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Book Details
Abstract
Pharmacology and physiology are the foundation of every anesthesia provider’s training and clinical competency. Pharmacology and Physiology for Anesthesia: Foundations and Clinical Application, 2nd Edition, delivers the information you need in pharmacology, physiology, and molecular-cellular biology, keeping you current with contemporary training and practice. This thoroughly updated edition is your one-stop, comprehensive overview of physiology, and rational anesthetic drug selection and administration, perfect for study, review, and successful practice.
- Contains new chapters on Special Populations (anesthetic pharmacology in obesity, geriatrics, and pediatrics), Oral and Non-IV Opioids, Thermoregulation, Physiology and Pharmacology of Obstetric Anesthesia, Chemotherapeutic and Immunosuppresive Drugs, and Surgical Infection and Antimicrobial Drugs.
- Incorporates entirely new sections on Physics, Anatomy, and Imaging.
- Includes new information on consciousness and cognition, pharmacodynamics, the immune system, and anti-inflammatory drugs.
- Features user-friendly tables, figures, and algorithms (including 100 new illustrations), all presented in full color and designed to help explain complex concepts.
- Helps you understand the molecular mechanism of drug actions and identify key drug interactions that may complicate anesthesia with dedicated sections on these areas.
Table of Contents
Section Title | Page | Action | Price |
---|---|---|---|
Front Cover | cover | ||
Inside Front Cover | ifc1 | ||
Pharmacology and Physiology for Anesthesia | i | ||
Copyright Page | iv | ||
Dedication | v | ||
Contributors | vii | ||
Preface to the Second Edition | xiii | ||
Excerpts from the Preface to the First Edition | xv | ||
Table Of Contents | xvii | ||
Second Half title page | xix | ||
I Basic Principles of Pharmacology | 1 | ||
1 Mechanisms of Drug Action | 2 | ||
Abstract | 2.e1 | ||
Keywords | 2.e1 | ||
Chapter Outline | 2 | ||
The Receptor Concept | 2 | ||
Historical Beginnings | 2 | ||
Modern Development | 3 | ||
Pharmacodynamics | 3 | ||
Drug Binding | 3 | ||
From Drug Binding to Physiologic Effect | 4 | ||
Efficacy | 5 | ||
Full Agonists, Partial Agonists, and Inverse Agonists | 6 | ||
Antagonism | 6 | ||
Allosteric Drug Interactions | 8 | ||
Multiple Binding Sites on the Same Receptor Protein | 8 | ||
Allosteric Binding Sites | 8 | ||
Pharmacogenetics | 9 | ||
Drug Discovery | 10 | ||
Structure-Activity Relationship | 10 | ||
Identification of Drug Targets | 10 | ||
Purification of Receptors | 10 | ||
Drug Targets | 11 | ||
Cell Signaling | 12 | ||
Emerging Developments | 14 | ||
Pharmacophore Modeling | 14 | ||
Phenotype-Based Drug Discovery | 14 | ||
Novel Antidotes | 17 | ||
Key Points | 17 | ||
Key References | 18 | ||
References | 18 | ||
2 Pharmacokinetic and Pharmacodynamic Principles for Intravenous Anesthetics | 20 | ||
Abstract | 20.e1 | ||
Keywords | 20.e1 | ||
Chapter Outline | 20 | ||
Historical Perspective | 20 | ||
Unique Aspects of Anesthetic Pharmacology | 21 | ||
Anesthesiology Compared With Other Disciplines | 21 | ||
A Surfing Analogy as a Simple Conceptual Framework | 21 | ||
