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9783540281801

Intestinal Microorganisms of Termites And Other Invertebrates

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  • ISBN13:

    9783540281801

  • ISBN10:

    3540281800

  • Format: Hardcover
  • Copyright: 2006-01-15
  • Publisher: Springer Verlag
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Summary

Soil microorganisms play a major role in the degradation and recycling of organic material. Microbes are involved in the food web and strongly contribute to soil fertility. In the past, attention was mainly directed towards free-living or particle-bound microorganisms, while the role of intestinal microbes of soil animals has been neglected. For the first time, "Intestinal Microorganisms of Termites and Other Invertebrates" focuses on the microbes in gut systems of soil animals. It starts with a profound overview of the biology of soil invertebrates. A major part deals with the gut microbiota of termites, the best investigated gut system of invertebrates. Termites are important soil processors in tropical and subtropical regions. Insight is given into the intestinal microbiota of further relevant primary litter decomposers, such as earthworms, springtails, millipeds, and woodlice. Novel techniques for studying intestinal microbes complete the volume.

Table of Contents

Part I Soil Invertebrates
Biology of Soil Invertebrates
3(52)
Gerhard Eisenbeis
Introduction
3(5)
The Microfauna
8(4)
Protozoa
8(2)
Nematoda -- Roundworms, Eelworms
10(2)
The Mesofauna
12(14)
Pseudoscorpionida -- False Scorpions, Book Scorpions
13(1)
Acari -- Mites
14(3)
Symphyla
17(2)
Pauropoda
19(1)
Collembola -- Springtails
19(4)
Protura
23(2)
Diplura -- Double Tails
25(1)
The Macrofauna
26(17)
Araneida -- Spiders
27(2)
Opiliones -- Harvestmen
29(1)
Terrestrial Isopoda (Oniscoidea) -- Woodlice
30(3)
Chilopoda -- Centipedes
33(2)
Diplopoda -- Millipedes
35(2)
Enchytraeidae - Whiteworms, Potworms
37(2)
Oligochaeta: Lumbricidae - Earthworms
39(2)
Terrestrial Gastropoda - Slugs and Snails
41(1)
Insecta - Pterygote Insects (Short Comments About the Role of Selected Groups of Higher Insects)
42(1)
Conclusions
43(12)
References
47(8)
Interactions Between Bacteria and Nematodes
55(10)
Leo Eberl
David J. Clarke
Introduction
55(1)
Pathogenic Interactions
55(2)
Symbiotic Interactions
57(5)
Photorhabdus and Xenorhabdus
57(5)
Conclusions
62(3)
References
62(3)
Earthworm Gut Microbial Biomes: Their Importance to Soil Microorganisms, Denitrification, and the Terrestrial Production of the Greenhouse Gas N2O
65(24)
Harold L. Drake
Andreas Schramm
Marcus A. Horn
Introduction
65(1)
The Earthworm Gut as a Transient Microbial Habitat
65(1)
In Vivo and In Situ Emissions of the Greenhouse Gas N2O by Earthworms
66(3)
Microenvironment of the Earthworm Gut
69(3)
The Digestive System of the Earthworm
69(1)
Physicochemical Parameters of the Gut that Stimulate Ingested Microbes
70(2)
Microbial Processes in the Earthworm Gut
72(4)
Processes Associated with the Production of N2O
72(3)
Fermentative and Other Microbial Processes
75(1)
Microbial Populations in the Earthworm Gut
76(4)
Quantitative Population Changes During Gut Passage
77(1)
Qualitative Population Changes Upon Gut Passage
78(1)
The Quest for an Earthworm-Specific Microbial Population
79(1)
Conclusions
80(9)
References
82(7)
Intestinal Microbiota of Millipedes
89(26)
Boris A. Byzov
Introduction
89(1)
Structure and Function of the Digestive Tract
90(2)
Physiological Conditions in the Gut
92(1)
Microscope Studies of Intestinal Microbiota
93(2)
Bacteria
93(2)
Yeasts
95(1)
Mycelial Fungi
95(1)
Taxonomic Studies of Intestinal Microbiota
95(9)
Bacteria
101(2)
Fungi
103(1)
Functions of the Intestinal Microbiota
104(5)
Digestive Functions of Gut Microorganisms
104(3)
Intestinal Microbiota as a Food for Millipedes
107(1)
Resistance to Colonization
107(1)
Intestinal Microbiota as a Pathogenic Agent
108(1)
Digestion of Microorganisms by Millipedes
109(2)
Killing Activity of the Midgut Fluid
109(1)
Killing Effect
109(1)
Properties of the Killing Compound(s)
110(1)
Induced Autolysis
110(1)
Assimilation of Microorganisms
110(1)
Conclusions
111(4)
References
112(3)
Intestinal Microbiota of Terrestrial Isopods
115(18)
Rok Kostanjsek
Jasna Strus
Ales Lapanje
