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E-raamat: Pathogenomics: Genome Analysis of Pathogenic Microbes [Wiley Online]

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  • Formaat: 616 pages
  • Ilmumisaeg: 20-Jan-2006
  • Kirjastus: Wiley-VCH Verlag GmbH
  • ISBN-10: 352760801X
  • ISBN-13: 9783527608010
  • Wiley Online
  • Hind: 237,89 €*
  • * hind, mis tagab piiramatu üheaegsete kasutajate arvuga ligipääsu piiramatuks ajaks
  • Formaat: 616 pages
  • Ilmumisaeg: 20-Jan-2006
  • Kirjastus: Wiley-VCH Verlag GmbH
  • ISBN-10: 352760801X
  • ISBN-13: 9783527608010
The first book on this young, highly dynamic, and expanding field.

This comprehensive, interdisciplinary text focuses on those pathogenic bacteria that are of high scientific and public health interest, yet which also display great potential for the development of new diagnostic, prophylactic and therapeutic procedures.

The authors cover all aspects of pathogenomics, including methods, genomics and applications. In addition, the ongoing development of genome, transcriptome, proteome and bioinformatic analyses of pathogenic microorganisms and their host interactions makes for a comprehensive introduction to the field of modern genomic analysis.

This result is invaluable to researchers and students wishing to gain a general overview of microbial functional genome analysis and pathogenesis, while also representing a good starting point for those new to the area.

Foreword v
Preface xix
List of Contributors
xxi
Color Plates xxvii
I. Methods
1(82)
Bioinformatics: Data Mining Among Genome Sequences
3(18)
Susanne Kneitz
Thomas Dandekar
Systematic Genome Analysis of Pathogens as a Basis for Pharmacogenomic Strategies
3(1)
Direct Sequence Annotation Tools for Functional Genomics
4(1)
Identification of Protein Function
4(1)
Obtaining Protein Information from a Domain Server
5(1)
Pathway Analysis
6(1)
Network Analysis
7(1)
Adaptation in Time and to Stimuli
8(5)
Experimental Design for Microarray Analysis
8(1)
Data Analysis
9(4)
Pathogen-Specific Challenges
13(1)
Pathogen Adaptation Potential
14(1)
The Fight Against Resistance
14(1)
Drug Design and Antibiotics
15(1)
Annotation Platforms Suitable for Pathogenomics
15(2)
Conclusions
17(4)
Transcriptome Analysis: Towards a Comprehensive Understanding of Global Transcription Activity
21(22)
Ben Sidders
Neil Stoker
Introduction
21(1)
Development of Transcriptomics
21(2)
From Genomics to Functional Genomics
21(1)
From Gene to Whole Genome
22(1)
Introducing the Microarray
23(2)
What Is a Microarray?
23(1)
The Affymetrix Gene Chip
23(1)
The Spotted Microarray
24(1)
Microarray Methods
25(7)
Experimental Design
25(1)
Type of Experiment
25(3)
Replicates
28(1)
RNA Extraction
28(2)
Labeling/Reverse Transcription
30(1)
Hybridization
31(1)
Scanning
31(1)
Data Normalization and Analysis
32(5)
Image Quantification
32(1)
Data Processing
33(1)
Data Analysis
34(1)
Detection of Differential Expression
34(1)
Pattern Recognition
35(1)
Graphical Representations
35(1)
Microarray Analysis Tools
36(1)
Microarray Follow-Up
36(1)
Data Storage and Reanalysis
37(1)
Transcriptomics: Where We Are Now and What's to Come
