Front Cover; The Molecular Basis of Electron Transport; Copyright Page; Table of Contents; SPEAKERS, CHAIRMEN, AND DISCUSSANTS; PREFACE; CHAPTER 1. THE ELECTROMECHANOCHEMICAL MODEL OF MITOCHONDRIAL STRUCTURE AND FUNCTION; INTRODUCTION; FUNDAMENTAL POSTULATES; ACTIVE TANSPORT; ENERGIZED TRANSHYDROGENATION; CATEGORIES OF FIT; FOOTNOTES; DISCUSSION; CHAPTER 2. RECONSTITUTION OF OXIDATIVE PHOSPHORYLATION; INTRODUCTION; REFERENCES; DISCUSSION.

Chapter 3. kinetic, thermodynamic and computer simulation studies of site iii electron transport and energy coupling as studied at normal and subzero temperaturesintroduction; summary; acknowledgements; references; discussion; chapter 4. the respiratory chain and oxidative phosphorylation; references; discussion; chapter 5. extramitochondrial regulation of mitochondrial energy-coupled processes by a cytoplasmic factor; introduction; experimental; results; legend to figure 1; legend to figure 2; legend to figure 3; legend to figure 4; discussion; legend to figure 5; acknowledgments; references.

DISCUSSIONCHAPTER 6. THE COUPLING OF CA2+ TRANSPORT TO ELECTRON TRANSPORT IN MITOCHONDRIA; REFERENCES; DISCUSSION; CHAPTER 7. CYTOCHROME c STRUCTURE AND REACTION MECHANISMS; CONCLUSIONS; REFERENCES; DISCUSSION; CHAPTER 8. COMPONENT DYNAMICS IN OXYGEN REDUCTION BY CYTOCHROME P450cam; REFERENCES; DISCUSSION; CHAPTER 9. CYTOCHROME P-450 -- PANACEA OR PLAGUE; INTRODUCTION; WHAT IS CYTOCHROME P-450?; WHERE IS CYTOCHROME P-450?; HOW DOES CYTOCHROME P-450 FUNCTION?; THE SOURCE OF REDUCING EQUIVALENTS; THE MULTIPLICITY OF CYTOCHROME P-450's; CONCLUDING REMARKS; REFERENCES; DISCUSSION.

Chapter 10. on the mechanism of hydroxylation reactions in a reconstituted liver microsomal enzyme system containing cytochrome p-450introduction; experimental; results and discussion; references; discussion; chapter 11. electron transport in a flavoprotein, orcinol hydroxylase; introduction; experimental; results; discussion; references; acknowledgements; discussion; chapter 12. relationship of metabolism to function in the polymorphonuclear leukocyte; detection of h2o2 in intact leukocytes; mechanism of h2o2 formation; utilization of h2o2 in intact leukocytes.

H2o2 as an intracellular microbicidal agentnature of the h2o2-mediated antimicrobial systems; references; discussion; chapter 13. chemical nature and biological activity of myeloperoxidase; acknowledgments; references; discussion; chapter 14. the use of peroxidase catalyzed reactions as a molecular and macromolecular probe; use of lactoperoxidase as a macromolecular probe; discussion; chapter 15. chemical nature and reaction of chloroperoxidase compound i; references; discussion.