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Genetics and Evolution of Infectious Diseases / edited by Michel Tibayrenc.
- Format:
- Book
- Language:
- English
- Subjects (All):
- Communicable diseases.
- Communicable diseases--Genetic aspects.
- Physical Description:
- 1 online resource (1002 pages)
- Edition:
- Third edition.
- Place of Publication:
- Amsterdam, Netherlands : Elsevier, [2024]
- Summary:
- Genetics and Evolution of Infectious Diseases, Third Edition discusses the evolving field of infectious diseases and their continued impact on the health of populations, especially in resource-limited areas of the world where they must confront the dual burden of death and disability due to infectious and chronic illnesses.
- Contents:
- Front Cover
- Genetics and Evolution of Infectious Diseases
- Copyright
- Contents
- Contributors
- 1 - Methodological/Generalist Chapters
- 1 - A New Official Definition of Virus Species Has Led to a Controversial Linnaean Latinized Binomial Format of Vir ...
- 1. The Nature of Virus Classification
- 2. The Late Acceptance of the Species Concept in Virus Classification
- 3. Properties Used for Demarcating New Virus Species Are Not the Same as the Diagnostic Properties Used for Identifying the Me ...
- 4. Popular Anglicized Non-Latinized Virus Species Names Were Subsequently Abandoned
- 5. The ICTV Introduced Names of Virus Species that Correspond to the Italicized Version of the Virus Name, Thereby Creating Un ...
- 6. The New ICTV Definition of Virus Species Is at Odds with the Definition of Species in Other Biological Classifications
- 7. Adrian Gibbs Questions the Merits of a New ICTV Latinized Binomial Nomenclature for Virus Species Associated with Metagenom ...
- 8. Ontology and Epistemology of Viruses and Living Organisms
- References
- 2 - A Completionist Approach to Discovering and Characterizing Bacterial Diversity
- 1. Introduction-Toward a Completionist Bacterial Systematics
- 2. Genomes Enable Completionist Systematics at the Species Level
- 3. The Ecological Breadth of Recognized Species Taxa
- 4. Sexual Isolation and Ecological Divergence in the Origins of Species-like Lineages That can Coexist Indefinitely
- 5. How Modes of Speciation Affect the Correspondence Between Sequence Clusters and Ecotypes
- 6. Genomes Enable Completionist Systematics at the Ecotype Level
- 7. Rapprochement Between Theory-based and Tradition-based Systematics of Bacteria
- Acknowledgments
- 3 - Population Structure of Pathogenic Bacteria
- 1. Introduction.
- 2. Recombination and Selection in Bacterial Populations
- 2.1 Emergence and Persistence of Sequence Clusters
- 2.2 Heterogeneity in Recombination
- 2.3 The Structure of the Pan-genome of Species and Populations
- 2.4 Negative Frequency-Dependent Selection
- 3. Bacterial Population Structure Within and Between Hosts
- 3.1 Within-host Diversity and Bottlenecks Shape Transmission Dynamics
- 3.2 Between-host Evolution and Impact on Population Structure
- 4. Geography and Bacterial Population Structure
- 4.1 Bacterial Phylogeography and Migration Between Populations
- 4.2 Range Expansion as a Model of Geographic Spread
- 5. Conclusions
- 4 - Diverse Strategies and Evolutionary Histories of Fungal Pathogens
- 1. Introduction
- 2. A Brief Overview of Fungal Pathogens
- 2.1 Plant Pathogens
- 2.2 Animal Pathogens
- 3. Selected Examples of Human Pathogens
- 3.1 Major Pathogens: Candida, Cryptococcus, Aspergillus
- 3.2 Primary Pathogens: Blastomyces, Coccidioidomycosis, Paracoccidioides, Histoplasma, Pneumocystis
- 3.3 Emerging Fungal Pathogens
- 4. Facultative Pathogenesis and Adaptation Versus Exaptation
- 5. Virulence Factors
- 5.1 Conventional Virulence Factors
- 5.2 Thermotolerance
- 5.3 Extremotolerance
- 5.4 Resistance to Antifungals
- 6. Host and Environment Populations, and Emergence of New Fungal Pathogens
- 6.1 Population Genetics and Genomics
- 6.2 Recombination and Hybridization
- 6.3 Emergence of New Fungal Pathogens
- 7. Conclusions
- Declaration of Competing Interest
- 5 - Molecular Epidemiology of Pathogenic Microorganisms and the Predominant Clonal Evolution Model
- 1. Introduction: What Is Molecular Epidemiology?
- 2. Brief Recall on the PCE Model
- 2.1 What Is, and what Is Not the PCE Model
- 2.2 Deep Phylogenies/Multigene Bifurcating Trees.
- 2.3 Other PCE Traits
- 2.4 Evolutionary Scales
- The Russian Doll Model
- 2.5 Other Models of Pathogen Population Structure
- 2.6 The Problem of the Wahlund Effect∗: The "Starving Sex Hypothesis"
- 3. Bacterial Species
- 3.1 Escherichia coli
- 3.2 Neisseria meningitidis
- 4. Parasite Species
- 4.1 Leishmania donovani/infantum
- 4.2 Trypanosoma cruzi
- 5. Yeasts
- 5.1 The Cryptococcus neoformans/gattii Complex
- 6. Concluding Remarks
- Glossary of Specialized Terms
- 6 - Parasite-Host Coevolution
- 2. Common Parasites and Their Definition/Description
- 2.1 Macroparasites
- 2.2 Microparasites
- 2.3 Endoparasites
- 2.4 Fungi
- 2.5 Protozoa
- 2.6 Bacteria
- 2.7 Ectoparasites
- 3. Viruses
- 4. Red Queen Hypothesis and the Evolutionary Arms Race
- 5. Rapidly Evolving Pathogens-RNA Viruses as a Model
- 6. Where Did Viruses Come From? Viral Evolution
- 7. How Do Viruses Evolve and Selection Pressures Not Just on Individual Pathogens With Mutations, but on Groups of Pathogens? ...
