Sybille Mazurek
Hugo Fasold
Introduction
187(3)
Materials and Methods
190(3)
Cells and Culture Conditions
190(1)
In Vitro Activity Testing
190(1)
Affinity Chromatography
190(1)
Electrophoresis and Protein Identification
191(1)
BI Acore Analysis
191(1)
Synthesis of Acyl Cyanides
192(1)
Methyl 5-cyano-5-oxopentanoate
192(1)
Methyl 6-cyano-6-oxohexanoate
193(1)
Methyl-5-cyano-3-methyl-5-oxopentanoate
193(1)
Results
193(8)
Discussion
201(8)
References
203(6)
Differential Phosphoproteome Analysis in Medical Research
209(14)
Elke Butt
Katrin Marcus
Introduction
210(1)
Phosphoproteomics of Human Platelets
211(5)
Cortactin
213(1)
Myosin Regulatory Light Chain
213(1)
Protein Disulfide Isomerase
214(2)
Identification of cAMP- and cGMP-Dependent Protein Kinase Substrates in Human Platelets
216(2)
Identification of a New Therapeutic Target for Anti-Inflammatory Therapy by Analyzing Differences in the Phosphoproteome of Wild Type and Knock Out Mice
218(1)
Concluding Remarks and Outlook
219(4)
References
220(3)
Biomarker Discovery in Renal Cell Carcinoma Applying Proteome-Based Studies in Combination with Serology
223(18)
Barbara Seliger
Roland Kellner
Introduction
224(1)
Renal Cell Carcinoma
224(1)
Rational Approaches Used for Biomarker Discovery
225(1)
Advantages of Different Proteome-Based Technologies for the Identification of Biomarkers
226(2)
Type of Biomarker
228(1)
Proteome Analysis of Renal Cell Carcinoma Cell Lines and Biopsies
229(5)
Validation of Differentially Expressed Proteins
234(1)
Conclusions
235(6)
References
235(6)
Studies of Drug Resistance Using Organelle Proteomics
241(18)
Catherine Fenselau
Zongming Fu
Introduction
242(1)
The Clinical Problem and the Proteomics Response
242(1)
Objectives and Experimental Design
243(9)
The Cell Lines
243(1)
Organelle Isolation
244(1)
Criteria for Isolation
244(1)
Plasma Membrane Isolation
245(2)
Protein Fractionation and Identification
247(2)
Quantitative Comparisons of Protein Abundances
249(3)
Changes in Plasma Membrane and Nuclear Proteins in MCF-7 Cells Resistant to Mitoxantrone
252(7)
References
254(5)
Clinical Neuroproteomics of Human Body Fluids: CSF and Blood Assays for Early and Differential Diagnosis of Dementia
259(20)
Jens Wiltfang
Piotr Lewczuk
Introduction
259(1)
Neurochemical Markers of Alzheimer's Disease
260(11)
β-Amyloid Precursor Protein (β-APP): Metabolism and Impact on AD Diagnosis
261(2)
Tau Protein and its Phosphorylated Forms
263(1)
Hyperphosphorylation of Tau as a Pathological Event
264(1)
Phosphorylated Tau in CSF as a Biomarker of Alzheimer's Disease
265(1)
Apolipoprotein E (ApoE) Genotype
266(1)
Other Possible Factors
267(1)
Combined Analysis of CSF Parameters
267(3)
Perspectives: Novel Techniques to Search for AD Biomarkers--Mass Spectrometry (MS), Differential Gel Electrophoresis (DIGE), and Multiplexing
270(1)
Conclusions
271(8)
References
272(7)
Proteomics in Alzheimer's Disease
279(20)
Michael Fountoulakis
Sophia Kossida
Gert Lubec
Introduction
279(1)
Proteomic Analysis
280(4)
Sample Preparation
280(2)
Two-Dimensional Electrophoresis
282(1)
Protein Quantification
282(1)
Matrix-Assisted Laser Desorption/Ionization Time-of-Flight Mass Spectroscopy
283(1)
Proteins with Deranged Levels and Modifications in AD
284(10)
Synaptosomal Proteins
290(1)
Guidance Proteins
291(1)
Signal Transduction Proteins
291(1)
Oxidized Proteins
292(1)
Heat Shock Proteins
293(1)
Proteins Enriched in Amyloid Plaques
293(1)
Limitations
294(5)
References
294(5)
Cardiac Proteomics
299(20)
Emma McGregor
Michael J. Dunn
Heart Proteomics
300(7)
Heart 2-D Protein Databases
300(1)
Dilated Cardiomyopathy
300(1)
Animal Models of Heart Disease
301(1)
Subproteomics of the Heart
302(1)
Mitochondria
302(2)
PKC Signal Transduction Pathways
304(1)
Proteomics of Cultured Cardiac Myocytes
305(1)
Proteomic Characterization of Cardiac Antigens in Heart Disease and Transplantation
306(1)
Markers of Acute Allograft Rejection
307(1)
Vessel Proteomics
307(5)
Proteomics of Intact Vessels
307(1)
Proteomics of Isolated Vessel Cells
308(3)
Laser Capture Microdissection
311(1)
Concluding Remarks
312(7)
References
312(7)
IV. To the Market
319(18)
Innovation Processes
321(16)
Sven Ruger
Introduction
321(1)
Innovation Process Criteria
322(1)
The Concept
322(1)
Market Attractiveness
323(1)
Competitive Market Position
323(1)
Competitive Technology Position
324(1)
Strengthen the Fit
325(1)
Reward
325(1)
Risk
325(1)
Innovation Process Deliverables for Each Stage
326(1)
Stage Gate-Like Process
326(9)
Designation as an Evaluation Project (EvP)
327(2)
Advancement to Exploratory Project (EP)
329(2)
For Advancement to Progressed Project (PP)
331(3)
Advancement to Market Preparation
334(1)
Conclusion
335(2)
Subject Index 337

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