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9781405136457

Introduction to Modern Virology, 6th Edition

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  • ISBN13:

    9781405136457

  • ISBN10:

    1405136456

  • Edition: 6th
  • Format: Paperback
  • Copyright: 2007-01-01
  • Publisher: Wiley-Blackwell
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List Price: $144.85

Summary

Introduction to Modern Virology has been an established student text for over 25 years. The 6th edition is even more accessible, now including key points and integrative questions in every chapter, as well as text boxes emphasizing take-home messages, evidence underpinning the main concepts, and further information for more advanced readers.

Author Biography

Nigel Dimmock is an internationally acclaimed virologist who has spent the major part of his career at the University of Warwick’s Department of Biological Sciences, where he is currently an emeritus professor. His main research interests are influenza viruses, HIV, and antiviral immunology.

Andrew Easton is professor of virology at the University of Warwick. Having spent two years working in the pharmaceutical industry he joined the department at Warwick in 1983 and became Head of the Virology Group in 1998. Easton’s research focuses on the molecular biology of pneumoviruses.

Keith Leppard is a reader at the University of Warwick. His research focuses on the interactions of adenovirus with the host cell, in particular the effects of adenoviral proteins on functions of the cell nucleus, and on the development of adenovirus as a gene delivery vehicle.

Table of Contents

Preface xii
Part I: What is a virus?
1(58)
Towards a definition of a virus
3(15)
Discovery of viruses
4(2)
Development of virus assays
6(2)
Multiplication of viruses
8(1)
The virus multiplication cycle
9(1)
Viruses can be defined in chemical terms
10(3)
Multiplication of bacterial and animal viruses is fundamentally similar
13(1)
Viruses can be manipulated genetically
14(1)
Properties of viruses
15(1)
Origin of viruses
15(3)
Key points
16(1)
Further reading
17(1)
Some methods for studying animal viruses
18(12)
Selection of a culture system
18(5)
Identification of viruses using antibodies (serology)
23(4)
Detection, identification, and cloning of virus genomes using PCR and RT-PCR
27(3)
Key points
28(1)
Further reading
29(1)
The structure of virus particles
30(19)
Virus particles are constructed from subunits
30(2)
The structure of filamentous viruses and nucleoproteins
32(1)
The structure of isometric virus particles
32(10)
Enveloped (membrane-bound) virus particles
42(3)
Virus particles with head-tail morphology
45(2)
Frequency of occurrence of different virus particle morphologies
47(1)
Principles of disassembly: virus particles are metastable
47(2)
Key points
47(1)
Further reading
48(1)
Classification of viruses
49(10)
Classification on the basis of disease
49(1)
Classification on the basis of host organism
50(1)
Classification on the basis of virus particle morphology
51(1)
Classification on the basis of viral nucleic acids
52(2)
Classification on the basis of taxonomy
54(1)
Satellites, viroids, and prions
55(4)
Key points
58(1)
Further reading
58(1)
Part II: Virus growth in cells
59(132)
The process of infection: I. Attachment of viruses and the entry of their genomes into the target cell
61(18)
Infection of animal cells -- attachment to the cell
62(3)
Infection of animal cells -- entry into the cell
65(5)
Infection of plants
70(1)
Infection of bacteria
71(4)
Prevention of the early stages of infection
75(4)
Key points
77(1)
Questions
77(1)
Further reading
78(1)
The process of infection: IIA. The replication of viral DNA
79(18)
The universal mechanism of DNA synthesis
80(3)
Replication of circular double-stranded DNA genomes
83(3)
Replication of linear double-stranded DNA genomes that can form circles
86(3)
Replication of linear double-stranded DNA genomes that do not circularize
89(3)
Replication of circular single-stranded DNA genomes
92(1)