Clinical Pharmacology | 22 | ||
Posology | 22 | ||
General Schema | 23 | ||
Pharmacokinetics | 24 | ||
Pharmacodynamics | 24 | ||
The Biophase | 25 | ||
Drug Interactions | 25 | ||
Pharmacologic Modeling | 26 | ||
PK-PD Models as Versions of Pharmacologic Reality | 26 | ||
PK-PD Model Building Methods | 26 | ||
Limitations in Building & Applying PK-PD Models | 28 | ||
Early Model Misspecification | 28 | ||
Stereochemistry | 28 | ||
Active Metabolites | 29 | ||
Variability | 29 | ||
Pharmacologic Simulation | 29 | ||
Unimportance of Individual PK-PD Model Parameters | 29 | ||
Importance of PK-PD Model Simulation | 30 | ||
PK-PD Model Simulation and Anesthesia Posology | 31 | ||
Bolus Front-End and Back-End Kinetics | 31 | ||
Infusion Front-End Kinetics | 31 | ||
Infusion Back-End Kinetics | 32 | ||
Influence of Dose on Bolus Onset and Offset of Effect | 32 | ||
Influence of Loading Dose on Infusion Front-End and Back-End Kinetics | 34 | ||
Influence of Special Populations | 34 | ||
Influence of a Second Drug on Effect | 35 | ||
PK-PD Models and Technology | 35 | ||
Target-Controlled Infusion | 35 | ||
Emerging Developments | 37 | ||
PK-PD Advisory Displays | 37 | ||
Propofol Measurement in Expired Gas | 39 | ||
Allometric Scaling in Pharmacokinetics | 39 | ||
Key Points | 39 | ||
Key References | 40 | ||
References | 40 | ||
3 Pharmacokinetics of Inhaled Anesthetics | 44 | ||
Abstract | 44.e1 | ||
Keywords | 44.e1 | ||
Chapter Outline | 44 | ||
Historical Perspective | 44 | ||
Classes of Inhaled Anesthetics | 44 | ||
Physical Properties | 45 | ||
Measuring Anesthetic Potency as MAC | 46 | ||
Monitoring Inhaled Anesthetic Delivery | 48 | ||
Differences Between Inhaled and Intravenous Anesthetic Delivery | 48 | ||
Agent Analysis | 48 | ||
Monitoring Neurophysiologic Effect | 49 | ||
Metabolism and Degradation | 49 | ||
Metabolism | 49 | ||
Chemical Degradation | 49 | ||
Carbon Monoxide Production | 50 | ||
Uptake and Distribution | 50 | ||
General Principles | 50 | ||
Determinants of Wash-In | 51 | ||
Special Factors | 51 | ||
Tissue Uptake | 51 | ||
Recovery and Elimination | 52 | ||
Nitrous Oxide: Concentration Effect, Second Gas Effect, Diffusion Hypoxia, and Effects on Closed Gas Spaces | 53 | ||
Gas Delivery Systems | 54 | ||
Reaction of CO2 With Barium Hydroxide Lime (Baralyme, Obsolete) | 56 | ||
Reaction of CO2 With Lithium Hydroxide (in Current Use) | 56 | ||
Low-Flow Anesthesia | 57 | ||
Pharmacoeconomic Considerations | 57 | ||
Emerging Developments | 57 | ||
Intravenous Delivery of Volatile Anesthetics | 57 | ||
Volatile Anesthetics in the Intensive Care Unit | 57 | ||
Key Points | 58 | ||
Physics: Liquids, Vapors, Gases, and the Gas Laws | 60 | ||
Outline | 60 | ||
Background | 60 | ||
Liquids, Gases, and Vapors | 60 | ||
Liquefaction and Vaporization | 60 | ||
Gas Laws | 62 | ||
Humidity | 64 | ||
Gas Conditions | 65 | ||
References | 65 | ||
Physics: Monitoring Gas Concentrations | 66 | ||
Outline | 66 | ||
Background | 66 | ||
Calibration and Preparation Before Use | 66 | ||
Monitoring Methods | 66 | ||
Sidestream | 66 | ||
Mainstream | 67 | ||
Technologies | 67 | ||
Infrared Absorption | 67 | ||
Paramagnetic Oxygen Sensor | 68 | ||