37(6)
Physiological Proteomics of Bacillus subtilis and Staphylococcus aureus: Towards a Comprehensive Understanding of Cell Physiology and Pathogenicity
43(26)
Michael Hecker
Susanne Engelmann
Introduction
43(3)
Proteomics of Bacillus subtilis: The Gram-positive Model Organism
46(7)
The Vegetative Proteome
46(1)
Proteomes of Nongrowing Cells: Proteomic Signatures of Stress/Starvation Stimuli
47(6)
Physiological Proteomics of Staphylococcus aureus
53(12)
The Postgenome Era of S. aureus
53(3)
Proteomes of Growing and Nongrowing Cells
56(6)
Extracellular Proteins and Pathogenicity Networks
62(3)
Outlook: Second Generation Proteomics and New Fields in S. aureus Physiology and Infection Biology
65(4)
Impact of Genome Sequences on Mutational Analysis of Fungal and Bacterial Pathogens
69(14)
Vladimir Pelicic
Xavier Nassif
The Long Road from Sequence to Function
69(1)
Classical Genetics Still at the Forefront in the Postgenome Era
70(2)
Reverse Genetics
70(1)
Transposon Mutagenesis
71(1)
Genome-Scale Mutational Analyses
72(7)
Saccharomyces cerevisiae
73(2)
Bacterial Workhorses: E. coli and Bacillus subtilis
75(1)
Bacterial Pathogens
75(1)
Mycoplasma Species
76(1)
Pseudomonas aeruginosa
76(1)
Staphylococcus aureus
77(1)
Neisseria meningitidis
77(2)
Conclusion
79(4)
II. Genomics of Pathogenic Bacteria
83(284)
Pathogenomics of Escherichia coli and Shigella Species
85(24)
Ulrich Dobrindt
Jorg Hacker
Introduction
85(1)
Comparative Genomics of Shigella
86(6)
Comparative Genomics of Escherichia coli
92(9)
Comparison of Complete Genome Sequences
92(2)
Comparative Genomics Using DNA Arrays
94(1)
Mobile Genetic Elements and Evolution of Pathogenic E. coli
95(1)
Genomic Islands/Pathogenicity Islands
95(4)
Plasmids and Bacteriophages
99(1)
Genetic Diversity Among Extraintestinal Pathogenic E. coli
100(1)
Conclusions
101(8)
Pathogenomics of Salmonella Species
109(16)
Helene Andrews-Polymenis
Andreas J. Baumler
Introduction
109(1)
Salmonella Signature Genes
109(3)
Subspecies I Signature Genes
112(3)
Host Restriction
115(10)
Pathogenomics of Enterococcus faecalis
125(24)
Janet M. Manson
Michael S. Gilmore
Introduction
125(1)
Enterococcal Pathogenesis
125(1)
Genome Sequence of E. faecalis
126(14)
Mobile Elements, Acquired DNA, and Antimicrobial Resistance
127(4)
Environmental Adaptation and Stress Response
131(2)
Survival In Vivo
133(1)
Potential Virulence Factors
134(1)
Hemolysins, Proteases, and other Enzymes
134(2)
Cell-Wall-Associated Virulence Factors
136(2)
Pathogenicity Island of E. faecalis
138(2)
Conclusions and Future Perspectives
140(9)
Genomics of Streptococci
149(26)
Joseph J. Ferretti
W. Michael McShan
Introduction
149(3)
Bacterial Genomes
152(10)
Pyogenic Group
152(1)
Streptococcus pyogenes
152(1)
Virulence Factors
153(1)
Horizontal Gene Transfer
154(1)
Streptococcus agalactiae
155(1)
Group C (GCS) and Group G Streptococci
156(1)
Streptococcus uberis
157(1)
Bovis Group
157(1)
Streptococcus bovis and Streptococcus suis
157(1)
Mitis Group
158(1)
Streptococcus pneumoniae
158(1)
Streptococcus mitis, Streptococcus sanguis, and Streptococcus gordonii
159(1)
Anginosus and Salivarius Group
159(1)
Streptococcus salivarius
159(1)
