Chapter
II. Multi-process Systems
III. Examples of physico-chemical oscillatory systems
CHAPTER 2. TWO-DIMENSIONAL ANALYSIS OF CHEMICAL OSCILLATORS
CHAPTER 3. STABILITY PROPERTIES OF METABOLIC PATHWAYS WITH FEEDBACK INTERACTIONS
Formulation of the System
Conditions for the Existence of the Stationary Solution
Local Stability of the Stationary Solution
Some Results on the Existence of Stable Limit Cycles
PART II: OSCILLATIONS IN DEFINED CHEMICAL AND BIOCHEMICAL SYSTEMS
CHAPTER 4. SOME EXPERIMENTS OF A CHEMICAL PERIODIC REACTION IN LIQUID PHASE
CHAPTER 5. A STUDY OF A SELF-OSCILLATORY CHEMICAL REACTION I. THE AUTONOMOUS SYSTEM
2. Dependence of Reaction Behavior on Parameters
3. Evolution of the Oscillation Behavior in a Closed System
CHAPTER 6. A STUDY OF A SELF-OSCILLATORY CHEMICAL REACTION II. INFLUENCE OF PERIODIC EXTERNAL FORCE
CHAPTER 7. A STUDY OF A SELF-OSCILLATORY CHEMICAL REACTION III. SPACE BEHAVIOR
CHAPTER 8. CHEMILUMINESCENCE IN OSCILLATORY OXIDATION REACTIONS CATALYZED BY HORSERADISH PEROXIDASE
CHAPTER 9. A SIPHON MODEL FOR OSCILLATORY REACTIONS IN THE REDUCED PYRIDINE NUCLEOTIDE, O2 AND PEROXIDASE SYSTEM
CHAPTER 10. DAMPING OF MITOCHONDRIAL VOLUME OSCILLATIONS BY PROPRANOLOL AND RELATED COMPOUNDS
PART Ill: GLYCOLYTIC OSCILLATIONS
CHAPTER 11. THE CONTROL THEORETIC APPROACH TO THE ANALYSIS OF GLYCOLYTIC OSCILLATORS
II. THE CONTROL THEORETIC APPROACH
III. THEORETICAL ASPECTS OF BIOCHEMICAL OSCILLATORS
IV. STUDY OF GLYCOLYTIC OSCILLATIONS
VI. CONCLUSIONS AND SUMMARY
CHAPTER 12. PROBLEMS ASSOCIATED WITH THE COMPUTER SIMULATION OF OSCILLATING SYSTEMS
CHAPTER 13. THE EFFECT OF FRUCTOSE DIPHOSPHATE ACTIVATION OF PYRUVATE KINASE ON GLYCOLYTIC OSCILLATIONS IN BEEF HEART SUPERNATANT: AN EXPERIMENTAL AND SIMULATION STUDY
CHAPTER 14. ON THE MECHANISM OF SINGLE-FREQUENCY GLYCOLYTIC OSCILLATIONS
Model of the PFK-ADK System
Model of the Glycolytic Self-Oscillator
Investigation of the Model
CHAPTER 15. KINETICS OF YEAST PHOSPHOFRUCTOKINASE AND THE GLYCOLYTIC OSCILLATOR
CHAPTER 16. SUBSTRATE CONTROL OF GLYCOLYTIC OSCILLATIONS
CHAPTER 17. CONTROL MECHANISM OF GLYCOLYTIC OSCILLATIONS
CHAPTER 18. COMPONENT STRUCTURE OF OSCILLATING GLYCOLYSIS
CHAPTER 19. GLYCOLYTIC OSCILLATIONS IN CELLS AND EXTRACTS OF YEAST–SOME UNSOLVED PROBLEMS
MECHANISM OF THE GLYCOLYTIC OSCILLATIONS IN YEAST
CHAPTER 20. SYNCHRONIZATION PHENOMENA IN OSCILLATIONS OF YEAST CELLS AND ISOLATED MITOCHONDRIA
PART IV: OSCILLATIONS IN TISSUES
CHAPTER 21. OSCILLATING CONTRACTILE STRUCTURES FROM INSECT FIBRILLAR MUSCLE
CHAPTER 22. KINETIC MODEL OF MUSCLE CONTRACTION
Estimation of the Parameters
Stretched Muscle Behavior
CHAPTER 23. EXCITATION WAVE PROPAGATION DURING HEART FIBRILLATION
1. Fibrillation of the heart