Gorazd Avgustin
Maja Rupnik
Damjana Drobne
Introduction
115(1)
Structure and Function of the Digestive System
116(3)
The Microbiota of the Digestive System
119(6)
Bacteria in the Gut
119(3)
Fungi and Protozoa in the Gut
122(1)
Bacteria in the Midgut Glands
123(1)
Infections of the Digestive System
124(1)
Conclusions
125(8)
References
126(7)
Collembola as a Habitat for Microorganisms
133(22)
Christoph C. Tebbe
Alice B. Czarnetzki
Torsten Thimm
Introduction -- Diversity and Activity of Collembola
133(3)
The Gut of Folsomia Candida -- an Unusual Microbial Habitat That Is Affected by Moulting
136(3)
Feeding Preferences of Folsomia Candida and Fate of Ingested Bacterial Cells
139(2)
The Gut of Collembola: a Hot Spot for Conjugative Gene Transfer Between Bacteria
141(3)
Diversity of Microorganisms in the Gut of F. Candida and Other Collembola
144(2)
Collembola Can Harbour the Reproduction Parasite Wolbachia and Other Intracellular Bacteria
146(3)
Conclusions
149(6)
References
150(5)
Methane Production by Terrestrial Arthropods
155(28)
Johannes H. P. Hackstein
Theo A. van Alen
Jorg Rosenberg
Introduction
155(1)
Symbiotic Methanogens and Terrestrial Arthropods
156(3)
Why Do Certain Arthropods Make Methane and Others Not?
159(8)
``Small Is Beautiful'': The Elusive Co-Existence of Aerobes and Anaerobes in Arthropod Guts
167(5)
Longitudinal Differentiation of the Intestinal Tract of Methanogenic Arthropods
172(1)
Intercompartment Hydrogen Transfer
172(1)
Differentiations of the Intestinal Tract to Host Methanogenic Archaea (and Other Prokaryotes)
173(2)
Biodiversity of Intestinal and Endosymbiotic Methanogens
175(1)
Conclusions
176(7)
References
177(6)
Part II Termites as Model Organisms
Termites as Soil Engineers and Soil Processors
183(38)
David E. Bignell
Introduction
183(2)
Current State of Termite Science
185(5)
Termite Biology and Evolution
190(3)
Soil Ecosystem Engineers: Is This a Valid Concept?
193(5)
Microbial Processing During Gut Transit
198(3)
The Special Case of Fungus-Growing Termites
201(2)
The Fate of Termite Faeces
203(2)
Evidence of the Role of Termites in Pedogenesis and Soil Properties
205(5)
Soil Profile Development
206(1)
Bulk Density and Structural Stability of Mound Materials
207(1)
Permeability to Water
208(1)
Soil Chemistry
209(1)
Organic Matter Decomposition
209(1)
Conclusions
210(11)
References
212(9)
Cellulose Digestion in the Termite Gut
221(22)
Li Li
Jurgen Frohlich
Helmut Konig
Introduction
221(2)
Termite's Cellulases
223(2)
Microbial Cellulases in the Hindgut
225(3)
Cellulose Digestion in the Termite Mastotermes darwiniensis
228(8)
Termites' and Flagellates' Cellulases
228(1)
Comparison of Termite's Cellulases
229(6)
Comparison of Archaezoan Cellulases
235(1)
Conclusions
236(7)
References
238(5)
Symbiotic Protozoa of Termites
243(28)
Guy Brugerolle
Renate Radek
Introduction
243(1)
Diversity, Cytology and Phylogeny of Symbiotic Protozoa in Lower Termites
243(10)
Cell Organisation in Oxymonad and Parabasalid Termite Flagellates
244(9)
Biology of Termite Flagellates
253(11)
Relationships Between Flagellates and Host
253(3)
Populations of Flagellates
256(1)
Nutrition
257(2)
Energy Metabolism/Hydrogenosomes
259(1)
Motility
260(2)
Associations with Bacteria
262(2)
Conclusion
264(7)
References
264(7)
Diversity and Lignocellulolytic Activities of Cultured Microorganisms
271(32)
Helmut Konig
Jurgen Frohlich
Horst Hertel
Introduction
271(1)
Flagellates
272(1)
Bacteria
272(1)
Archaea
273(1)
Yeasts and Fungi
273(8)
Microhabitats
281(3)
Lignocellulose Degradation
284(8)
The Hydrolytic Stage of Lignocellulose Degradation
284(6)
The Oxidative/Fermentative Stage of Lignocellulose Degradation
290(1)
The Methanogenic/Acetogenic Stage of the Lignocellulose Degradation
290(2)
Nitrogen Fixing Bacteria
292(1)
Intracellular Symbiosis
293(1)
Conclusions
293(10)
References
294(9)
Diversity and Molecular Analyses of Yet-Uncultivated Microorganisms
303(16)
Moriya Ohkuma
Yuichi Hongoh
Toshiaki Kudo
Introduction
303(1)
Phylogenetic Identification of Symbiotic Protists
304(1)
Methanogenic Archaea
305(1)
Diversity of Eubacteria
305(4)
Spatial Organization of Gut Community
309(2)
Toward the Function of Gut Symbionts
311(2)
Conclusions
313(6)
References
314(5)
The Intestinal Yeasts
319(16)
Hansjorg Prillinger
Helmut Konig