Streptococcus thermophilus
160(1)
Mutans Group
160(1)
Streptococcus mutans and Streptococcus sobrinus
160(1)
Other Organisms: Enterococcus faecalis
161(1)
Comparative Genomics
161(1)
Streptococcal Genomic Bacteriophages
162(13)
Prophages and Streptococcal Genomes
162(1)
GAS Genome Prophages
163(1)
Prophages and Virulence Factors
163(2)
Prophage Attachment Sites and Host Biology
165(1)
Prophage Diversity
166(1)
Prophages Associated with other Streptococcal Species
166(9)
Pathogenic Staphylococci: Lessons from Comparative Genomics
175(36)
Knut Ohlsen
Martin Eckart
Christian Huttinger
Wilma Ziebuhr
Introduction
175(1)
Comparative Genomics of S. aureus
176(19)
Overall Genome Structure
177(1)
Core Genome
178(1)
Metabolism
178(2)
Information Pathways
180(1)
Virulence Factors
181(3)
Accessory Genome
184(1)
Pathogenicity Islands
185(5)
Staphylococcal Cassette Chromosome
190(2)
Bacteriophages
192(2)
Plasmids
194(1)
Staphylococcus epidermidis
195(7)
Genomic Islands
197(1)
Phage SPβ and other Bacillus Genes
197(1)
Virulence Factors
197(1)
Staphylococcal Cassette Chromosome
198(1)
Adherence and Biofilm Formation
199(2)
Insertion Sequences
201(1)
Concluding Remarks
202(9)
Pathogenomics: Insights into Tuberculosis and Related Mycobacterial Diseases
211(20)
Alexander S. Pym
Stephen V. Gordon
Roland Brosch
Introduction
211(1)
Molecular Basis of Pathogenicity
212(4)
Evolution of the M. tuberculosis Complex
216(4)
Some Metabolic Insight from the Genome Sequences
220(2)
Other Major Mycobacterial Human Pathogens
222(2)
Mycobacterium leprae
222(1)
Mycobacterium ulcerans
223(1)
Concluding Remarks
224(7)
Genomes of Pathogenic Neisseria Species
231(26)
Christoph Schoen
Heike Claus
Ulrich Vogel
Matthias Frosch
Introduction
231(1)
Genomes of Pathogenic Neisseria Species
232(17)
The Flexible Genome Pool
233(3)
Repetitive DNA Sequence Elements Govern Neisserial Biology
236(1)
DNA Uptake Sequences, Horizontal Gene Transfer, and Antigenic Diversity
236(1)
Simple Sequence Repeats and Phase Variation
237(1)
Insertion Sequences and the Regulation of Gene Expression
238(1)
Genome-Wide Mutational Analyses
239(1)
Comparative Genomics
240(4)
Novel Virulence Factors of Meningococci Identified by Genomic Approaches
244(5)
Future Perspectives
249(8)
Genomics of Pathogenic Clostridia and Bacilli
257(24)
Armin Ehrenreich
Gerhard Gottschalk
Holger Bruggemann
Genomics of Pathogenic Clostridia spp.
257(8)
Introduction
257(1)
C. perfringens
258(2)
C. tetani
260(2)
C. botulinum
262(1)
C. difficile
263(1)
Conclusions and Perspectives
264(1)
Genomics of Pathogenic Bacilli
265(16)
Introduction
265(1)
Pathogenic Properties of Bacilli not Belonging to the B. cereus Group
266(1)
Pathogenicity of B. cereus
266(2)
Pathogenicity of B. anthracis
268(1)
Course of Anthrax
268(1)
Virulence Factors of B. anthracis
269(1)
Genome of B. anthracis
270(1)
Chromosomal Genes
270(1)
Genes Located on Plasmids pXO1 and pXO2
271(1)
Regulation of Virulence Genes
272(1)
Molecular Diversity in B. anthracis Genomes
272(1)
Genome of a Highly Virulent B. cereus Strain Resembling B. anthracis in Pathogenesis
273(1)
Comparison of B. cereus Group Genomes: How Did Pathogenicity Evolve?
