
Functional Metabolism : Regulation and Adaptation.
Title:
Functional Metabolism : Regulation and Adaptation.
Author:
Storey, Kenneth B.
ISBN:
9780471675570
Personal Author:
Edition:
1st ed.
Physical Description:
1 online resource (614 pages)
Contents:
FUNCTIONAL METABOLISM: REGULATION AND ADAPTATION -- CONTENTS -- Preface -- Contributors -- Chapter 1 Principles of Metabolic Control -- Key Concepts -- Metabolic Renaissance In Post Genome Era? -- Metabolic Engineering -- Metabolic Regulation versus Metabolic Control -- Complexity of Metabolism and Concept of Biochemical Unity -- Basis of Metabolic Control -- Pacemaker Enzymes -- Identification of a Pacemaker Enzyme -- Enzyme Purification -- Cautionary Note about Relating In Vitro Kinetic Studies of a Purified Enzyme to Its In Vivo Function and Control -- Compartmentation of Metabolism -- Formulation of a Theory of Metabolic Control -- Metabolic Control Analysis -- Mechanisms of Metabolic Control -- Coarse Metabolic Control -- Fine Metabolic Control -- Concluding Remarks -- Chapter 2 Enzymes: The Basis of Catalysis -- Introduction -- Enzyme Structure -- Thermodynamics and Kinetic Theory of Enzyme Function -- Thermodynamic Aspects of Kinetic Function: Processes Not Under Enzyme Control -- Cellular Equilibria and Enzymes -- Reaction Rate Theories -- How Enzymes Influence Reaction Rates -- How Enzyme-Catalyzed Reactions Occur: Lysozyme as a Model of Transition State Theory -- When Enzymes Need Extra Help: Coenzymes and Their Functions -- Coenzymes That Transfer High Energy Phosphate -- Coenzymes That Accept and Donate Electrons -- Coenzymes That Activate Substrates -- Kinetic Mechanisms of Enzyme Action -- Development of Rate Equations: Simple Solution Kinetics -- The Haldane Relationship -- Multisubstrate Reactions -- Cooperative Enzyme Mechanism -- Allosteric Enzyme Activation and Inhibition -- Enzyme Inhibition -- Temperature Effects on Enzyme Function -- Estimating Kinetic Parameters from Enzyme Velocity Data (the Influence of Error Structure) -- Chapter 3 Enzymes in the Cell: What's Really Going On? -- Introduction.
Basic Enzyme Mechanism Under In Vivo Conditions -- Effect of Enzyme-Substrate Binding -- Effect of Reaction Reversibility -- Effect of Substrate and Product Binding Combined with Reaction Reversibility -- Time Course of the Complete Enzyme Mechanism -- Simple Enzyme Systems -- Simple Enzyme Pathways under In Vivo Conditions -- Thought Experiment: Regulating Flux In Vivo -- Mathematical Modeling of the Linear System -- Branch Points and Irreversible Enzymes in Pathways -- Simple Enzyme Pathways and Crossover Plots -- Basics of Metabolic Control Analysis -- MCA Analysis and Metabolic Pathways -- Controlling Pathway Flux under In Vivo Conditions: Direct Calculation of Control Coefficients -- Controlling Pathway Flux under In Vivo Conditions: Indirect Calculations of Control Coefficients -- Relating Flux Control Coefficients to Pathway Regulation -- Potential of an Enzyme to Be Regulated -- Metabolic Simulation -- Supply versus Demand -- Feedback Inhibition -- Formation of Multienzyme Complexes -- Chapter 4 Signal Transduction Pathways and the Control of Cellular Responses to External Stimuli -- Function and Structure of Signaling Pathways -- Protein Kinases and Protein Phosphatases -- Cascades and Cross-talk -- Amplification and Signal Thresholds -- Signal Transmission via Protein Kinases -- Kinase Signaling Networks for Serine/Threonine Phosphorylation -- Second-Messenger-Dependent Protein Kinases -- Function and Regulation of Protein Phosphatases -- Serine-Threonine Protein Phosphatases -- Coordinated Action of Protein Kinases and Protein Phosphatases -- Protein Phosphorylation and Regulation of Glycogen Metabolism -- Protein Phosphorylation and Regulation of Smooth Muscle Contraction -- Chapter 5 Tyrosine Phosphorylation and the Control of Cellular Information -- Protein Tyrosine Kinases -- Protein-Binding Modules and Specificity.
