Advances in Microbial Physiology, Volume 86, the latest release in this ongoing series, continues the tradition of topical, important, cutting-edge reviews in microbiology. The editors have always strived to view microbial physiology in the broadest sense. In this volume, chapters deal with Diversity in the physiology and metabolism of chlorophototrophic bacteria, Copper homeostasis in Streptococcus and Neisseria: known knowns and unknown knowns, A Lysis Less Ordinary: The Bacterial Type 10 Secretion System, Cytochrome bd-type oxidases and environmental stressors in microbial physiology, and Multiple roles for iron in microbial physiology: bacterial oxygen sensing by heme-based sensors.
1. 1 Introduction - p. 4 2. 2 Cyanobacteria (Cyanobacteriota) - p. 5 3. 3 Proteobacteria (Pseudomonadota) - p. 20 4. 4 Green bacteria in the phyla Chlorobiota, Chloroflexota and Acidobacteriota - p. 33 5. 5 Heliobacteria: the only Gram-positive phototrophs - p. 48 6. 6 Gemmatimonadota - p. 51 7. 7 Vulcanimicrobiota (formerly Candidatus Eremiobacterota/WPS-2) - p. 55 8. 8 Myxococcota - p. 57 9. 9 Concluding remarks - p. 63 10. Acknowledgements - p. 63 11. References - p. 64 12. Chapter Two: Copper homeostasis in Streptococcus and Neisseria: Known knowns and unknown knowns - p. 99 13. Chapter Three: Organohalide respiration in Dehalococcoides strains represents a novel mode of proton motive force generation - p. 141 14. Chapter Four: A lysis less ordinary: The bacterial Type 10 Secretion System - p. 175 15. Chapter Five: Cytochrome bd-type oxidases and environmental stressors in microbial physiology - p. 199 16. Chapter Six: Multiple roles for iron in microbial physiology: Bacterial oxygen sensing by heme-based sensors - p. 257 17. Abstract - p. 258 18. Abbreviations - p. 258 19. 1 Introduction - p. 261 20. 2 Iron homeostasis - p. 263 21. 3 Heme uptake and metabolism - p. 267 22. 4 Classical and novel roles of bacterial hemoproteins - p. 274 23. 5 Oxygen-sensing hemoproteins - p. 282 24. 6 Mechanisms of the oxygen sensing and interdomain signal transduction in the bacterial heme-based oxygen sensors - p. 293 25. 7 Heme-independent oxygen detection in bacteria - p. 301 26. 8 Applications utilising and/or targeting bacterial oxygen sensors - p. 307 27. 9 Concluding remarks - p. 311 28. Acknowledgement - p. 312 29. References - p. 312 30. Chapter Seven: Time and function in the living world - p. 331
Advances in Microbial Physiology, Volume 86, the latest release in this ongoing series, continues the tradition of topical, important, cutting-edge reviews in microbiology. The editors have always strived to view microbial physiology in the broadest sense. In this volume, chapters deal with Diversity in the physiology and metabolism of chlorophototrophic bacteria, Copper homeostasis in Streptococcus and Neisseria: known knowns and unknown knowns, A Lysis Less Ordinary: The Bacterial Type 10 Secretion System, Cytochrome bd-type oxidases and environmental stressors in microbial physiology, and Multiple roles for iron in microbial physiology: bacterial oxygen sensing by heme-based sensors.
1. 1 Introduction - p. 4 2. 2 Cyanobacteria (Cyanobacteriota) - p. 5 3. 3 Proteobacteria (Pseudomonadota) - p. 20 4. 4 Green bacteria in the phyla Chlorobiota, Chloroflexota and Acidobacteriota - p. 33 5. 5 Heliobacteria: the only Gram-positive phototrophs - p. 48 6. 6 Gemmatimonadota - p. 51 7. 7 Vulcanimicrobiota (formerly Candidatus Eremiobacterota/WPS-2) - p. 55 8. 8 Myxococcota - p. 57 9. 9 Concluding remarks - p. 63 10. Acknowledgements - p. 63 11. References - p. 64 12. Chapter Two: Copper homeostasis in Streptococcus and Neisseria: Known knowns and unknown knowns - p. 99 13. Chapter Three: Organohalide respiration in Dehalococcoides strains represents a novel mode of proton motive force generation - p. 141 14. Chapter Four: A lysis less ordinary: The bacterial Type 10 Secretion System - p. 175 15. Chapter Five: Cytochrome bd-type oxidases and environmental stressors in microbial physiology - p. 199 16. Chapter Six: Multiple roles for iron in microbial physiology: Bacterial oxygen sensing by heme-based sensors - p. 257 17. Abstract - p. 258 18. Abbreviations - p. 258 19. 1 Introduction - p. 261 20. 2 Iron homeostasis - p. 263 21. 3 Heme uptake and metabolism - p. 267 22. 4 Classical and novel roles of bacterial hemoproteins - p. 274 23. 5 Oxygen-sensing hemoproteins - p. 282 24. 6 Mechanisms of the oxygen sensing and interdomain signal transduction in the bacterial heme-based oxygen sensors - p. 293 25. 7 Heme-independent oxygen detection in bacteria - p. 301 26. 8 Applications utilising and/or targeting bacterial oxygen sensors - p. 307 27. 9 Concluding remarks - p. 311 28. Acknowledgement - p. 312 29. References - p. 312 30. Chapter Seven: Time and function in the living world - p. 331