273(8)
The Genomes of Pathogenic Bartonella Species
281(20)
Carolin Frank
Eva Berglund
Siv G. E. Andersson
Introduction
281(3)
Bartonella in a Phylogenetic Context
281(1)
Hosts and Vectors for Bartonella Species
282(2)
Bartonella Species and Pathogenicity
284(2)
Infection of Reservoir and Incidental Host
284(1)
Bartonella Species as Human Pathogens
285(1)
The Bartonella Genomes
286(1)
Genomic Islands and Phages
286(1)
Genomic Islands and Phages in Bartonella Species
287(4)
The B. henselae Prophage
288(1)
B. henselae Genomic Islands and Islets
288(2)
B. quintana Harbors Remnants of the B. henselae Islands
290(1)
Role of Phages and Islands in the Evolution of Bartonella
290(1)
The Chromosome II-Like Segment in Bartonella
291(3)
Type IV Secretion Systems in Bartonella Species
292(1)
The vir B-D4 Operon
293(1)
The trw Operon
293(1)
B. quintana's Evolution into a Human Pathogen
294(1)
Conclusions and Future Perspectives
295(6)
Pathogenomics of Gastric and Enterohepatic Helicobacter Species
301(14)
Sebastian Suerbaum
Sandra Schwarz
Christine Josenhans
Introduction
301(1)
Helicobacter pylori
302(3)
Key Features of the H. pylori Genome Related to Pathogenesis
302(1)
Colonization Factors: Urease and Motility
302(1)
Phase Variation
302(1)
The H. pylori Outer Membrane Protein Family
303(1)
Intraspecies Variation of H. pylori Genomes
303(1)
The cag Pathogenicity Island
304(1)
Nucleotide Sequence Variation in H. pylori
305(1)
Helicobacter hepaticus
305(2)
The HHGI1 Genomic Island
306(1)
Other Putative H. hepaticus Virulence Factors
307(1)
Genome Comparisons of Gastric and Enterohepatic Helicobacter Species with Related Bacteria
307(1)
Outlook
308(7)
Genomics of the Opportunistic Pathogen Legionella pneumophila
315(24)
Christel Cazalet
Carmen Buchrieser
The Genus Legionella: Epidemiology, Life Cycle, and Pathogenesis
315(1)
Genomics of Legionella pneumophila
316(2)
Specific Features of the Legionella Genomes
318(15)
Eukaryotic-like Proteins in Legionella pneumophila: Modulation of Host Functions?
318(6)
Secretion Machineries of L. pneumophila: Central to Its Life and to Pathogenesis
324(1)
Type IV Secretion Systems in Legionella
325(1)
The dot/icm Type IVB Secretion System
325(1)
The Ivh Type IVA Secretion System
326(1)
A Putative Type I Secretion System in Legionella
326(1)
A Type II Secretion System in Legionella
327(1)
Secretion Across the Cytoplasmic Membrane
327(1)
A Putative Type V Secretion System (Autotransporter) Specific to Strain Paris
328(1)
Comparative Genomics: Diversity of the Species L. pneumophila
329(1)
Genomic (Pathogenicity) Islands in the L. pneumophila Genomes
329(2)
Plasmids and Genetic Diversity of L. pneumophila
331(2)
Conclusions
333(6)
Genomics of Listeria monocytogenes
339(28)
Michael Kuhn
Werner Coebel
Introduction: From Pregenomics to Postgenomics
339(1)
Listeria monocytogenes: A Facultative Intracellular Pathogen
339(1)
Listeria monocytogenes Genetics in the Pregenomic Era: Identification and Characterization of Important Virulence Factors
340(6)
Internalins and the Invasion of Nonprofessional Phagocytic Cells
340(2)
Listeriolysin O and Two Listerial Phospholipases Allow Escape from the Phagocytic Vacuole
342(1)
Intracellular Motility and Cell-to-Cell Spread: The Surface Protein ActA
343(1)
PrfA and the Regulation of Virulence Gene Expression
344(2)
Genome Sequence of L. monocytogenes and Its Comparison with the Closely Related L. innocua
346(2)
Genomic Approaches to Studying the other Members of the Genus Listeria
348(1)
Evolutionary Aspects
349(2)
Identification of Listerial Virulence Factors in the Postgenomic Era
351(4)
Internalins and Other Surface Proteins
351(1)
Growth in the Host Cell Cytoplasm
352(1)
Resistance to Bile
353(1)
Two-component Systems and the Regulation of Virulence Gene Expression
354(1)
Vitamin B12 Biosynthesis and Anaerobic Use of Ethanolamine
354(1)
Proteomics
355(1)
Transcriptomics
356(2)
Conclusions
358(9)
III. Genomics of Pathogens and Their Hosts: Applications
367(188)
Genomics of Viruses
369(20)
Esteban Domingo
Alejandro Brun
Jose Ignacio Nunez
Juan Cristina
Carlos Briones
Cristina Escarmis
Introduction: Wide Scope of Virogenomics
369(2)
Retrieving Information
371(3)
Applications of Data Banks to Virology
374(5)
Beyond Reference Strains: Towards a Second-Generation Virogenomics?
