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Microbiology: An Evolving Science Second Edition [Kõva köide]

(Kenyon College), (University of South Alabama)
  • Formaat: Hardback, 1097 pages, kõrgus x laius x paksus: 284x224x43 mm, kaal: 2484 g
  • Ilmumisaeg: 14-Jan-2011
  • Kirjastus: WW Norton & Co
  • ISBN-10: 0393934470
  • ISBN-13: 9780393934472
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  • Formaat: Hardback, 1097 pages, kõrgus x laius x paksus: 284x224x43 mm, kaal: 2484 g
  • Ilmumisaeg: 14-Jan-2011
  • Kirjastus: WW Norton & Co
  • ISBN-10: 0393934470
  • ISBN-13: 9780393934472
Teised raamatud teemal:
Aimed at undergraduate science majors, this textbook on microbiology emphasizes genetics and ecology and genetics and genomics as the foundation of microbiology, as well as placing equal emphasis on microbial ecology and medical microbiology. It incorporates case histories and a balanced depiction of women and minority scientists and historical and contemporary scientists (with new interviews). For this edition, Slonczewski (Kenyon College) et al. add new research topics and emerging pathogens, from cold-seep archaeal-bacterial consortia to emerging E. coli pathogens and viral gene therapy. Other new topics include the swine flu, the molecular biology of chemotaxis, plasmid segregation and metagenomic analysis of environmental populations, community genomics, and bioterrorism and quick pathogen detection. There is more coverage of immunology and some topics have been removed from the book and placed online. Annotation ©2011 Book News, Inc., Portland, OR (booknews.com)

Microbiology promotes a clear understanding of this rapidly advancing field in several distinctive ways.

First, an emphasis on current research, genomics, and molecular genetics enables students to learn how microbiologists think. Second, a readable text paired with a stunning and consistently executed art program, and accompanied by twenty-two high-quality animations based on art in the text, help students visualize key processes and showcase the latest structural discoveries. Additional helpful pedagogical features in every chapter, such as Thought Questions, aid student understanding and stimulate inquiry.
Preface xvii
eTopic Contents xxxiii
About the Authors xxxiv
PART 1 The Microbial Cell
2(216)
The Global Impact of Microbiology
Rita Colwell
Chapter 1 Microbial Life: Origin and Discovery
5(34)
1.1 From Germ to Genome: What is a Microbe?
6(5)
1.2 Microbes Shape Human History
11(6)
1.3 Medical Microbiology
17(9)
Special Topic 1.1 How Did Life Originale?
18(8)
1.4 Microbial Ecology
26(2)
1.5 The Microbial Family Tree
28(3)
1.6 Cell Biology and the DNA Revolution
31(8)
Chapter 2 Observing the Microbial Cell
39(34)
2.1 Observing Microbes
40(4)
2.2 Optics and Properties of Light
44(4)
2.3 Bright-Field Microscopy
48(7)
2.4 Dark-Field, Phase-Contrast, and Interference Microscopy
55(3)
2.5 Fluorescence Microscopy
58(4)
2.6 Electron Microscopy
62(6)
Special Topic 2.1 Cryo-Electron Tomography Images an Entire Cell in Three Dimensions
66(2)
2.7 Visualizing Molecules
68(5)
Chapter 3 Cell Structure and Function
73(40)
3.1 The Bacterial Cell: An Overview
75(3)
3.2 How We Study Cell Parts
78(4)
3.3 The Cell Membrane and Transport
82(6)
3.4 The Cell Wall and Outer Layers
88(10)
Special Topic 3.1 How Antibiotics Cross the Outer Membrane
96(2)
3.5 The Nucleoid and Gene Expression
98(3)
3.6 Cell Division
101(5)
Special Topic 3.2 Bacteria Have a Cytoskeleton
104(2)
3.7 Specialized Structures
106(7)
Chapter 4 Bacterial Culture, Growth, and Development
113(36)
4.1 Microbial Nutrition
114(6)
4.2 Nutrient Uptake
120(6)
4.3 Culturing Bacteria
126(3)
4.4 Counting Bacteria
129(3)
4.5 The Growth Cycle
132(7)
4.6 Biofilms
139(3)
Special Topic 4.1 Biofilms, Disease, and Garlic
141(1)
4.7 Cell Differentiation
142(7)
Chapter 5 Environmental Influences and Control of Microbial Growth
149(32)
5.1 Environmental Limits on Growth
150(1)
5.2 Adaptation to Temperature
151(5)
Special Topic 5.1 It's Raining Bacteria
155(1)
5.3 Adaptation to Pressure
156(1)
5.4 Water Activity and Salt
157(2)
5.5 Adaptation to pH Changes
159(5)
5.6 Oxygen and Other Electron Acceptors
164(3)
5.7 Nutrient Deprivation and Starvation
167(3)
5.8 Physical, Chemical, and Biological Control of Microbes
170(11)
Chapter 6 Virus Structure and Function
181(37)
