UNIT I: Introduction to Physiology: The Cell and General Physiology<br>1. Functional Organization of the Human Body and Control of the “Internal Environment”<br>Cells Are the Living Units of the Body<br>Extracellular Fluid—The “Internal Environment”<br>Homeostasis—Maintenance of a Stable Internal Environment<br>Control Systems of the Body<br>Physiological Variability<br>2. The Cell and Its Functions<br>Organization of the Cell<br>Cell Structure<br>Functional Systems of the Cell<br>Locomotion of Cells<br>3. Genetic Control of Protein Synthesis, Cell Function, and Cell Reproduction<br>Cell Nucleus Genes Control Protein Synthesis<br>Transcription—Transfer of Cell Nucleus DNA Code to Cytoplasm RNA Code<br>Translation—Formation of Proteins on the Ribosomes<br>Protein Enzymes Control Synthesis of Other Substances in the Cell<br>Regulation of Gene Function and Biochemical Activity in Cells<br>The DNA–Genetic System Controls Cell Reproduction<br>Cell Differentiation<br>Apoptosis—Programmed Cell Death<br>Cancer<br><br>UNIT II: Membrane Physiology, Nerve, and Muscle<br>4. Transport of Substances Through Cell Membranes<br>The Cell Membrane Is a Lipid Bilayer With Cell Membrane Transport Proteins<br>Diffusion<br>Active Transport of Substances Through Membranes<br>5. Membrane Potentials and Action Potentials<br>Basic Physics of Membrane Potentials<br>Resting Membrane Potential of Neurons<br>Neuron Action Potential<br>Propagation of the Action Potential<br>Importance of Energy Metabolism for Reestablishing Sodium and Potassium Ionic Gradients After Action Potentials Are Completed<br>Plateau in Some Action Potentials<br>Rhythmicity of Some Excitable Tissues—Repetitive Discharge<br>Special Characteristics of Signal Transmission in Nerve Trunks<br>Excitation—The Process of Eliciting the Action Potential<br>6. Contraction of Skeletal Muscle<br>Physiological Anatomy of Skeletal Muscle<br>General Mechanism of Muscle Contraction<br>Molecular Mechanisms of Muscle Contraction<br>Energetics of Muscle Contraction<br>Characteristics of Whole Muscle Contraction<br>7. Excitation of Skeletal Muscle: Neuromuscular Transmission and Excitation-Contraction Coupling<br>Neuromuscular Junction and Transmission of Impulses From Nerve Endings to Skeletal Muscle Fibers<br>Muscle Action Potential<br>Excitation-Contraction Coupling<br>8. Excitation and Contraction of Smooth Muscle<br>Contraction of Smooth Muscle<br>Regulation of Contraction By Calcium Ions<br>Nervous and Hormonal Control of Smooth Muscle Contraction<br><br>UNIT III: The Heart<br>9. Cardiac Muscle; The Heart as a Pump and Function of the Heart Valves<br>Cardiac Muscle Physiology<br>The Cardiac Cycle<br>Regulation of Heart Pumping<br>10. Rhythmical Excitation of the Heart<br>Specialized Excitatory and Conductive System of the Heart<br>Control of Excitation and Conduction in the Heart<br>11. Fundamentals of Electrocardiography<br>Waveforms of the Normal Electrocardiogram<br>Flow of Current Around the Heart During the Cardiac Cycle<br>Electrocardiographic Leads<br>12. Electrocardiographic Interpretation of Cardiac Muscle and Coronary Blood Flow Abnormalities: Vectorial Analysis<br>Vectorial Analysis of Electrocardiograms<br>Vectorial Analysis of the Normal Electrocardiogram<br>Mean Electrical Axis of the Ventricular QRS and Its Significance<br>Conditions That Cause Abnormal Voltages of the QRS Complex<br>Prolonged and Bizarre Patterns of the QRS Complex<br>Current of Injury on the Electrocardiogram<br>Abnormalities in the T Wave<br>13. Cardiac Arrhythmias and Their Electrocardiographic Interpretation<br>Abnormal Sinus Rhythms<br>Heart Block Within the Intracardiac Conduction Pathways<br>Premature Contractions<br>Paroxysmal Tachycardia<br>Ventricular Fibrillation<br>Atrial Fibrillation<br>Atrial Flutter<br>Cardiac Arrest<br><br>UNIT IV: The Circulation<br>14. Overview