Thư viện Trường Đại học Phú Xuân
ESC4103 - Environmental Microbiology

Nguồn ngoài

ESC4103 - Environmental Microbiology

Tác giả
Noor Hafizah Mohd Pushiri
Nhà xuất bản
Universiti Putra Malaysia
Nguồn
LibreTexts
Ngôn ngữ
EN
Danh mục
Khoa học cơ bản
Mục lục· 240 mục
  1. 01: Main concepts and history
  2. 1.01: Defining Microbes
  3. 1.02: History of Microbiology - Hooke van Leeuwenhoek and Cohn
  4. 1.03: Pasteur and Spontaneous Generation
  5. 1.04: Koch and Pure Culture
  6. 02: Types and habitats
  7. 2.01: 1.2A Types of Microorganisms
  8. 2.02: Classification of Microorganisms
  9. 2.03: Microbes and the Origin of Life on Earth
  10. 2.04: Environmental Diversity of Microbes
  11. 03: Microbial Ecology
  12. 3.01: Microbial Ecology
  13. 3.1A: Microbes and Ecosystem Niches
  14. 3.1B: Organization of Ecosystems
  15. 3.1C: Role of Microbes in Biogeochemical Cycling
  16. 3.1D: Microbial Environments and Microenvironments
  17. 3.02: Soil and Plant Microbiology
  18. 3.2A: Soil Composition
  19. 3.2B: Physical Properties of Soil
  20. 3.2C: Mycorrhiza
  21. 3.2D: Wetland Soils
  22. 3.2E: Endophytes and Plants
  23. 3.2F: Mycorrhizae- The Symbiotic Relationship between Fungi and Roots
  24. 3.2F: Plant Pathogens
  25. 3.2G: Nitrogen Fixation- Root and Bacteria Interactions
  26. 3.03: Aquatic Microbiology
  27. 3.3A: Marine Habitats
  28. 3.3B: Planktonic Communities
  29. 3.3C: Planktonic Food Webs
  30. 3.3D: Ocean Floor
  31. 3.3E: Cold-Seep Ecosystems
  32. 3.3F: The Deep Sea and Barophilism
  33. 3.3G: Sea Coral and Sea Anemone Zooxanthellae
  34. 3.3H: Sponge Communities
  35. 3.3I: Freshwater Environments
  36. 3.04: Nutrient Cycles
  37. 3.4A: Sources and Sinks of Essential Elements
  38. 3.4B: The Carbon Cycle
  39. 3.4C: Syntrophy and Methanogenesis
  40. 3.4D: The Phosphorus Cycle
  41. 3.4E: The Nitrogen Cycle
  42. 3.4F: The Sulfur Cycle
  43. 3.4G: The Iron Cycle
  44. 3.05: Microbial Symbioses
  45. 3.5A: Mutualism vs. Symbiosis
  46. 3.5B: The Rumen and Ruminant Animals
  47. 3.5C: Hydrothermal Vent Microbial Ecosystems
  48. 3.5D: Squid-Aliivibrio Symbiosis
  49. 3.5E: Mutualistic Relationships with Fungi and Fungivores
  50. 3.5F: Agrobacterium and Crown Gall Disease
  51. 3.5G: The Legume-Root Nodule Symbiosis
  52. 04: Microbial Metabolism
  53. 4.01: Types of Metabolism
  54. 4.1A: Photoautotrophs and Photohetrotrophs
  55. 4.1B: Chemoautotrophs and Chemohetrotrophs
  56. 4.02: Energy Production
  57. 4.2A: Control of Catabolic Pathways
  58. 4.2B: Transforming Chemical Energy
  59. 4.2C: Connecting Other Sugars to Glucose Metabolism
  60. 4.03: Catabolism
  61. 4.3A: Types of Catabolism
  62. 4.3B: Pyruvic Acid and Metabolism
  63. 4.04: Glycolysis
  64. 4.4A: Importance of Glycolysis
  65. 4.4B: Electron Donors and Acceptors
  66. 4.4C: ATP Yield
  67. 4.4D: Respiration and Proton Motive Force
  68. 4.05: Respiratory ETS and ATP Synthase
  69. 4.5A: Cofactors and Energy Transitions
  70. 4.5B: Oxidoreductase Protein Complexes
  71. 4.5C: F10 ATP Synthase
  72. 4.5D: Sodium Pumps as an Alternative to Proton Pump
  73. 4.06: The Citric Acid (Krebs) Cycle
  74. 4.6A: Citric Acid Cycle
  75. 4.6B: Breakdown of Pyruvate
  76. 4.6C: Acetyl CoA and the Citric Acid Cycle
  77. 4.07: Alternatives to Glycolysis
  78. 4.7A: The Entner-Doudoroff Pathway