Protein Tyrosine Phosphatases -- Direct Modulation of PTP Activity -- Recruitment of PTPs to RPTKs -- From Membrane to Nucleus: Intracellular Signal Transmission -- ERK Pathway -- SAPK/JNK Pathway -- p38 Pathway -- Cross-talk in MAPK Signaling -- Signaling through Space and Time: The MAPK Cascade as a Cellular Switch -- Role of Scaffolding Proteins -- Transcription Factors Linked to Signaling Pathways -- MAPK Nuclear Targets -- Nuclear Factor-kB -- Second Messengers and Transcriptional Activation -- Coordinated Control of Cellular Events: Insulin Signaling -- Conclusion -- Chapter 6 Control of Transcription in Eukaryotic Cells -- Introduction -- Basal Transcription Machinery -- Upstream Factors -- Inducible Factors -- DNA-Binding Domains -- Dimerization Domains -- Activation Domains -- Repression Domains -- Ligand-Binding Domains -- Nuclear Localization Signal -- Nuclear Export Signal -- Regulation of Transcription Factors -- Examples of Transcription Factors Involved in Metabolic Control -- Factors Repressed by Oxidative Conditions -- Factors Activated by Oxidative Conditions -- Redox Factors -- Conclusions -- Chapter 7 Translational Controls and Protein Synthesis in Eukaryotic Cells -- Introduction -- Basic Elements of Translation -- Posttranscriptional mRNA Processing -- Ribosomes -- Translation Initiation -- Translation Elongation -- Regulation of Translation -- Regulation at the Level of mRNA -- Regulation of Translation Initiation -- Regulation of Elongation -- Regulation at the Level of the Ribosome -- Conclusions -- Chapter 8 The Mitochondria: Powerhouse of the Cell -- Introduction -- Mitochondrial History -- Structure -- Energy Metabolism -- Pyruvate Dehydrogenase Complex -- Tricarboxylic Acid Cycle -- Branch Points: The TCA Cycle In Vivo -- Glyoxylate Cycle -- Urea Cycle -- Fatty Acid Oxidation -- Ketogenesis.
Amino Acid Degradation as a Fuel for TCA Cycle -- Respiratory Chain -- Metabolic Control Analysis -- Uncoupling for Thermogenesis -- ATP-ADP Translocase Release Ratio -- Mitochondrial Import of Proteins -- Mitochondrial Oxygen Sensing -- Calcium Signaling and the Mitochondria -- Aging, Disease, and the Mitochondria -- Apoptosis -- Conclusion -- Chapter 9 Human Energy Metabolism in Health and Disease -- Introduction -- Human Carbohydrate Metabolism -- Glycolysis -- Gluconeogenesis -- Glycogen Metabolism -- Regulation of Carbohydrate Metabolism -- Transcriptional Regulation of Carbohydrate Metabolism -- Pyruvate Dehydrogenase -- Human Lipid Metabolism -- Lipogenesis -- Regulation of Lipogenesis -- Transcriptional Regulation of Lipogenesis -- Lipolysis -- Regulation of Lipolysis -- Ketogenesis -- Human Protein Metabolism -- Amino Acid Metabolism, the Urea Cycle, and Gluconeogenesis -- Regulation of Protein Metabolism -- Transcriptional Regulation of Protein Metabolism -- Human Energy Metabolism in the Fed State -- Human Energy Metabolism During Fasting and Starvation -- Cachexia -- Metabolic Changes in Cancer -- Chapter 10 Hormones in Human Metabolism and Disease -- Hormonal Regulation of Human Metabolism -- Introduction -- Insulin -- Glucagon -- Epinephrine and Norepinephrine -- Cortisol -- Growth Hormone -- Insulin-like Growth Factors -- Thyroid Hormone -- Leptin -- Hormonal Dysregulation and Human Disease -- Obesity -- Diabetes Mellitus -- Chapter 11 Skeletal Muscle Metabolism and Plasticity -- Introduction -- Skeletal Muscle Plasticity -- Dynamic State of Muscle Fibers -- Muscle Fiber Types -- Muscle Morphology: Fiber Size and Capillary Density -- Metabolic Profile -- Fuels and Their Control -- Energy Use and Production in Muscle -- Fuel Availability and Use -- Control and Integration of Fuel Use -- ADP in Energy Metabolism.