6.1 What is a Virus?
182(5)
6.2 Virus Structure
187(4)
6.3 Viral Genomes and Classification
191(6)
6.4 Bacteriophage Life Cycles
197(4)
6.5 Animal and Plant Virus Life Cycles
201(7)
6.6 Culturing Viruses
208(4)
Special Topic 6.1 West Nile Virus, an Emerging Pathogen
212(1)
6.7 Viral Ecology
212(6)
PART 2 Genes and Genomes
218(236)
The Thrill of Discovery in Molecular Microbiology
Christine Jacobs-Wagner
Chapter 7 Genomes and Chromosomes
221(36)
7.1 DNA: The Genetic Material
222(1)
7.2 Genome Organization
223(9)
7.3 DNA Replication
232(10)
7.4 Plasmids
242(2)
7.5 Eukaryotic Chromosomes
244(2)
7.6 DNA Sequence Analysis
246(11)
Special Topic 7.1 Where Have All the Bees Gone? Metagenomics, Pyrosequencing, and Nature
252(5)
Chapter 8 Transcription, Translation, and Bioinformatics
257(44)
8.1 RNA Polymerases and sigma Factors
258(3)
8.2 Transcription of DNA to RNA
261(7)
8.3 Translation of RNA to Protein
268(16)
Special Topic 8.1 Stalking the Lone Ribosome
279(5)
8.4 Protein Modification and Folding
284(1)
8.5 Secretion: Protein Traffic Control
285(5)
8.6 Protein Degradation: Cleaning House
290(2)
8.7 Bioinformatics: Mining the Genomes
292(9)
Chapter 9 Gene Transfer, Mutations, and Genome Evolution
301(40)
9.1 The Mosaic Nature of Genomes
302(1)
9.2 Gene Transfer
302(13)
Special Topic 9.1 There's a Bacterial Genome Hidden in My Fruit Fly
310(5)
9.3 Recombination
315(4)
9.4 Mutations
319(6)
9.5 DNA Repair
325(6)
9.6 Mobile Genetic Elements
331(4)
9.7 Genome Evolution
335(6)
Chapter 10 Molecular Regulation
341(44)
10.1 Regulating Gene Expression
342(3)
10.2 Paradigm of the Lactose Operon
345(6)
10.3 Other Systems of Operon Control
351(7)
10.4 Sigma Factor Regulation
358(3)
10.5 Small Regulatory RNAs
361(3)
10.6 DNA Rearrangements: Phase Variation by Shifty Pathogens
364(3)
10.7 Integrated Control Circuits
367(7)
Special Topic 10.1 Toxin-Antitoxin Modules: Mechanisms for Self-preservation or Altruism?
372(2)
10.8 Quorum Sensing: Chemical Conversations
374(3)
Special Topic 10.2 The Role of Quorum Sensing in Pathogenesis and in Interspecies Communications
376(1)
10.9 Genomics and Proteomics: Tools of the Future
377(8)
Chapter 11 Viral Molecular Biology
385(42)
11.1 Phage T4: The Classic Molecular Model
387(6)
11.2 Poliovirus:(+) Strand RNA
393(6)
11.3 Influenza Virus: (-) Strand RNA
399(6)
11.4 Human Immunodeficiency Virus (HIV): Retrovirus
405(10)
11.5 Herpes Simplex Virus: DNA
415(7)
Special Topic 11.1 How Did Viruses Originate?
