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TABLE of CONTENT PREFACE TO RUSSIAN EDITION PREFACE TO ENGLISH EDITION VI IX CHAPTER 1. HISTORICAL ASPECT OF THE CONCEPT OF CHEMICAL CONJUGATION 1.1. THE ORIGINATION OF THE CHEMICAL CONJUGATION CONCEPT 1 1.2. DEVELOPMENT OF THE CONJUGATED REACTION THEORY IN LATER WORKS 7 1.3. ANALYSIS OF THE “ACTIVE OXYGEN” CONCEPT FROM MODERN POSITIONS OF OXIDATION PROCESSES 8 1.4. INDUCED DISSOCIATION OF PEROXIDE COMPOUNDS 11 1.5. HIGH-TEMPERATURE OXIDATION MECHANISM AND ACTIVE OXYGEN CONCEPT REFERENCES 24 1 18 CHAPTER 2. THE THEORY OF INTERACTION BETWEEN SYNCHRONOUS REACTIONS: CHEMICAL INTERFERENCE LOGICS 26 INTRODUCTION 26 2.1. INTER-REACTION INTERACTIONS TYPES 30 2.2. THREE-COMPONENT CONJUGATED PROCESSES 35 2.3. THE DETERMINANT EQUATION AND COHERENCE CONDITION OF CHEMICAL INTERFERENCE 38 2.4. INTERFERENCE OF HYDROGEN PEROXIDE DISSOCIATION AND SUBSTRATE OXIDATION REACTIONS 50 2.5. THE DIFFERENCE BETWEEN INITIATION AND INDUCTION PHENOMENA 57 2.6. CONCLUSION 59 REFERENCES 60 CHAPTER 3. CONJUGATED CHEMICAL REACTION MORPHOLOGY AND MEMBRANE CATALYSIS IN MITOCHONDRIAL PROTON TRANSFER 62 3.1. THE MECHANISM AND KINETICS OF CONJUGATED REACTIONS 62 3.2. ENERGY TRANSFER IN CONJUGATED REACTIONS 80 3.3. IDEALIZED MODEL OF CONJUGATED CATALYTIC REACTIONS: THE MEMBRANE CATALYSIS IN MITOCHONDRIAL PROTON TRANSFER 87 REFERENCES 121 CHAPTER 4. CONJUGATED REACTIONS OF OXIDATION WITH HYDROGEN PEROXIDE IN THE GAS PHASE 124 4.1. HYDROGEN PEROXIDE DISSOCIATION KINETICS AND THE MECHANISM 125 4.2. INITIATION AND INDUCTION PROCESSES INVOLVING HYDROGEN PEROXIDE 129 4.3. THERMODYNAMIC ASPECTS OF CHEMICAL CONJUGATION 132 4.4. CONJUGATED DEHYDROGENATION WITH HYDROGEN PEROXIDE 137 4.4.1. Specific features of dehydrogenation mechanism 137 4.4.2. Alkane and alkene dehydrogenation 143 4.4.3. Naphthene hydrocarbon dehydrogenation 146 4.4.4. Alkyl benzene dehydrogenation 152 4.4.5. Dehydrogenation and oxidation of heterocyclic compounds 155 4.4.6. Dehydrogenation of alcohols 159 4.5. CONJUGATED OXIDATION WITH HYDROGEN PEROXIDE 161 4.5.1. Methane and methanol oxidation to formaldehyde 161 4.5.2. Direct pressurized oxidation of methane to methanol with hydrogen peroxide 170 4.5.3. High-temperature oxidation of natural methane with hydrogen peroxide 176 4.5.4. Lower olefin oxidation 180 4.6. CONJUGATED HYDROGENOLYSIS OF TOLUENE TO BENZENE WITH HYDROGEN PEROXIDE 185 4.7. NITROGEN FIXATION AT CONJUGATED OXIDATION 187 REFERENCES 194 CHAPTER 5. KINETICS AND THE MECHANISM OF SYNCHRONOUS (INTERFERING) REACTIONS OF HYDROGEN PEROXIDE DISSOCIATION AND OXIDATION OF SUBSTRATES IN THE GAS PHASE 204 5.1. DEHYDROGENATION MECHANISM AND GAS-PHASE HO•2 -DEPENDENT ELEMENTARY REACTIONS 204 5.2. CONJUGATED DEHYDROGENATION AND OXIDATION WITH HYDROGEN PEROXIDE 214 5.2.1. Dehydrogenation alkylbenzenes 215 5.2.2. Cyclohexane and cyclopentane dehydrogenation 219 5.2.3. Methane oxidation to formaldehyde 222 5.2.5. Methane oxidation to H2, CO and CO2 237 5.2.6. Oxidative fixation of molecular nitrogen 246 REFERENCES 254 CHAPTER 6. THE PHENOMENA OF INTERFERENCE IN CHEMICAL AND BIOCHEMICAL REDOX REACTIONS WITH HYDROGEN PEROXIDE 257 6.1. HYDROGEN PEROXIDE DISSOCIATION IN THE LIQUID PHASE 257 6.2. OXIDATION WITH HYDROGEN PEROXIDE 263 6.3. THE MECHANISMS OF CATALASE, PEROXIDASE AND MONOOXYGENASE REACTIONS 273 6.4. CO-FACTORS AND THEIR ROLE IN THE INTERACTION AND SYNCHRONIZATION OF BIOCHEMICAL REACTIONS 301 REFERENCES 311 CHAPTER 7. NEW APPROACHES TO SIMULATION OF ENZYMATIC REACTIONS: MIMETIC CATALYSIS 319 7.1. CRITERIA OF MIMETIC CATALYSIS BASED ON CONFORMITIES AND DIVERSITIES BETWEEN ENZYMATIC AND CHEMICAL CATALYSES 320 7.2. BIOMIMETIC CATALYSTS (BIOMIMICS) FOR CATALASE, PEROXIDASE AND MONOOXYGENASE REACTIONS 327 REFERENCES 396 CHAPTER 8. ENZYMATIC BIOSENSORS AND THEIR BIOMIMETIC ANALOGUES – ADVANCED ANALYTICAL APPLIANCES 403 8.1. CATALASE-BIOMIMETIC SENSORS 408 8.2. PEROXIDASE-MIMETIC SENSOR FOR DETECTION OF ETHANOL IN LOW CONCENTRATIONS IN AQUEOUS SOLUTIONS 420 REFERENCES 428 CHAPTER 9. GENERAL ISSUES OF SELECTIVITY AND FLEXIBILITY OF CHEMICAL SYSTEMS 429 REFERENCES 439