379(3)
Virogenomics Through Microarrays
382(7)
Genomics of Pathogenic Fungi
389(28)
Gerwald A. Kohler
Alan Kuo
George Newport
Nina Agabian
Introduction
389(1)
Genomics of Primary Fungal Pathogens
390(7)
Histoplasma
390(6)
Coccidioides
396(1)
Blastomyces and Paracoccidioides
396(1)
Genomics of Opportunistic Fungal Pathogens
397(9)
Aspergillus
397(1)
Cryptococcus
398(3)
Pneumocystis
401(1)
Microsporidia
402(1)
Candida
403(3)
The Tool Box for Functional Genomics
406(4)
Expression Analysis
407(1)
Transformation and Mutagenesis
407(3)
Fungal Virulence -- From the Genomic Point of View
410(1)
Conclusion
411(6)
Genomics of Pathogenic Parasites
417(28)
Gabriele Pradel
Thomas James Templeton
Exploring the Genomes of Pathogenic Protozoans
418(2)
The Shaping of the Proteomes of the Pathogenic Protists
420(1)
Role of Horizontal Gene Transfer in Protozoan Genome Plasticity
421(1)
The Apicomplexa
422(7)
Plasmodium, the Malaria Parasite
423(4)
Cryptosporidium
427(1)
Toxoplasma
428(1)
The Pathogenic Kinetoplastids
429(2)
Trypanosoma
430(1)
Leishmania
431(1)
The Pathogenic Diplomanad Giardia and the Parabasalid Trichomonas
431(2)
Postgenomic Strategies and the Search for Cure
433(12)
Gene Expression Analysis
434(1)
Proteomics
434(1)
Drug and Vaccine Development
435(1)
Vector Genetics
436(9)
Model Host Systems: Tools for Comprehensive Analysis of Host-Pathogen Interactions
445(12)
Michael Steinert
Gernot Glockner
Introduction
445(1)
Host-Pathogen Interactions
446(1)
Arabidopsis thaliana: A Plant as a Model for Human Disease
447(1)
Dictyostelium discoideum: Perspectives from a Social Amoeba
448(1)
Caenorhabditis elegans: Answers from a Worm
449(1)
Drosophila melanogaster: A Fruitful Model
450(1)
Danio rerio: Fishing for Knowledge
451(1)
Mus musculus: Of Mice and Men
451(2)
Clean Models and Dirty Reality
453(4)
Expression Analysis of Human Genes During Infection
457(24)
Erwin Bohn
Ingo B. Autenrieth
Introduction
457(1)
Comparison of Gene Expression Profiles of Macrophages and Dendritic Cells In Vitro Upon Infection with Different Pathogens
458(2)
Septicemia
460(1)
Gene Expression in Epithelial Cells Modulated by Bacteria
461(8)
Helicobacter pylori
462(2)
Yersinia enterocolitica
464(2)
Pseudomonas aeruginosa
466(2)
Bartonella henselae
468(1)
Common Signatures
469(2)
Genetic Polymorphisms and Mutations Affect Gene Expression: Impact on Infection Susceptibility and Infection Course
471(2)
Concluding Remarks
473(8)
Pathogenomics: Application and New Diagnostic Tools
481(24)
Soren Schubert
Jurgen Heesemann
Introduction: ``In Our Hands''
481(1)
Microbiological Diagnostics of Bacterial Pathogens: Aims, Tasks, and Current Limitations
482(1)
The Pregenomic Era: Conventional and Molecular Methods in Microbiological Diagnostics
483(4)
Conventional Culture-Based Methods in Microbiological Diagnostics
483(1)
Molecular Microbiological Diagnostic Methods
484(1)
Typing of Bacterial Isolates Using 16S-rRNA
484(1)
Fluorescence In Situ Hybridization
484(1)
PCR Methods for Microbial Diagnostics
485(2)
The Postgenomic Era: Use of DNA Microarrays in the Diagnosis of Infectious Diseases in Humans and Animals
487(8)
DNA Arrays: Platforms, Techniques and Targets
487(1)
Detection and Typing of Microbial Pathogens
488(1)