  79. 4.7B: Aerobic Hydrocarbon Oxidation
  80. 4.7C: The Pentose Phosphate Shunt
  81. 4.7D: Organic Acid Metabolism
  82. 4.7E: Lipid Metabolism
  83. 4.7F: Connecting Proteins to Glucose Metabolism
  84. 4.7G: Methylotrophy and Methanotrophy
  85. 4.08: Fermentation
  86. 4.8A: Anaerobic Cellular Respiration
  87. 4.8B: Clostridial and Propionic Acid Fermentation
  88. 4.8C: Fermentation Without Substrate-Level Phosphorylation
  89. 4.8C: Syntrophy
  90. 4.09: Anaerobic Respiration
  91. 4.9A: Electron Donors and Acceptors in Anaerobic Respiration
  92. 4.9B: Nitrate Reduction and Denitrification
  93. 4.9C: Sulfate and Sulfur Reduction
  94. 4.9D: Methanogenesis
  95. 4.9E: Proton Reduction
  96. 4.9F: Anoxic Hydrocarbon Oxidation
  97. 4.10: Chemolithotrophy
  98. 4.10A: The Energetics of Chemolithotrophy
  99. 4.10B: Hydrogen Oxidation
  100. 4.10C: Oxidation of Reduced Sulfur Compounds
  101. 4.10D: Iron Oxidation
  102. 4.10E: Nitrification
  103. 4.10F: Anammox
  104. 4.10G: Benzoate Catabolism
  105. 4.10H: Polycyclic Aromatic Hydrocarbons
  106. 4.11: Phototrophy
  107. 4.11A: The Purpose and Process of Photosynthesis
  108. 4.11B: Main Structures and Summary of Photosynthesis
  109. 4.11C: The Two Parts of Photosynthesis
  110. 4.11D: Bacteriorhodopsin
  111. 4.11E: Carotenoids and Phycobilins
  112. 4.11F: Facultative Phototrophy
  113. 4.11G: Oxygenic Photosynthesis
  114. 4.11H: Anoxygenic Photosynthesis
  115. 4.12: Biosynthesis
  116. 4.12A: Substrates for Biosysnthesis
  117. 4.12B: Biosynthesis and Energy
  118. 4.12C: The Calvin Cycle
  119. 4.12D: Intermediates Produced During the Calvin Cycle
  120. 4.12E: Regulation of the Calvin Cycle
  121. 4.12F: The Reverse TCA Cycle
  122. 4.12G: The Acetyl-CoA Pathway
  123. 4.12H: The 3-Hydroxypropionate Cycle
  124. 4.13: Anabolism
  125. 4.13A: Polysaccharide Biosynthesis
  126. 4.13B: Lipid Biosynthesis
  127. 4.13C: Regulation by Biosynthetic Enzymes
  128. 4.13D: Bacterial Polyesters
  129. 4.13E: Polyketide Antibiotics
  130. 4.14: Amino Acids and Nucleotide Biosynthesis
  131. 4.14A: Amino Acid Synthesis
  132. 4.14B: Purine and Pyrimidine Synthesis
  133. 4.14C: Nonribosomal Peptide Antibiotics
  134. 4.14D: Biosynthesis of Tetrapyrroles
  135. 4.15: Nitrogen Fixation
  136. 4.15A: Nitrogenase and Nitrogen Fixation
  137. 4.15B: Early Discoveries in Nitrogen Fixation
  138. 4.15C: Nitrogen Fixation Mechanism
  139. 4.15D: Anaerobiosis and N Fixation
  140. 4.15E: Genetics and Regulation of N Fixation
  141. 05: Microbial Genetics
  142. 5.01: Genes
  143. 5.1A: Bacterial Genomes
  144. 5.1B: DNA Replication in Prokaryotes
  145. 5.1C: Gene Inversion
  146. 5.1D: Slipped-Strand Mispairing
  147. 5.02: Prokaryotic Genomes
  148. 5.2A: Bacterial Chromosomes in the Nucleoid
  149. 5.2B: Supercoiling
  150. 5.2C: Size Variation and ORF Contents in Genomes
  151. 5.2D: Bioinformatic Analyses and Gene Distributions
  152. 5.03: DNA Replication
  153. 5.3A: Basics of DNA Replication
  154. 5.3B: DNA Replication in Eukaryotes
  155. 5.04: Plasmids
  156. 5.4A: Introduction to Plasmids
  157. 5.4B: Types of Plasmids and Their Biological Significance
  158. 5.05: RNA Synthesis - Transcription
  159. 5.5A: Elongation and Termination in Eukaryotes
  160. 5.5B: The Promoter and the Transcription Machinery