- 8. Phylogenetics Reveals Coevolutionary Patterns
- 9. Parasite-Host Relationships in Human Infectious Diseases
- 10. Parasite-Host Relationships in Animal Infectious Diseases
- 11. Host Immunogenetics Adaptations
- 12. Parasite Manipulation of Host Behavior
- 13. A Parasite-absent World
- 14. Conclusions
- 7 - Human Genetic Variability and Transmissible Diseases
- 2. A Population Genetics∗ Framework for the Study of Transmissible Diseases
- 2.1 Overall Genetic Variation Seems to be Greater Within Major Continental Groups Than Between Them
- 2.2 Clines∗ or Trees?
- 2.3 Additional Variability and Stratifications
- 2.4 Low-Frequency and Rare Variants
- 2.5 "Russian Doll" Patterns
- 2.6 Genetic Stratifications and Polygenic Scores∗.
- 2.7 We are All Half-Breed: Mixtures are Ubiquitous
- 2.8 If We are All Mestizos, Don't Human Populations Tend Toward Homogenization?
- 2.9 Ancestry Informative Markers and Self-Reported Ancestry
- 2.10 General Conclusions
- 3. Communicable Diseases: A Phenomenon of Co-Evolution Involving Two or Three Actors
- 3.1 The Considerable Role of Environment
- 3.2 Genetic Inequality and Transmissible Diseases
- 3.3 How do Humans Protect Themselves Against Pathogens?
- 3.4 Other Diseases
- 3.5 Pathogen Strains as Markers of Human Populations
- 3.6 Influence of Human Behavior on Transmissible Disease Epidemiology: The Baldwin Effect and the Niche Construction Theory
- 3.7 Transmissible Diseases and History
- 3.8 Archaic Adaptive Introgression
- 4. Conclusions on Human Genetic Variability and Susceptibility to Communicable Diseases
- 8 - Pathogens as Tracers of Past Human Demography and Migrations
- 2. Pathogen Genomics to Infer Host History
- 3. Bacteria
- 3.1 Helicobacter pylori
- 3.2 Mycobacterium tuberculosis
- 3.3 Mycobacterium leprae
- 4. Viruses
- 4.1 Human Polyomaviruses
- 4.2 Human Herpesviruses
- 5. Conclusion
- 9 - Evolutionary Responses to Infectious Disease
- 2. Parasites as Our Friends
- 3. Demography and Parasites
- 4. Agriculture
- 5. Some Lessons from Malaria
- 6. The Columbian Exchange
- 7. Disease and Standard of Living in Preindustrial Societies: A Simple Model
- 8. Population Limitation
- 9. Disease, Mating, and Reproductive Strategy
- 10. Prosperity and the Postindustrial Era Mortality Decline
- 10 - Infectious Disease Genomics
- 2. Vaccine Target
- 3. New Drug Discovery
- 4. Drug Target
- 5. Therapeutic Response and Drug Resistance.
- 6. Vector Control
- 7. Clinical Application
- 8. Conclusion
- 11 - Proteomics and Host-Pathogen Interactions: Still a Bright Future?
- 2. Interest of Proteomics to Study Host-(Vector)-Pathogen Interactions
- 3. Retrospective of Pioneering Proteomics Studies
- 3.1 Deciphering of the Molecular Strategies Involved in Pathogen Immune Evasion
- 3.2 Host Proteome Responses to Parasite Infection
- 3.3 Biomarkers Linked to Infection Process by a Pathogen Using SELDI-TOF-MS Technology
- 4. Evolution of Conceptual Approaches to Decipher the Host-Pathogen Interactions for Microorganisms With Simple or Complex Lif ...
- 4.1 From "Parasito-Proteomics" to "Pathogeno-Proteomics": An Holistic View to Disentangle the Hosts and Pathogens Genome Respon ...
- 4.2 Proteomics of Arthropod Vectors: Understanding the Role of Sialomes in the Host-Vector Interactions
- 4.3 Pitfalls of the Current Proteomics Approaches
- 4.4 Proteo-Genomics: Next-Generation Proteomics to Deepen the Characterization of Proteins, Their Biological Functions, and The ...
- 4.5 Host-Pathogen Interactomes
- 4.6 Population Proteomics, a Growing Discipline, to Study Host-Pathogen Interactions
- 4.6.1 Prospects With Population Proteomics for Any Living Organisms
- 4.6.2 Human Population Proteomics
- 5. Five-Year View
- 5.1 Metabolomics and Fluxomics, Key "Omics" Tools to Complete Deciphering of Host-Pathogen Crosstalks
- 5.2 Applied Outputs: New Diagnostic Tools and Identification of New Therapeutic Target
- 5.3 Bioterrorism and Proteomics
- 5.4 Environment and HostMicroorganisms Interactions
- 6. Conclusions
- Glossary
- Short Biographical Lines for Contributors
- 12 - Genomic Epidemiology and Surveillance of Antimicrobial Resistance
- 1. Antimicrobial Resistance: A Current Major Threat.
- 2. Genomic Epidemiology and Surveillance in the Fight Against AMR.
- Notes:
- Includes bibliographical references and index.
- Description based on publisher supplied metadata and other sources.
- Description based on print version record.
- Other Format:
- Print version: Tibayrenc, Michel Genetics and Evolution of Infectious Diseases
- ISBN:
- 9780443288197
- OCLC:
- 1446131029
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