Electrochemical Oxygen Sensor | 68 | ||
Mass Spectrometry | 69 | ||
Raman Scatter Analysis | 69 | ||
References | 69 | ||
Key References | 58 | ||
References | 58 | ||
4 Drug Metabolism and Pharmacogenetics | 70 | ||
Abstract | 70.e1 | ||
Keywords | 70.e1 | ||
Chapter Outline | 70 | ||
Evolutionary Perspective | 70 | ||
Pharmacogenetics, Pharmacogenomics, and Variability in Drug Responses | 70 | ||
Pharmacokinetic Considerations | 70 | ||
Classification of Drug Metabolism Reactions | 70 | ||
Phase I Metabolism | 71 | ||
Phase II Metabolism | 71 | ||
Phase I Enzymes | 72 | ||
Cytochrome P450 | 72 | ||
Flavin-Containing Monooxidases | 74 | ||
Amine Oxidases, Including Monoamine Oxidase | 76 | ||
Esterases, Including Butyrylcholinesterase (Pseudocholinesterase) | 77 | ||
Phase II Enzymes | 77 | ||
Sites of Drug Metabolism | 78 | ||
Liver | 79 | ||
Intestinal Mucosa | 80 | ||
Lung | 80 | ||
Blood | 80 | ||
Pharmacogenomics and Drugs Commonly Used in Anesthesia (Table 4.15) | 81 | ||
Neuromuscular Blockers | 81 | ||
Butyrylcholinesterase Deficiency | 81 | ||
Increased Butyrylcholinesterase Activity | 81 | ||
Opioids | 82 | ||
Pharmacokinetic Alterations | 82 | ||
Opioid Absorption and Distribution | 82 | ||
Opioid Metabolism | 82 | ||
Pharmacodynamic Alterations | 83 | ||
Opioid Receptors | 83 | ||
Intravenous Anesthetics | 83 | ||
Pharmacokinetic Alterations | 83 | ||
II Nervous System | 144 | ||
8 Central Nervous System Physiology | 145 | ||
Abstract | 145.e1 | ||
Keywords | 145.e1 | ||
Chapter Outline | 145 | ||
Historical Perspective | 145 | ||
Glia | 146 | ||
CSF, Interstitial Fluid, and the Glymphatic System | 146 | ||
The Neuron | 148 | ||
Basic Structure | 148 | ||
Excitability | 148 | ||
Communication | 153 | ||
Membrane Time Constant | 153 | ||
Action Potential | 154 | ||
Synapses | 154 | ||
Transmitter Release and Action | 154 | ||
Plasticity | 156 | ||
Transmitters and Receptors | 157 | ||
Neuronology | 159 | ||
The Brain: Structure Determines Function | 159 | ||
Structure | 159 | ||
Spinal Cord | 162 | ||
Function | 163 | ||
Default Mode Network | 163 | ||
Brain Rhythms | 163 | ||
Emerging Developments | 164 | ||
Probing the Brain | 164 | ||
Optogenetics and Pharmacogenetics | 165 | ||
Key Points | 166 | ||
Physics: Basic Electronics and Electrical Hazards | 170 | ||
Outline | 170 | ||
Background | 170 | ||
Basic Electrical Concepts | 170 | ||
Simple Circuits | 170 | ||
Electrical Circuit Elements | 171 | ||
Electrical Hazards | 172 | ||
Reference | 173 | ||
Key References | 167 | ||
References | 167 | ||
9 Central Nervous System Physiology | 174 | ||
Abstract | 174.e1 | ||
Keywords | 174.e1 | ||
Chapter Outline | 174 | ||
Cerebrovascular Anatomy | 174 | ||
Vascular Architecture | 174 | ||
Arteries and Arterioles | 174 | ||
Venous Circulation | 174 | ||
Anterior Circulation | 175 | ||
Posterior Circulation | 175 | ||
Regulation of Cerebral Blood Flow | 175 | ||
Chemical Regulation of Cerebral Blood Flow | 176 | ||
Cerebral Metabolic Rate | 176 | ||
Functional State | 177 | ||
Anesthetic Agents | 177 | ||
Temperature | 177 | ||
Paco2 | 177 | ||
Pao2 | 177 | ||
Myogenic Regulation (Autoregulation) of Cerebral Blood Flow | 178 | ||
Neurogenic Regulation of Cerebral Blood Flow | 178 | ||