416(6)
11.6 Gene Therapy with Viruses
422(5)
Chapter 12 Molecular Techniques and Biotechnology
427(27)
12.1 Basic Tools of Biotech: A Research Case Study
428(1)
12.2 Genetic Analyses
428(4)
12.3 Molecular Analyses
432(9)
12.4 "Global" Questions of Cell Physiology
441(4)
12.5 Applied Biotechnology
445(9)
Special Topic 12.1 DNA Vaccines
446(8)
PART 3 Metabolism and Biochemistry
454(166)
Polymer Biosynthesis Makes a Pathogenic Biofilm
Dan Wozniak
Chapter 13 Energetics and Catabolism
457(44)
13.1 Energy and Entropy for Life
458(4)
13.2 Energy and Entropy in Biochemical Reactions
462(3)
13.3 Energy Carriers and Electron Transfer
465(6)
13.4 Catabolism: The Microbial Buffet
471(7)
Special Topic 13.1 Swiss Cheese: A Product of Bacterial Catabolism
476(2)
13.5 Glucose Breakdown and Fermentation
478(9)
13.6 The Tricarboxylic Acid (TCA) Cycle
487(6)
13.7 Aromatic Pollutants
493(8)
Special Topic 13.2 Genomic Analysis of Metabolism
494(7)
Chapter 14 Respiration, Lithotrophy, and Photolysis
501(42)
14.1 Electron Transport Systems
502(5)
14.2 The Proton Motive Force
507(5)
Special Topic 14.1 Testing the Chemiosmotic Theory
510(2)
14.3 The Respiratory ETS and ATP Synthase
512(8)
14.4 Anaerobic Respiration
520(4)
Special Topic 14.2 Bacterial Electric Power
522(2)
14.5 Lithotrophy and Methanogenesis
524(5)
14.6 Phototrophy
529(14)
Chapter 15 Biosynthesis
543(40)
15.1 Overview of Biosynthesis
544(1)
15.2 CO2 Fixation: The Calvin Cycle
545(11)
Special Topic 15.1 The Discovery of 14C
548(8)
15.3 CO2 Fixation in Anaerobes and Archaea
556(3)
15.4 Biosynthesis of Fatty Acids, Polyesters, and Polyketides
559(8)
Special Topic 15.2 Metagenomic Screening for Polyketide Drugs
564(3)
15.5 Nitrogen Fixation
567(5)
15.6 Biosynthesis of Amino Acids and Nitrogenous Bases
572(6)
15.7 Biosynthesis of Tetrapyrroles
578(5)
Chapter 16 Food and Industrial Microbiology
583(37)
16.1 Microbes as Food
584(2)
16.2 Fermented Foods: An Overview
586(3)
16.3 Acid-and Alkali-Fermented Foods
589(7)
Special Topic 16.1 Chocolate: The Mystery Fermentation
594(2)
16.4 Ethanolic Fermentation: Bread and Wine
596(5)
16.5 Food Spoilage and Preservation
601(8)
16.6 Industrial Microbiology
609(11)
Special Topic 16.2 Start-Up Companies Take On Tuberculosis
610(10)
PART 4 Microbial Diversity and Ecology
620(238)
Adventures in Microbial Diversity Lead to Products in Industry
Karl Stetter
Chapter 17 Origins and Evolution
623(46)
17.1 Origins of Life
625(10)
17.2 Models for Early Life
635(3)
17.3 Microbial Divergence and Phylogeny
638(10)
Special Topic 17.1 Phylogeny of a Shower Curtain Biofilm
644(4)
17.4 Horizontal Gene Transfer
648(2)
17.5 Microbial Species and Taxonomy
650(8)
Special Topic 17.2 Horizontal Gene Transfer in E. coli 0157:H7
654(4)
17.6 Symbiosis and the Origin of Mitochondria and Chloroplasts
658(11)
Chapter 18 Bacterial Diversity
669(46)
18.1 Bacterial Diversity at a Glance
671(7)
18.2 Deep-Branching Thermophiles
678(3)
18.3 Cyanobacteria: Oxygenic Phototrophs
681(3)
18.4 Gram-Positive Firmicutes and Actinobacteria
684(11)
18.5 Gram-Negative Proteobacteria and Nitrospirae
695(13)
Special Topic 18.1 Carbon Monoxide: Food for Bacteria?
