Bacterial Invasion into Eukaryotic Cells: Subcellular BiochemistryTobias A. Oelschlaeger, Jörg H. Hacker This latest volume in the excellent Subcellular Biochemistry series is the first attempt to give an in-depth overview of the field of bacterial cell invasion. The current knowledge about all well-studied bacteria with the ability to invade eukaryotic cells is brought together, including bacteria pathogenic to humans and animals as well as the symbiotic rhizobia. Several chapters also deal with new approaches and applications regarding invasive bacteria. The book, which includes contributions from worldwide experts, discusses bacterial invasion ability within the context of bacteria-host cell interaction with the main focus on pathogenicity. |
Contents
| 1 | |
| 3 | |
Chapter | 12 |
Chapter 2 | 21 |
The Colonization Process | 29 |
OpaMediated Interactions | 67 |
OpcMediated Interactions | 77 |
Chapter 5 | 97 |
The Parasitophorous Vacuole | 328 |
Evolution of Intracellular Parasitism | 335 |
Chapter 14 | 343 |
Chapter 15 | 383 |
Attachment and Entry to Mammalian Cells | 389 |
NaCl Phenotype of L pneumophila Mutants | 395 |
Killing of the Host Cell | 402 |
Chapter 16 | 411 |
Adherence to Host Cells | 103 |
Intracellular Replication and Host Cell Death | 116 |
Chapter 6 | 125 |
Dynamic Virulence Features | 132 |
Chapter 7 | 137 |
Adhesins Invasins and Integrin Receptors | 146 |
Does Intracellular Invasion Impact on | 156 |
Chapter 8 | 167 |
Internalization of Nocardiae Within Host Cells | 184 |
Intracellular Growth | 190 |
30 | 195 |
Chapter 9 | 199 |
32 | 211 |
Prospects for Future Research | 221 |
190 | 225 |
Mycobacterial Invasion of Epithelial Cells | 231 |
6 | 237 |
Chapter 11 | 251 |
Bacterial Motility and CelltoCell Spread | 268 |
2 | 271 |
Host Cell Killing | 276 |
Salmonella Interactions with Professional Phagocytes | 286 |
Formation of the Actin Pedestal | 289 |
Introduction | 321 |
Cellular Receptors Host Cell Signaling and the Mechanism | 421 |
Regulation of the Expression | 427 |
Chapter 17 | 437 |
Secretion of Bacterial Proteins during Nodulation | 445 |
191 | 449 |
Chapter 18 | 459 |
Establishment of the Replication Competent Vacuole | 467 |
Conclusions | 473 |
Chapter 19 | 479 |
200 | 515 |
Chapter 20 | 517 |
Concluding Remarks | 534 |
201 | 535 |
Chapter 21 | 541 |
Chapter 22 | 559 |
Protection against Mycobacterial Diseases | 577 |
Chapter 23 | 601 |
Chapter 3 | 603 |
E coli Invasion of Brain Microvascular Endothelial Cells as | 622 |
Chapter 24 | 625 |
Perspectives | 639 |
| 648 | |
Other editions - View all
Bacterial Invasion into Eukaryotic Cells: Subcellular Biochemistry Tobias A. Oelschlaeger,Jörg H. Hacker No preview available - 2013 |
Bacterial Invasion into Eukaryotic Cells: Subcellular Biochemistry Tobias A. Oelschlaeger,Jörg H. Hacker No preview available - 2010 |
Common terms and phrases
actin activity adherence adhesin adhesion antibody antigen apoptosis asteroides avium bacilliformis bacterial Bacteriol Bartonella Beaman and Beaman binding Biol BMEC cell lines cellular Chlamydia culture cytoplasmic cytoskeletal disease domain effector Ehrlichia encoded endothelial cells enteropathogenic Escherichia coli entry EPEC epithelial cells erythrocytes Escherichia coli eukaryotic eukaryotic cells expression factors Falkow fibronectin filament Finlay gene genetic gonococcal growth henselae host cell human Immun induce Infect inhibition integrin interaction internalization intestinal intimin intracellular invasin invasion involved kinase Legionella Listeria monocytogenes M1 protein macrophages mechanisms mediated mice Microbiol molecular mutants Mycobacterium Mycoplasma Neisseria gonorrhoeae Neisseria meningitidis nocardiae Opa proteins outer membrane protein pathogenesis pathogens pathway phagocytic phagocytosis phagosome phosphorylation pili pilus plasmid pneumococcal pneumophila pyogenes receptor rickettsiae Rikihisa role Salmonella typhimurium secretion system sequence serotype serum Shigella signal specific strain streptococci surface tion tissue translocation tuberculosis type III secretion tyrosine uptake vaccine vacuole variation virulence vitro vivo Yersinia