  161. 5.06: Translation- Protein Synthesis
  162. 5.6A: Processing of tRNAs and rRNAs
  163. 5.6B: The Protein Synthesis Machinery
  164. 5.6C: Prokaryotic Transcription and Translation Are Coupled
  165. 5.6D: The Incorporation of Nonstandard Amino Acids
  166. 5.6E: Unsticking Stuck Ribosomes
  167. 5.07: Protein Modification Folding Secretion and Degradation
  168. 5.7A: mRNA Processing
  169. 5.7B: Denaturation and Protein Folding
  170. 5.7C: Protein Folding Modification and Targeting
  171. 5.7D: Regulating Protein Activity and Longevity
  172. 5.08: Archaeal Genetics
  173. 5.8A: Chromosomes and DNA Replication in the Archaea
  174. 5.8B: Shared Features of Bacteria and Archaea
  175. 5.8C: Shared Features of Archaea and Eukaryotes
  176. 5.09: Eukaryotic Genetics
  177. 5.9A: The Role of the Cell Cycle
  178. 5.9B: The Relationship Between Genes and Proteins
  179. 5.10: Genetic Transfer in Prokaryotes
  180. 5.10A: Generalized Recombination and RecA
  181. 5.10B: Bacterial Transformation
  182. 5.10C: Bacterial Transduction
  183. 5.10D: Prokaryotic Reproduction
  184. 5.10E: Complementation
  185. 5.10F: Gene Transfer in Archaea
  186. 5.11: Genomics and Proteomics
  187. 5.11A: Microarrays and the Transcriptome
  188. 5.11B: Proteomics
  189. 5.11C: Metabolomics
  190. 5.12: Mutation
  191. 5.12A: DNA Repair
  192. 5.13: Genome Evolution
  193. 5.13A: Gene Families
  194. 5.13B: Genomics and Biofuels
  195. 5.13C: Genome Reduction
  196. 5.13D: Pathogenicity Islands
  197. 06: Microbial biotechnology
  198. 6.01: Tools of Genetic Engineering
  199. 6.1A: Recombinant DNA Technology
  200. 6.1B: Selection
  201. 6.1C: Mutation
  202. 6.1D: Reproductive Cloning
  203. 6.1E: Basic Techniques to Manipulate Genetic Material (DNA and RNA)
  204. 6.1F: Molecular and Cellular Cloning
  205. 6.1G: Plasmids as Cloning Vectors
  206. 6.02: Cloning Techniques
  207. 6.2A: Putting Foreign DNA into Cells
  208. 6.2B: Obtaining DNA
  209. 6.2C: Hosts for Cloning Vectors
  210. 6.2D: Shuttle Vectors and Expression Vectors
  211. 6.2E: Bacteriophage Lambda as a Cloning Vector
  212. 6.2F: Vectors for Genomic Cloning and Sequencing
  213. 6.03: Bioinformatics
  214. 6.3A: Strategies Used in Sequencing Projects
  215. 6.3B: Annotating Genomes
  216. 6.3C: Homologs Orthologs and Paralogs
  217. 6.3D: Synthesizing DNA
  218. 6.3E: Amplifying DNA - The Polymerase Chain Reaction
  219. 6.3F: DNA Sequencing Based on Sanger Dideoxynucleotides
  220. 6.3G: Metagenomics
  221. 6.3H: Reporter Fusions
  222. 6.04: Environmental Genomics
  223. 6.4A: Environmental Metagenomics
  224. 6.4B: Detecting Uncultured Microorganisms
  225. 6.4C: Viral Genomes in Nature
  226. 07: Environmental application
  227. 7.01: Genomics and Biofuels
  228. 7.02: Microbial Bioremediation
  229. 7.2A: Microbial Ore Leaching
  230. 7.2B: Petroleum Biodegradation
  231. 7.2C: The Degradation of Synthetic Chemicals in Soils and Water
  232. 08: Environmental Microbiomes
  233. 8.01: Environmental Nutrient Cycling and Human Health
  234. 8.02: The Ocean Microbiome and Marine Life
  235. 8.03: Soil Microbiomes
  236. 8.04: Plant Microbiomes
  237. 8.05: Pollution and Bioremediation
  238. 8.06: Forensic Microbiomes
  239. 09: Case study
  240. 9.01: Case Study - Environment