Replication of linear single-stranded DNA genomes
93(2)
Dependency versus autonomy among DNA viruses
95(2)
Key points
96(1)
Questions
96(1)
Further reading
96(1)
The process of infection: IIB. Genome replication in RNA viruses
97(16)
Nature and diversity of RNA virus genomes
98(1)
Regulatory elements for RNA virus genome synthesis
99(3)
Synthesis of the RNA genome of Baltimore class 3 viruses
102(2)
Synthesis of the RNA genome of Baltimore class 4 viruses
104(3)
Synthesis of the RNA genome of Baltimore class 5 viruses
107(3)
Synthesis of the RNA genome of viroids and hepatitis delta virus
110(3)
Key points
111(1)
Questions
111(1)
Further reading
112(1)
The process of infection: IIC. The replication of RNA viruses with a DNA intermediate and vice versa
113(15)
The retrovirus replication cycle
114(1)
Discovery of reverse transcription
115(1)
Retroviral reverse transcriptase
116(1)
Mechanism of retroviral reverse transcription
117(3)
Integration of retroviral DNA into cell DNA
120(2)
Production of retrovirus progeny genomes
122(1)
Spumaviruses: retrovirus with unusual features
122(1)
The hepadnavirus replication cycle
123(1)
Mechanism of hepadnavirus reverse transcription
123(3)
Comparing reverse transcribing viruses
126(2)
Key points
127(1)
Questions
127(1)
Further reading
127(1)
The process of infection: IIIA. Gene expression in DNA viruses and reverse-transcribing viruses
128(21)
The DNA viruses and retroviruses: Baltimore classes 1, 2, 6, and 7
129(1)
Polyomaviruses
130(2)
Papillomaviruses
132(4)
Adenoviruses
136(3)
Herpesviruses
139(2)
Poxviruses
141(1)
Parvoviruses
142(1)
Retroviruses
143(3)
Hepadnaviruses
146(1)
DNA bacteriophages
147(2)
Key points
147(1)
Questions
148(1)
Further reading
148(1)
The process of infection: IIIB. Gene expression and its regulation in RNA viruses
149(23)
The RNA viruses: Baltimore classes 3, 4, and 5
150(1)
Reoviruses
151(6)
Picornaviruses
157(1)
Alphaviruses
158(2)
Coronaviruses
160(2)
Negative sense RNA viruses with segmented genomes
162(1)
Orthomyxoviruses
163(4)
Arenaviruses
167(1)
Negative sense RNA viruses with nonsegmented, single-stranded genomes: rhabdoviruses and paramyxoviruses
167(5)
Key points
171(1)
Questions
171(1)
Further reading
171(1)
The process of infection: IV. The assembly of viruses
172(19)
Self-assembly from mature virion components
173(1)
Assembly of viruses with a helical structure
174(3)
Assembly of viruses with an isometric structure
177(3)
Assembly of complex viruses
180(1)
Sequence-dependent and -independent packaging of virus DNA in virus particles
181(2)
The assembly of enveloped viruses
183(4)
Maturation of virus particles
187(4)
Key points
189(1)
Questions
189(1)
Further reading
189(2)
Part III: Virus interactions with the whole organism
191(100)
The immune system and virus neutralization
193(21)
Viruses and the immune system -- an overview
195(2)
Innate immunity
197(3)
Adaptive immunity
200(9)
Understanding virus neutralization by antibody
209(3)
Age and immunity
212(2)
Key points
212(1)
Questions
213(1)
Further reading
213(1)
Interactions between animal viruses and cells
214(12)
Acutely cytopathogenic infections
214(2)
Persistent infections
216(3)
Latent infections
219(2)
Transforming infections
221(1)
Abortive infections
222(1)
Null infections
223(1)
How do animal viruses kill cells?
223(3)
Key points
224(1)
Questions
225(1)
Further reading
225(1)
Animal virus-host interactions
226(17)
Cause and effect: Koch's postulates
226(1)
A classification of virus-host interactions
227(3)
Acute infections
230(4)
Subclinical infections
234(1)
Persistent and chronic infections
234(3)
Latent infections
237(1)
Slowly progressive diseases
238(2)
Virus-induced tumors
240(3)
Key points
242(1)
Questions
242(1)
Further reading
242(1)
Mechanisms in virus latency
243(17)
The latent interaction of virus and host
244(1)
Gene expression in the lytic cycle of bacteriophage λ
245(2)
Establishment and maintenance bacteriophage λ lysogeny
247(2)
Induction and excision of the bacteriophage λ lysogen DNA
249(2)
Immunity to superinfection
251(1)
The benefits of lysogeny