698(10)
18.6 Bacteroidetes and Chlorobi
708(1)
18.7 Spirochetes: Sheathed Spiral Cells with Internalized Flagella
708(2)
18.8 Chlamydiae, Planctomycetes, and Verrucomicrobia: Irregular Cells
710(5)
Chapter 19 Archaeal Diversity
715(36)
19.1 Archaeal Traits
717(7)
19.2 Crenarchaeota: Hyperthermophiles
724(6)
Special Topic 19.1 Research on Deep-Sea Hyperthermophiles
727(3)
19.3 Crenarchaeota: Mesophiles and Psychrophiles
730(3)
19.4 Euryarchaeota: Methanogens
733(6)
19.5 Euryarchaeota: Halophiles
739(6)
Special Topic 19.2 Haloarchaea in the High School Classroom
741(4)
19.6 Euryarchaeota: Thermophiles and Acidophiles
745(3)
19.7 Deeply Branching Divisions
748(3)
Chapter 20 Eukaryotic Diversity
751(38)
20.1 Phylogeny of Eukaryotes
752(9)
20.2 Fungi and Microsporidia
761(8)
20.3 Algae
769(6)
20.4 Amebas and Slime Molds
775(3)
20.5 Alveolates: Ciliates, Dinoflagellates, and Apicomplexans
778(5)
20.6 Trypanosomes and Metamonads
783(6)
Special Topic 20.1 The Trypanosome: A Shape-Shifting Killer
784(5)
Chapter 21 Microbial Ecology
789(40)
21.1 Microbes in Ecosystems
791(3)
21.2 Microbial Symbiosis
794(4)
21.3 Marine and Aquatic Microbiology
798(12)
21.4 Soil and Subsurface Microbiology
810(7)
21.5 Microbial Communities within Plants
817(4)
21.6 Microbial Communities within Animals
821(8)
Special Topic 21.1 A Veterinary Experiment: The Fistulated Cow
824(5)
Chapter 22 Microbes and the Global Environment
829(29)
22.1 Biogeochemical Cycles
830(3)
22.2 The Carbon Cycle
833(2)
22.3 The Hydrologic Cycle and Wastewater Treatment
835(6)
Special Topic 22.1 Wetlands: Disappearing Microbial Ecosystems
836(5)
22.4 The Nitrogen Cycle
841(5)
22.5 Sulfur, Phosphorus, and Metals
846(6)
22.6 Astrobiology
852(6)
PART 5 Medicine and Immunology
858
Molecular Microbiology Dissects a Pathogen
Ferric Fang
Chapter 23 Human Microbiota and Nonspecific Host Defenses
861(32)
23.1 Human Microbiota: Location and Shifting Composition
862(8)
23.2 Risks and Benefits of Harboring Microbial Populations
870(1)
23.3 Overview of the Immune System
871(4)
23.4 Barbarians at the Gate: Innate Host Defenses
875(5)
Special Topic 23.1 Do Defensins Help Determine Species Specificity for Infection?
879(1)
23.5 Innate Immunity: The Acute Inflammatory Response
880(3)
23.6 Phagocytosis
883(2)
23.7 Innate Defenses: Interferon, Natural Killer Cells, and Toll-Like Receptors
885(3)
23.8 Complement's Role in Innate Immunity
888(2)
23.9 Fever
890(3)
Chapter 24 The Adaptive Immune Response
893(42)
24.1 Adaptive Immunity
894(2)
24.2 Immunogenicity
896(4)
24.3 Antibody Structure and Diversity
900(5)
24.4 Primary and Secondary Antibody Responses
905(3)
24.5 Genetics of Antibody Production
908(5)
24.6 T Cells, Histocompatibility, and Antigen Processing
913(10)
24.7 Complement as Part of Adaptive Immunity
923(2)
24.8 Hypersensitivity and Autoimmunity
925(10)
Special Topic 24.1 An Uneasy Peace: Detente at the Microbiota-Intestinal Interface
929(6)
Chapter 25 Microbial Pathogenesis
935(42)
25.1 Host-Pathogen Interactions
936(4)
25.2 Virulence Factors and Pathogenicity Islands: The Tools and Toolkits of Microbial Pathogens
940(3)
25.3 Virulence Factors: Microbial Attachment
943(5)
25.4 Toxins Subvert Host Function
948(10)
25.5 Protein Secretion and Pathogenesis
958(3)
25.6 Finding Virulence Genes
961(5)
Special Topic 25.1 The Bacterial Trojan Horse: Bacteria That Deliver Their Own Receptor
962(4)
25.7 Surviving within the Host
966(4)
Special Topic 25.2 Bacterial Covert Operations: Secreted Shigella Effector Proteins Jam Communications between Target Cells and Innate Immunity
968(2)
25.8 Viral Pathogenesis
970(7)
Chapter 26 Microbial Diseases
977(50)
26.1 Characterizing and Diagnosing Microbial Diseases
978(2)
26.2 Skin and Soft-Tissue Infections
980(4)
26.3 Respiratory Tract Infections
984(6)
26.4 Gastrointestinal Tract Infections
990(5)
26.5 Genitourinary Tract Infections
995(10)
Special Topic 26.1 Intracellular Biofilm Pods are Reservoirs of Infection
998(7)
26.6 Central Nervous System Infections
1005(7)
26.7 Cardiovascular System Infections
1012(2)
26.8 Systemic Infections
1014(8)
26.9 Immunization
1022(5)
Chapter 27 Antimicrobial Chemotherapy
1027(36)
27.1 The Golden Age of Antibiotic Discovery
1028(2)
27.2 Basic Concepts of Antimicrobial Therapy
1030(1)
27.3 Measuring Drug Susceptibility
1031(4)
27.4 Mechanisms of Action
1035(10)
27.5 Antibiotic Biosynthesis
1045(1)
27.6 Challenges of Drug Resistance
1046(5)
27.7 The Future of Drug Discovery
1051(2)
27.8 Antiviral Agents
1053(5)
Special Topic 27.1 Disrupting Cell-Cell Communications to Prevent Infection: Good Idea?