2. Experimental fibrillation
3. Physiological theories of fibrillation
4. The main targets of the analysis
5. The principal equations
6. Approach to the problem
8. One-dimensional excitation propagation
CHAPTER 24. CONFORMATIONAL OSCILLATIONS OF PROTEIN MACROMOLECULES OF ACTOMYOSIN COMPLEX
CHAPTER 25. OSCILLATIONS IN MUSCLE CREATINE KINASE ACTIVITY
CHAPTER 26. OSCILLATION OF SODIUM TRANSPORT ACROSS A LIVING EPITHELIUM
CHAPTER 27. BIOCHEMICAL CYCLE OF EXCITATION
CHAPTER 28. POSSIBLE PATHWAYS FOR THE SUCCINATE CONCENTRATION BURST IN THE ACTIVE METABOLIC STATE
PART V: OSCILLATIONS IN GROWING CELL POPULATIONS
CHAPTER 29. UNDAMPED OSCILLATIONS OCCURRING IN CONTINUOUS CULTURES OF BACTERIA
Low Frequency Oscillations in Respiration Rate
High Frequency Oscillations
CHAPTER 30. STABLE SYNCHRONY OSCILLATIONS IN CONTINUOUS CULTURES OF SACCHAROMYCES CEREVISIAE UNDER GLUCOSE LIMITATION
CHAPTER 31. PHYSIOLOGICAL RHYTHMS IN SACCHAROMYCES CEREVISIAE POPULATIONS
I. Time dependent excretion of material absorbing at 260mµ
II. Time-dependent lag phase
III. Time-dependent RD-lability
IV. Time-dependent glucose uptake
CHAPTER 32. LONG- AND SHORT-PERIOD OSCILLATIONS IN A MYXOMYCETE WITH SYNCHRONOUS NUCLEAR DIVISIONS
CHAPTER 33. OSCILLATIONS IN THE EPIGENETIC SYSTEM: BIOPHYSICAL MODEL OF THE ß-GALACTOSIDASE CONTROL SYSTEM
CHAPTER VI: CIRCADIAN OSCILLATIONS
CHAPTER 34. THE INVESTIGATION OF OSCILLATORY PROCESSES BY PERTURBATION EXPERIMENTS I. THE DYNAMICAL INTERPRETATION OF PHASE SHIFTS
Phase of Observable Rhythm
The State of the Driving Oscillator
Degrees of Freedom of the Perturbation
Geometrical Description of Dynamics in Standard Dark Environment
Modified Dynamics During Perturbation
Resetting Maps, In abstracto
Interpretation of Empirical Generalizations
CHAPTER 35. THE INVESTIGATION OF OSCILLATORY PROCESSES BY PERTURBATION EXPERIMENTS II. A SINGULAR STATE IN THE CLOCK-OSCILLATION
2. Perturbation and Phase Shifts
3. The Basic Oscillator "State"
8. The Helicoid of Cophase
10. What This Experiment Excludes
11. The Singularity: Criterion One
12. The Singularity: Criterion Two
13. The Question of : Stability versus Instability Dead versus Scattered Clocks Initiation versus Synchronization
14. A Criterion Distinguishing between Hypotheses A and B
CHAPTER 36. THE CIRCADIAN OSCILLATION: AN INTEGRAL AND UNDISSOCIABLE PROPERTY OF EUKARYOTIC GENE-ACTION SYSTEMS
CHAPTER 37. RESPIRATION DEPENDENT TYPES OF TEMPERATURE COMPENSATION IN THE CIRCADIAN RHYTHM OF Euglena gracilis
CHAPTER 38. THE ROLE OF ACTIDIONE IN THE TEMPERATURE JUMP RESPONSE OF THE CIRCADIAN RHYTHM IN Euglena gracilis
Biological and Biochemical Oscillators
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