Carbohydrate Metabolism and Glucose Uptake -- Fatty Acid Transport and Entry into Muscle Cells -- Interplay between Lipid and Carbohydrate Metabolism -- Reactive Oxygen Species and Nitric Oxide: Role in Skeletal Muscle Function -- Perspectives -- Chapter 12 Oxygen in Biology and Biochemistry: Role of Free Radicals -- Free Radicals and Oxidizing Agents in Biology -- Free Radical Reactions in Biology -- Reactive Oxygen Species -- Reactive Nitrogen Species -- Antioxidant Defenses -- Enzymatic Antioxidants, Glutathione, and Thioredoxin -- Low-Molecular-Weight Antioxidants -- Lipid Peroxidation -- Introduction -- Initiation and Propagation Phases of Lipid Peroxidation -- Termination of Peroxidation Reaction and Its Consequences -- Antioxidants That Function against Lipid Peroxidation -- Protein Oxidation -- In Vitro Studies on Protein Oxidation -- Oxidation of Sulfur-Containing Residues and Tyrosine Residues -- Carbonyl Protein -- DNA Oxidative Damage -- DNA Damage: Introductory Remarks -- DNA as Target of Reactive Oxygen Species -- Oxidative Damage (and Repair) to DNA Bases -- Other Types of DNA Alterations, Including Strand Breaks and Fragmentation -- Biological Effects of DNA Damage -- Free Radicals and Signal Transduction -- Bacterial Regulons soxRS and oxyR -- Oxidants and Cellular Redox Signaling -- Oxygen Sensing and ROS -- Chapter 13 Oxidative Stress and Medical Sciences -- Oxidative Stress in Biology and Disease -- Free Radicals and Neuronal Disorders -- Oxidative Stress in Wilson's Disease, Friedrich's Ataxia, and ALS -- Parkinson's Disease (PD) and Oxidative Stress -- Alzheimer's Disease: The Free Radical Connection -- Inflammation and Oxidative Stress: An Outlook -- "Manufacturing" of Free Radicals by Phagocytes -- Oxidative Stress Induced by Phagocytes -- More on Microbial Killing: A Radical New Hypothesis.
Atherosclerosis and Free Radicals: To Be or Not Be?.
Abstract:
Functional Metabolism of Cells is the first comprehensive survey of metabolism, offering an in-depth examination of metabolism and regulation of carbohydrates, lipids, and amino acids. It provides a basic background on metabolic regulation and adaptation as well as the chemical logic of metabolism, and covers the interrelationship of metabolism to life processes of the whole organism. The book lays out a structured approach to the metabolic basis of disease, including discussion of the normal pathways of metabolism, altered pathways leading to disease, and use of molecular genetics in diagnosis and treatment of disease. It also takes a unique comparative approach in which human metabolism is a reference for metabolism in microorganisms and plant design, and presents novel coverage of development and aging, and human health and animal adaptation. The final chapter reviews the past and future promise of new genetic approaches to treatment and bioinformatics. This, the most exhaustive treatment of metabolism currently available, is a useful text for advanced undergraduates and graduates in biochemistry, cell/molecular biology, and biomedicine, as well as biochemistry instructors and investigators in related fields.
Local Note:
Electronic reproduction. Ann Arbor, Michigan : ProQuest Ebook Central, 2017. Available via World Wide Web. Access may be limited to ProQuest Ebook Central affiliated libraries.
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