Pathoarrays
489(5)
16S-/23S-rDNA Arrays
494(1)
Detection of Antibiotic Resistance in Microbial Pathogens Using Microarray Technology
494(1)
Microarray Technology in Bacteria: Further Areas of Applications
495(3)
Gene Expression Microarrays and Host-Pathogen Interaction
495(1)
DNA Microarray Technology in Food Technology
496(1)
DNA Microarray Technology in Environmental Microbiology
496(1)
Pathogenomic Tools (Microarrays) in the Diagnosis of Microbiologic Agents as Biovyeapons
497(1)
Current Limitations on the Use of DNA Microarrays in Diagnostics in Medical Microbiological Laboratories
498(1)
Final Remarks
498(7)
The Search for New Antibiotics
505(28)
Harald Labischinski
Christoph Freiberg
Heike Brotz-Oesterhelt
The Need for Novel Antibiotics
505(2)
Where Will the New Antibiotics Come From?
507(6)
The Past
507(2)
The Present
509(2)
Future Directions
511(2)
Contributions of Genomic Technologies to Antibacterial Research
513(8)
Target Identification and Validation
513(4)
Target Prioritization
517(1)
Genetic Tools for Drug Screening and Mode-of-Action Determination
517(3)
Genome-Wide Expression Profiling for Mode-of-Action Characterization
520(1)
Outlook for Genomic Technologies for Antibiotic Drug Discovery
521(1)
Alternative Approaches in Antibacterial Drug Discovery
521(12)
Targeting the Resistance Mechanism
522(1)
Extremely Narrow-Spectrum Drugs
523(1)
Phage Therapies and other Bacteriolytic Approaches
524(1)
Strategies for Reducing Virulence and/or Influencing Pathogenesis
525(8)
Reverse Vaccinology: Revolutionizing the Approach to Vaccine Design
533(22)
Laura Serino
Mariagrazia Pizza
Rino Rappuoli
Impact of Genomics on Vaccine Design
533(2)
MenB Vaccine Approach by Reverse Vaccinology
535(3)
Following the MenB Experience: Other Pathogens
538(1)
Functional Genomics
539(1)
Gene Expression In Vivo: IVET and STM
540(1)
Transcriptome Analysis and Comparative Genomics
541(5)
Proteomics and Vaccine Design
546(1)
Conclusions
546(9)
Index 555


Jorg Hacker studied biology and performed his doctoral thesis at the Martin-Luther-University of Halle in 1979. He was appointed as Associate Professor in the year 1988 and as Full Professor and Chair for Molecular Biology of Infectious Diseases at the University of Wurzburg in 1993. His research interests center on the analysis of pathogenic bacteria and their host organisms, and his laboratory described the first pathogenicity islands as early as the start of the nineties. Jorg Hacker is a member of numerous academies and scientific societies and holds positions on several research bodies. He has received many awards, and was made Honorary Doctor by the University of Umea, Sweden, in 2002 and by the University of Pecs, Hungary, in 2004. Ulrich Dobrindt graduated with a degree in biology from the University of Gottingen (1995) and a PhD in microbiology (1999) from the University of Wurzburg. He received a PhD scholarship from the Boehringer Ingelheim Fonds, and went on to carry out research on gene regulation in uropathogenic E. coli before becoming group leader of the Pathogenic Enterobacteria group at the Institute for Molecular Biology of Infectious Diseases working on enterobacterial genome plasticity focusing on extraintestinal pathogenic E. coli.