of the Circulation: Pressure, Flow, and Resistance<br>Physical Characteristics of the Circulation<br>Basic Principles of Circulatory Function<br>Interrelationships of Pressure, Flow, and Resistance<br>15. Vascular Distensibility and Functions of the Arterial and Venous Systems<br>Vascular Distensibility<br>Arterial Pressure Pulsations<br>Veins and Their Functions<br>16. The Microcirculation and Lymphatic System: Capillary Fluid Exchange, Interstitial Fluid, and Lymph Flow<br>Structure of the Microcirculation and Capillary System<br>Vasomotion Causes Intermittent Capillary Blood Flow<br>Exchange of Substances Between the Blood and Interstitial Fluid<br>Interstitium and Interstitial Fluid<br>Fluid Filtration Across Capillaries<br>Lymphatic System<br>17. Local and Humoral Control of Tissue Blood Flow<br>Local Blood Flow Is Controlled in Response to Tissue Needs<br>Mechanisms of Local Blood Flow Control<br>Humoral Control of the Circulation<br>18. Nervous Regulation of the Circulation and Rapid Control of Arterial Pressure<br>Nervous Regulation of the Circulation<br>Special Features of Nervous Control of Arterial Pressure<br>19. Role of the Kidneys in Long-Term Control of Arterial Pressure and in Hypertension: The Integrated System for Arterial Pressure Regulation<br>Renal–Body Fluid System for Arterial Pressure Control<br>Role of the Renin-Angiotensin System in Arterial Pressure Control<br>Summary of Integrated Multifaceted Systems for Arterial Pressure Regulation<br>20. Cardiac Output, Venous Return, and Their Regulation<br>Normal Values for Cardiac Output at Rest and During Activity<br>Control of Cardiac Output By Venous Return—Frank-Starling Mechanism of the Heart<br>Methods for Measuring Cardiac Output<br>21. Muscle Blood Flow and Cardiac Output During Exercise; The Coronary Circulation and Ischemic Heart Disease<br>Blood Flow Regulation in Skeletal Muscle at Rest and During Exercise<br>Coronary Circulation<br>22. Heart Failure<br>Circulatory Dynamics in Heart Failure<br>Unilateral Left Heart Failure<br>Low-Output Cardiac Failure—Cardiogenic Shock<br>Edema in Patients With Heart Failure<br>Cardiac Reserve<br>Quantitative Graphic Analysis of Cardiac Failure<br>Heart Failure With Preserved Ejection Fraction<br>High-Output Heart Failure<br>23. Heart Valves and Heart Sounds; Valvular and Congenital Heart Defects<br>Heart Sounds<br>Abnormal Circulatory Dynamics in Valvular Heart Disease<br>Abnormal Circulatory Dynamics in Congenital Heart Defects<br>Use of Extracorporeal Circulation During Cardiac Surgery<br>Hypertrophy of the Heart in Valvular and Congenital Heart Disease<br>24. Circulatory Shock and Its Treatment<br>Physiological Causes of Shock<br>Hypovolemic Shock Due to Hemorrhage<br>Distributive Shock Is Characterized By Severe Peripheral Vasodilation<br>Obstructive Shock Is Usually Due to Noncardiac Causes of Reduced Cardiac Output<br>Physiology of Treatment in Shock<br>Circulatory Arrest<br><br>UNIT V: The Body Fluids and Kidneys<br>25. Regulation of Body Fluid Compartments: Extracellular and Intracellular Fluids; Edema<br>Long-Term Steady-State Fluid and Solute Balance<br>Body Fluid Compartments<br>Constituents of Extracellular and Intracellular Fluids<br>Measurement of Body Fluid Volume—Indicator-Dilution Principle<br>Fluid Exchange and Osmotic Equilibrium Between Intracellular and Extracellular Fluid<br>Volume and Osmolality of Extracellular and Intracellular Fluids in Abnormal States<br>Glucose and Other Solutions for Nutrition<br>Clinical Abnormalities of Fluid Volume Regulation: Hyponatremia and Hypernatremia<br>Edema: Excess Fluid in the Tissues<br>Fluids in Potential Spaces of the Body<br>26. The Urinary System: Functional Anatomy and Urine Formation By the Kidneys<br>Functions of the Kidneys<br>Physiological Anatomy of the Kidneys<br>Urine Formation