Viscosity Effects on Cerebral Blood Flow | 179 | ||
Vasoactive Agents | 180 | ||
Systemic Vasodilators | 180 | ||
Adrenergic Receptor Agonists/Antagonists | 180 | ||
α1-Receptor Agonists | 181 | ||
β-Receptor Agonists | 181 | ||
β-Receptor Blockers | 181 | ||
Dopamine | 181 | ||
Intravenous Anesthetics | 181 | ||
Volatile Anesthetics | 181 | ||
Age | 181 | ||
Cerebral Spinal Fluid Dynamics | 181 | ||
Production | 181 | ||
Circulation | 181 | ||
Function | 182 | ||
Blood-Brain Barrier | 182 | ||
Pathophysiology of Cerebral Ischemia | 182 | ||
Critical CBF Thresholds | 182 | ||
Energy Failure and Excitotoxicity | 183 | ||
The Nature of Neuronal Death | 184 | ||
Timing of Neuronal Death | 184 | ||
Key Points | 185 | ||
Anatomy and Imaging: The Nervous System | 188 | ||
Key References | 185 | ||
References | 185 | ||
10 Pharmacology of Intravenous Anesthetics | 193 | ||
Abstract | 193.e1 | ||
Keywords | 193.e1 | ||
Chapter Outline | 193 | ||
History of Intravenous Anesthesia | 193 | ||
General Anesthesia by Intravenous Agents | 193 | ||
Intravenous Anesthesia Mechanisms and Theory | 194 | ||
Pharmacologic Targets of Intravenous Anesthetics in the Central Nervous System | 194 | ||
GABAA Receptors | 194 | ||
GABAA Insights From Mutagenic Studies | 195 | ||
N-Methyl-d-Aspartate Receptors | 197 | ||
Other Molecular Targets | 198 | ||
Individual Agents | 198 | ||
Barbiturates | 198 | ||
Benzodiazepines | 200 | ||
Etomidate | 201 | ||
Propofol | 203 | ||
Pharmacology | 203 | ||
Formulation and Preparation | 203 | ||
Metabolism, Redistribution, Clearance, and Elimination | 204 | ||
Advantages and Disadvantages of Propofol as an Induction Agent | 205 | ||
Clinical Features of Anesthesia Maintenance With Propofol | 205 | ||
Fospropofol | 206 | ||
Ketamine | 206 | ||
Dexmedetomidine | 207 | ||
Emerging Developments | 209 | ||
High-Tech Delivery Systems | 209 | ||
Novel Sedatives | 209 | ||
Reversal of General Anesthesia | 210 | ||
Non-Anesthesia Uses of Intravenous Anesthetics | 210 | ||
Key Points | 210 | ||
Key References | 210 | ||
References | 211 | ||
11 Pharmacology of Inhaled Anesthetics | 217 | ||
Abstract | 217.e1 | ||
Keywords | 217.e1 | ||
Chapter Outline | 217 | ||
Historical Perspective | 217 | ||
Discovery of Inhaled Anesthetics | 217 | ||
Development of Modern Inhaled Anesthetics | 218 | ||
Structure-Activity Relationships | 218 | ||
Meyer-Overton Correlation | 218 | ||
Stereoselectivity | 219 | ||
Mechanisms of Action | 220 | ||
From Lipid-Based to Protein-Based Mechanisms | 220 | ||
Diversity of Molecular Targets | 220 | ||
Multiple Behavioral Endpoints | 220 | ||
Molecular and Cellular Sites of Action | 221 | ||
Drug Class Effects | 224 | ||
Nonanesthetic Effects | 225 | ||
Bronchodilation | 225 | ||
Neuromuscular Effects | 225 | ||
Analgesia and Neuroprotection | 225 | ||
Adverse Effects | 225 | ||
Respiratory Depression | 225 | ||
Cardiovascular Depression | 225 | ||
Cardiac Dysrhythmias | 226 | ||
Neurophysiologic Effects | 226 | ||
Immunomodulatory Effects | 226 | ||
Hepatotoxicity | 226 | ||
Nephrotoxicity | 227 | ||
Malignant Hyperthermia | 227 | ||
Postoperative Nausea and Vomiting | 227 | ||
Metabolic Effects | 227 | ||