Introduction
319(1)
Morphological Characterization
319(3)
Phenotypic and Genotypic Characterization
322(1)
Cellulose and Hemicellulose-Degrading Yeasts
323(3)
Evolutionary Considerations
326(4)
Conclusions
330(5)
References
331(4)
Termitomyces/Termite Interactions
335(16)
Corinne Rouland-Lefevre
Tetsushi Inoue
Toru Johjima
Introduction
335(1)
Phylogeny and Co-Evolution of Fungus-Growing Termites and Termitomyces
336(2)
The Symbionts
336(1)
Evolution of Fungus-Growing Termites and Termitomyces
337(1)
The Role of Termitomyces in Mutualistic Symbiosis
338(9)
Nature, Structure and Dynamics of the Fungus Comb
338(2)
Role of Termitomyces in the Digestive Metabolism of Termites
340(7)
Conclusions
347(4)
References
347(4)
Microbiology of Termite Hill (Mound) and Soil
351(22)
Rina Kumari
Minu Sachdev
Shweta Sharma
Ram Prasad
Pham Huong Giang
Amar P. Garg
Ajit Varma
Introduction
351(1)
Features Distinguishing Termites from Other Insects
352(1)
Current Taxonomic Status
352(2)
Ecophysiological Distribution
354(1)
Termite Colonies and Castes
354(4)
Life Cycle
358(1)
Topography of the Termite Hill (Mound) and Nest
358(1)
Microorganism from the Termite Soil
359(4)
Soil-Feeding Termites
363(1)
Fungus-Growing Termites
364(1)
Chemical Nature of Lignocellulose
365(3)
Cellulose
365(1)
Hemicellulose
366(1)
Lignin
367(1)
Biodegradation of Biomass
368(1)
Conclusions
369(4)
References
369(4)
The Termite Gut Habitat: Its Evolution and Co-Evolution
373(34)
Paul Eggleton
Introduction
373(1)
Background: Some Definitions
373(4)
Termite Biology
373(1)
Which Environments?
374(1)
Community Ecology Definitions
375(2)
Biodiversity of Termite Guts
377(5)
The Termite Gut Habitat and its Evolution
382(2)
Acquisition of Symbionts in Basal Dicytopterans
384(2)
Evolution of Key Enzyme Systems: Endoglucanases and Nitrogenases
386(1)
Blattabacterium
387(1)
Parabasalids
388(4)
Termitomyces
392(1)
Spirochetes
393(1)
Clostridiales
394(1)
Archaea
395(3)
Conclusions
398(9)
References
400(7)
Part III Modern Methods for Studying Intestinal Methods
The Microbial Soil Flora: Novel Approaches for Accessing the Phylogenetic and Physiological Diversity of Prokaryotes
407(18)
Alexander H. Treusch
Christa Schleper
Introduction
407(1)
The Modern Classical Approach
408(1)
How Many Prokaryotic Species Live in Soil?
409(2)
Molecular Approaches to Describe Microbial Diversity
411(2)
The Current Picture of Prokaryotic Diversity in Soil
413(2)
Studying Physiological Diversity
415(2)
Environmental Genomic Studies
417(2)
Conclusions
419(6)
References
420(5)
Micromanipulation Techniques for the Isolation of Single Microorganisms
425(14)
Jurgen Frohlich
Helmut Konig
Introduction
425(1)
Micromanipulation Techniques
426(3)
Historical Perspective
426(1)
Modern Equipment
427(2)
Isolation Techniques
429(4)
Bactotip Method
429(2)
Membrane Method
431(1)
Efficiency of the Cloning Procedure
431(1)
Described Applications
432(1)
Laser Micromanipulation Systems
433(1)
Optical Tweezers
433(1)
Laser Microdissection
434(1)
Conclusions
434(5)
References
435(4)
Localization and Visualization of Microbial Community Structure and Activity in Soil Microhabitats
439(24)
Michael Schmid
Drazenka Selesi
Michael Rothballer
Michael Schloter
Natuschka Lee
Ellen Kandeler
Anton Hartmann
Introduction
439(1)
Localization and Microvisualization Approaches
440(2)
In Situ Composition Analysis of Bacterial Communities
442(7)
The Fluorescence in Situ Hybridization (FISH) Technique
442(2)
Recent Developments Towards Improved FISH Techniques
444(4)
Immunological Techniques
448(1)
In Situ Activity of Microbial Communities
449(6)
In Situ Assessment of General and Specific Enzymatic Activities of Cells
449(1)
Isotope Tracer Techniques
450(4)
Specific Fluorescence Labelling/Tagging Techniques
454(1)
Conclusions
455(8)
References
455(8)
Microsensors for the Study of Microenvironments and Processes in the Intestine of Invertebrates
463(12)
Andreas Schramm
Introduction
463(1)
Microsensors Available
463(3)
Microsensors in the Study of Invertebrate Guts
466(2)
Practical Considerations
468(2)
Construction and Purchase of Sensors and Equipment
468(1)
Fixation of Animals, Gut Preparation and Measuring Conditions
468(2)
Conclusions
470(5)
References
471(4)
Subject Index 475

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