Results From Glomerular Filtration, Tubular Reabsorption, and Tubular Secretion<br>Micturition<br>27. Glomerular Filtration, Renal Blood Flow, and Their Control<br>Glomerular Filtration—The First Step in Urine Formation<br>Determinants of GFR<br>Renal Blood Flow<br>Physiological Control of GFR and Renal Blood Flow<br>Autoregulation of GFR and Renal Blood Flow<br>28. Renal Tubular Reabsorption and Secretion<br>Tubular Reabsorption Is Quantitatively Large and Highly Selective<br>Passive and Active Mechanisms of Reabsorption<br>Reabsorption and Secretion Along Different Parts of the Nephron<br>Regulation of Tubular Reabsorption<br>Use of Clearance Methods to Quantify Kidney Function<br>29. Urine Concentration and Dilution; Regulation of Extracellular Fluid Osmolarity and Sodium Concentration<br>Excretion of Excess Water by Dilute Urine<br>Conservation of Water by Concentrated Urine<br>Countercurrent Multiplier Mechanism<br>Control of Extracellular Fluid Osmolarity and Sodium Concentration<br>30. Renal Regulation of Potassium, Calcium, Phosphate, and Magnesium; Integration of Renal Mechanisms for Control of Blood Volume and Extracellular Fluid Volume<br>Regulation of Internal Potassium Distribution<br>Renal Potassium Excretion<br>Renal Calcium Excretion and Extracellular Calcium Ion Concentration<br>Renal Phosphate Excretion<br>Renal Magnesium Excretion and Extracellular Magnesium Ion Concentration<br>Integration of Renal Mechanisms for Control of Extracellular Fluid and Distribution of Extracellular Fluid<br>Nervous and Hormonal Factors in Renal–Body Fluid Feedback Control<br>Responses to Changes in Sodium Intake<br>Conditions Causing Large Increases in Blood and Extracellular Fluid Volume<br>31. Acid–Base Regulation<br>Hydrogen Ion Concentration Regulation<br>Acids and Bases—Definitions<br>Defenses Against Changes in H+ Concentration: Buffers, Lungs, and Kidneys<br>Buffering of H+<br>Bicarbonate Buffer System<br>Phosphate Buffer System<br>Proteins as Intracellular Buffers<br>Respiratory Regulation of Acid–Base Balance<br>Renal Control of Acid–Base Balance<br>Secretion and Reabsorption of H+ and HCO3− in Tubules<br>Generation of “New” HCO3− in the Tubule<br>Quantification of Renal Acid–Base Excretion<br>Renal Adjustment in Acidosis and Alkalosis<br>32. Diuretics and Kidney Diseases<br>Mechanisms of Action of Diuretics<br>Kidney Diseases<br>Acute Kidney Injury<br>Chronic Kidney Disease (CKD) and Loss of Nephrons<br><br>UNIT VI: Blood Cells, Immunity, and Blood Coagulation<br>33. Red Blood Cells, Anemia, and Polycythemia<br>Red Blood Cells (Erythrocytes)<br>Iron Metabolism<br>Anemias<br>Polycythemia<br>34. Resistance of the Body to Infection: I. Leukocytes, Granulocytes, the Monocyte-Macrophage System, and Inflammation<br>Leukocytes (White Blood Cells)<br>Neutrophils and Macrophages Defend Against Infections<br>Monocyte-Macrophage Cell System (Reticuloendothelial System)<br>Inflammation: Role of Neutrophils and Macrophages<br>Eosinophils<br>Basophils<br>Leukopenia<br>Leukemias<br>35. Resistance of the Body to Infection: II. Immunity and Allergy<br>Acquired (Adaptive) Immunity<br>Allergy and Hypersensitivity<br>Sex Differences in Innate and Adaptive Immunity<br>36. Blood Types, Transfusion, and Tissue and Organ Transplantation<br>Antigenicity Causes Immune Reactions of Blood<br>O-A-B Blood Types<br>Rh Blood Types<br>Transfusion Reactions Resulting From Mismatched Blood Types<br>Transplantation of Tissues and Organs<br>Immunological Aspects of Transplantation<br>37. Hemostasis and Blood Coagulation<br>Hemostasis Events<br>Mechanism of Blood Coagulation<br>Conditions That Cause Excessive Bleeding in Humans<br>Thromboembolic Conditions<br>Anticoagulants for Clinical Use<br>Blood Coagulation Tests<br><br>UNIT VII: Respiration<br>38. Pulmonary Ventilation<br>Mechanics of Pulmonary