251(1)
Herpes simplex virus latency
252(3)
Epstein-Barr virus latency
255(1)
Latency in other herpesviruses
256(2)
HIV-1 latency
258(2)
Key points
259(1)
Questions
259(1)
Further reading
259(1)
Transmission of viruses
260(11)
Horizontal transmission
261(6)
Vertical transmission
267(1)
Zoonoses
268(3)
Key points
269(1)
Questions
270(1)
Further reading
270(1)
The evolution of viruses
271(20)
The potential for rapid evolution in RNA viruses: quasispecies and rapid evolution
272(1)
Rapid evolution: recombination
273(1)
Evolution of measles virus
274(1)
Evolution of myxoma virus
275(2)
Evolution of influenza virus
277(14)
Key points
288(1)
Questions
289(1)
Further reading
289(2)
Part IV: Viruses and disease
291(153)
Human viral disease: an overview
293(17)
A brief survey of human viral pathogens
295(1)
Factors affecting the relative incidence of viral disease
295(3)
Factors determining the nature and severity of viral disease
298(2)
Common signs and symptoms of viral infection
300(1)
Acute viral infection 1: gastrointestinal infections
301(2)
Acute viral infection 2: respiratory infections
303(2)
Acute viral infection 3: infections of the liver
305(1)
Acute viral infection 4: systemic spread
306(2)
Acute viral disease: conclusions
308(2)
Key points
308(1)
Questions
309(1)
Further reading
309(1)
HIV and AIDS
310(31)
The biology of HIV infection
311(4)
Molecular biology of HIV-1
315(5)
HIV transmission
320(1)
Course of HIV infection and disease
321(2)
Death and AIDS
323(1)
Immunological abnormalities
324(1)
Why is the incubation period of AIDS so long?
325(2)
Prevention and control of HIV infection
327(10)
The cost of the HIV pandemic
337(1)
Unresolved issues
338(3)
Key points
338(1)
Questions
339(1)
Further reading
339(2)
Carcinogenesis and tumor viruses
341(23)
Immortalization, transformation, and tumorigenesis
343(2)
Oncogenic viruses
345(2)
Polyomaviruses, papillomaviruses, and adenoviruses: the small DNA tumor viruses as experimental models
347(5)
Papillomaviruses, SV40, and human cancer
352(2)
Herpesvirus involvement in human cancers
354(2)
Retroviruses as experimental model tumor viruses
356(2)
Retroviruses and naturally occurring tumors
358(1)
Hepatitis viruses and liver cancer
359(1)
Prospects for the control of virus-associated cancers
360(4)
Key points
362(1)
Questions
362(1)
Further reading
362(2)
Vaccines and antivirals: the prevention and treatment of virus diseases
364(37)
Principal requirements of a vaccine
365(5)
Advantages, disadvantages, and difficulties associated with live and killed vaccines
370(5)
Peptide vaccines
375(2)
Genetically engineered vaccines
377(4)
Infectious disease worldwide
381(1)
Elimination of virus diseases by vaccination
381(7)
Clinical complications with vaccines and immunotherapy
388(2)
Prophylaxis and therapy with antiviral drugs
390(11)
Key points
399(1)
Questions
399(1)
Further reading
400(1)
Prion diseases
401(15)
The spectrum of prion diseases
401(2)
The prion hypothesis
403(2)
The etiology of prion diseases
405(2)
Prion disease pathogenesis
407(2)
Bovine spongiform encephalopathy (BSE)
409(2)
BSE and the emergence of variant CJD
411(2)
Unresolved issues
413(3)
Key points
414(1)
Questions
414(1)
Further reading
415(1)
Horizons in human virology
416(28)
Technical advances
417(5)
Recombinant viruses as gene therapy vectors
422(6)
Subtle and insidious virus-host interactions
428(5)
Emerging virus infections
433(8)
Virology and society: for good or ill
441(3)
Key points
442(1)
Questions
442(1)
Further reading
442(2)
Appendixes: Survey of virus properties
444(36)
Viruses that multiply in vertebrate and invertebrate animals
445(15)
Viruses that multiply in plants
460(9)
Viruses that multiply in algae, fungi, and protozoa
469(3)
Viruses (phages) that multiply in Archaea, bacteria, Mycoplasma, and Spiroplasma
472(4)
Satellite viruses and satellite nucleic acids of viruses of animals, plants, and bacteria
476(2)
Viroids (genome unclassified as they synthesize no mRNA)
478(1)
Further reading
479(1)
Index 480

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