1054(2)
Special Topic 27.2 Resurrecting the 1918 Pandemic Flu Virus
1056(2)
27.9 Antifungal Agents
1058(5)
Chapter 28 Clinical Microbiology and Epidemiology
1063
28.1 Principles of Clinical Microbiology
1064(1)
28.2 Approaches to Pathogen Identification
1065(14)
28.3 Specimen Collection
1079(4)
28.4 Biosafety Containment Procedures
1083(2)
28.5 Principles of Epidemiology
1085(6)
28.6 Detecting Emerging Microbial Diseases
1091
Special Topic 28.1 What's Blowing in the Wind? Quick Pathogen Detection Systems Guard against Bioterrorism
1092
APPENDIX 1 Biological Molecules
1(20)
A1.1 Elements, Bonding, and Water
2(3)
A1.2 Organic Molecules
5(1)
A1.3 Proteins
6(4)
A1.4 Carbohydrates
10(2)
A1.5 Nucleic Acids
12(2)
A1.6 Lipids
14(2)
A1.7 Biological Chemistry
16(5)
APPENDIX 2 Introductory Cell Biology: Eukaryotic Cells
21
A2.1 The Cell Membrane
22(6)
A2.2 The Nucleus and Mitosis
28(3)
A2.3 Problems Faced by Large Cells
31(1)
A2.4 The Endomembrane System
32(3)
A2.5 The Cytoskeleton
35(2)
A2.6 Mitochondria and Chloroplasts
37
Answers to Thought Questions 1(1)
Figure Credits 1(1)
Glossary 1(1)
Index 1
Joan L. Slonczewski received their BA from Bryn Mawr College and her PhD in molecular biophysics and biochemistry from Yale University, where she studied bacterial motility with Robert M. Macnab. Since completing postdoctoral work at the University of Pennsylvania, they have since taught undergraduate microbiology in the Department of Biology at Kenyon College, where they earned a Silver Medal in the National Professor of the Year program of the Council for the Advancement and Support of Education. They have published numerous research articles with undergraduate coauthors on bacterial pH regulation as well as five science fiction novels, including The Highest Frontier and A Door into Ocean, both of which earned the John W. Campbell Memorial Award. They conducted fieldwork on microbial ecosystems in Antarctica, sponsored by the National Science Foundation. They have served as At-Large Member representing Divisions on the Council Policy Committee of the American Society for Microbiology and as a member of the editorial board of the journal Applied and Environmental Microbiology. John W. Foster received his BS from the Philadelphia College of Pharmacy and Science (now the University of the Sciences in Philadelphia) and his PhD from Hahnemann University (now Drexel University School of Medicine), also in Philadelphia, where he worked with Albert G. Moat. After postdoctoral work at Georgetown University, he joined the Marshall University School of Medicine in West Virginia. He is currently teaching in the Department of Microbiology and Immunology at the University of South Alabama College of Medicine in Mobile, Alabama. Dr. Foster has coauthored three editions of the textbook Microbial Physiology and has published more than 100 journal articles describing the physiology and genetics of microbial stress responses. He has served as Chair of the Microbial Physiology and Metabolism division of the American Society for Microbiology and as a member of the editorial advisory board of the journal Molecular Microbiology.