Ventilation<br>Pulmonary Volumes and Capacities<br>Alveolar Ventilation<br>39. Pulmonary Circulation, Pulmonary Edema, and Pleural Fluid<br>Physiological Anatomy of the Pulmonary Circulatory System<br>Pressures in the Pulmonary Circulatory System<br>Blood Volume of the Lungs<br>Blood Flow Through the Lungs and Its Distribution<br>Effect of Hydrostatic Pressure Gradients in the Lungs on Regional Pulmonary Blood Flow<br>Pulmonary Capillary Dynamics<br>Fluid in the Pleural Cavity<br>40. Principles of Gas Exchange; Diffusion of Oxygen and Carbon Dioxide Through Respiratory Membranes<br>Compositions of Alveolar Air and Atmospheric Air Are Different<br>Diffusion of Gases Through the Respiratory Membrane<br>41. Transport of Oxygen and Carbon Dioxide in Blood and Tissue Fluids<br>Transport of Oxygen From the Lungs to the Body Tissues<br>Transport of CO2 in Blood<br>Respiratory Exchange Ratio<br>42. Regulation of Respiration<br>Respiratory Center<br>Chemical Control of Respiration<br>Peripheral Chemoreceptor System—Role of Oxygen in Respiratory Control<br>Regulation of Respiration During Exercise<br>43. Respiratory Insufficiency—Pathophysiology, Diagnosis, Oxygen Therapy<br>Methods for Studying Respiratory Abnormalities<br>Pathophysiology of Specific Pulmonary Abnormalities<br>Hypoxia and Oxygen Therapy<br>Hypercapnia—Excess Carbon Dioxide in the Body Fluids<br>Respiratory Resuscitation and Mechanical Ventilators<br><br>UNIT VIII: Aviation, Space, and Deep-Sea Diving Physiology<br>44. Aviation, High Altitude, and Space Physiology<br>Effects of Low Oxygen Pressure on the Body<br>45. Physiology of Deep-Sea Diving and Other Hyperbaric Conditions<br>Effect of High Partial Pressures of Individual Gases on the Body<br>Self-Contained Underwater Breathing Apparatus (SCUBA) Diving<br><br>UNIT IX: The Nervous System: A. General Principles and Sensory Physiology<br>46. Organization of the Nervous System, Basic Functions of Synapses and Neurotransmitters<br>General Design of the Nervous System<br>Major Levels of Central Nervous System Function<br>Comparison of the Nervous System to a Computer<br>Central Nervous System Synapses<br>Special Characteristics of Synaptic Transmission<br>47. Sensory Receptors and Neuronal Circuits for Processing Information<br>Types of Sensory Receptors and the Stimuli They Detect<br>Transduction of Sensory Stimuli Into Nerve Impulses<br>Signal Intensity Transmission in Nerve Tracts—Spatial and Temporal Summation<br>Transmission and Processing of Signals in Neuronal Pools<br>Instability and Stability of Neuronal Circuits<br>48. Somatic Sensations: I. General Organization, Tactile and Position Senses<br>Classification of Somatic Senses<br>Detection and Transmission of Tactile Sensations<br>Sensory Pathways for Transmitting Somatic Signals Into the Central Nervous System<br>Transmission in the Dorsal Column–Medial Lemniscal System<br>Transmission of Sensory Signals in the Anterolateral Pathway<br>49. Somatic Sensations: II. Pain, Headache, and Thermal Sensations<br>Fast Pain and Slow Pain and Their Qualities<br>Pain Receptors (Nociceptors) and Their Stimulation<br>Dual Pathways for Transmission of Pain Signals Into the Central Nervous System<br>Pain Suppression (Analgesia) System in the Brain and Spinal Cord<br>Referred Pain<br>Visceral Pain<br>Thermal Sensations<br><br>UNIT X: The Nervous System: B. The Special Senses<br>50. The Eye: I. Optics of Vision<br>Physical Principles of Optics<br>Optics of the Eye<br>Fluid System of the Eye—Intraocular Fluid<br>51. The Eye: II. Receptor and Neural Function of the Retina<br>Anatomy and Function of Structural Elements of the Retina<br>Photochemistry of Vision<br>Color Vision<br>Neural Function of the Retina<br>52. The Eye: III. Central Neurophysiology of Vision<br>Visual Pathways<br>Organization and Function of the Visual Cortex<br>Neuronal Patterns of Stimulation During Analysis of Visual Images<br>Eye Movements and Their Control<br>Autonomic Control of Accommodation and Pupillary Aperture<br>53. The Sense of Hearing<br>Tympanic Membrane and the Ossicular System<br>Cochlea<br>Central Auditory Mechanisms<br>54. The Chemical Senses—Taste and Smell<br>Sense of Taste<br>Sense of Smell<br><br>UNIT XI: The Nervous System: C. Motor and Integrative Neurophysiology<br>55. Spinal Cord Motor Functions; The Cord Reflexes<br>Organization of the Spinal Cord for Motor Functions<br>Muscle Sensory Receptors—Muscle Spindles and Golgi Tendon Organs—Their Roles in Muscle Control<br>Flexor Reflex and the Withdrawal Reflexes<br>Crossed Extensor Reflex<br>Reciprocal Inhibition and Innervation<br>Reflexes of Posture and Locomotion<br>56. Cortical and Brain Stem Control of Motor Function<br>Motor Cortex and Corticospinal Tract<br>Control of Motor Functions By the Brain Stem<br>Vestibular Sensations and Maintenance of Equilibrium<br>57. Cerebellum and Basal Ganglia Contributions to Overall Motor Control<br>The Cerebellum and Its Motor Functions<br>The Basal Ganglia and Their Motor Functions<br>Integration of the Entire Motor Control System<br>58. Cerebral Cortex, Intellectual Functions of the Brain, Learning, and Memory<br>Physiological Anatomy of the Cerebral Cortex<br>Functions of Specific Cortical Areas<br>The Corpus Callosum and Anterior Commissure<br>Thoughts, Consciousness, and Memory<br>59. The Limbic System and the Hypothalamus—Behavioral and Motivational Mechanisms of the Brain<br>Activating—Driving Systems of the Brain<br>Limbic System<br>The Hypothalamus, a Major Control Headquarters for the Limbic System<br>Functions of Other Parts of the Limbic System<br>60. States of Brain Activity—Sleep, Brain Waves, Epilepsy, Psychoses, and Dementia Sleep<br><br>UNIT XII: Gastrointestinal Physiology<br>63. General Principles of Gastrointestinal Function—Motility, Nervous and Hormonal Control, Blood Circulation, and Microbiota<br>Gastrointestinal Motility<br>Neural Control—Enteric Nervous System<br>Hormonal Control<br>Gastrointestinal Microbiota<br>64. Propulsion and Mixing of Food in the Alimentary Tract<br>Ingestion of Food<br>Stomach Movements<br>Small Intestine Movements<br>Colon Movements<br>Autonomic Reflexes Influencing Bowel Activity<br>65. Secretory Functions of the Alimentary Tract<br>Principles of Secretion<br>Saliva Secretion<br>Gastric Secretion<br>Pancreatic Secretion<br>Bile Secretion by the Liver<br>Small Intestine Secretion<br>Mucus Secretion by the Large Intestine<br>66. Digestion and Absorption in the Gastrointestinal Tract<br>Hydrolysis of Foods<br>Gastrointestinal Absorption Principles<br>Absorption in the Small Intestine<br>Absorption in the Large Intestine and Feces Formation<br>67. Physiology of Gastrointestinal Disorders<br><br>UNIT XIII: Metabolism and Temperature Regulation<br>68. Metabolism of Carbohydrates and Formation of Adenosine Triphosphate<br>69. Lipid Metabolism<br>70. Protein Metabolism<br>71. The Liver<br>72. Dietary Balances; Regulation of Feeding; Obesity and Starvation; Vitamins and Minerals<br>73. Energetics and Metabolic Rate<br>74.Body Temperature Regulation and Fever<br><br>UNIT XIV: Endocrinology and Reproduction<br>75. Introduction to Endocrinology<br>76. Pituitary Hormones and Their Control By the Hypothalamus<br>77. Thyroid Metabolic Hormones<br>78. Adrenocortical Hormones<br>79. Insulin, Glucagon, and Diabetes Mellitus<br>80. Parathyroid Hormone, Calcitonin, Calcium and Phosphate Metabolism, Vitamin D, Bone, and Teeth<br>81. Reproductive and Hormonal Functions of the Male (and Function of the Pineal Gland)<br>82. Female Physiology Before Pregnancy and Female Hormones<br>83. Pregnancy and Lactation<br>84. Fetal and Neonatal Physiology<br><br>UNIT XV: Sports Physiology<br>85. Sports Physiology