Unique Features of Individual Agents | 227 | ||
Agents With Prominent GABAA Receptor Activity | 227 | ||
Halothane, Enflurane, Methoxyflurane | 227 | ||
Isoflurane | 227 | ||
Sevoflurane | 228 | ||
Desflurane | 228 | ||
Ether and Chloroform | 228 | ||
Agents With Prominent NMDA Receptor Activity | 228 | ||
Nitrous Oxide | 228 | ||
Xenon | 228 | ||
Cyclopropane | 228 | ||
Environmental Considerations | 228 | ||
Drug Interactions | 228 | ||
Reduction in MAC by Anesthetic Adjuvants | 228 | ||
MAC Additivity | 228 | ||
Synergy With Opioid-Induced Respiratory Depression | 229 | ||
Factors Influencing MAC | 229 | ||
Age | 229 | ||
Temperature | 229 | ||
Pharmacogenetic Effects on Potency | 229 | ||
Common Clinical Indications and Considerations | 230 | ||
Induction and Maintenance of Anesthesia | 230 | ||
Neuroanesthesia and Neuromonitoring | 230 | ||
Cardiac Anesthesia | 230 | ||
Pediatric Anesthesia | 230 | ||
Obstetric Anesthesia | 230 | ||
Ambulatory Anesthesia | 230 | ||
Thoracic Anesthesia | 231 | ||
Emerging Developments | 231 | ||
Developmental Neurotoxicity | 231 | ||
Anesthesia and Neurodegenerative Disease | 232 | ||
Neuroinflammation and Cognitive Dysfunction | 232 | ||
Inhaled Anesthetic Sensitivity: Triple Low | 233 | ||
Anesthetic Preconditioning | 233 | ||
Immunomodulation and Cancer | 233 | ||
Closed-Loop Anesthetic Delivery | 233 | ||
Accelerated Emergence | 234 | ||
Key Points | 235 | ||
Key References | 235 | ||
References | 235 | ||
12 Drugs for Neuropsychiatric Disorders | 241 | ||
Chapter Outline | 241 | ||
Historical Perspective | 241 | ||
Antidepressant Drugs | 242 | ||
Tricyclic Antidepressants | 242 | ||
History | 242 | ||
Basic Pharmacology | 242 | ||
Structure-Activity | 242 | ||
Mechanism | 242 | ||
Metabolism | 243 | ||
Clinical Pharmacology | 244 | ||
Pharmacokinetics | 244 | ||
Pharmacodynamics | 244 | ||
Therapeutic Effects. | 244 | ||
Adverse Effects. | 244 | ||
Drug Interactions | 244 | ||
Selective Serotonin Reuptake Inhibitors | 245 | ||
History | 245 | ||
Basic Pharmacology | 245 | ||
Structure-Activity | 245 | ||
Mechanism | 245 | ||
Metabolism | 245 | ||
Clinical Pharmacology | 246 | ||
Pharmacokinetics | 246 | ||
Pharmacodynamics | 246 | ||
Therapeutic Effects. | 246 | ||
Adverse Effects. | 247 | ||
Drug Interactions | 247 | ||
Monoamine Oxidase Inhibitors | 247 | ||
Basic Pharmacology | 247 | ||
Clinical Pharmacology | 247 | ||
Adverse Effects, Dietary Interactions, and Drug Interactions | 248 | ||
Dietary Interactions | 248 | ||
Drug Interactions | 248 | ||
Atypical Antidepressants | 248 | ||
Anxiolytic Drugs | 248 | ||
Benzodiazepines | 248 | ||
History | 248 | ||
Basic Pharmacology | 248 | ||
Structure-Activity | 248 | ||
Mechanism | 248 | ||
Metabolism | 248 | ||
Clinical Pharmacology | 250 | ||
Pharmacokinetics | 250 | ||
Pharmacodynamics | 250 | ||
Therapeutic Effects. | 250 | ||
Adverse Effects. | 250 | ||
Drug Interactions | 251 | ||
Antipsychotic Drugs | 251 | ||
First-Generation (Typical) Antipsychotics | 251 | ||
Pharmacology | 251 | ||
Side Effects | 251 | ||
Extrapyramidal Side Effects | 251 | ||
Neuroleptic Malignant Syndrome | 254 | ||
Other Side Effects | 254 | ||
Second-Generation (Atypical) Antipsychotics | 254 | ||
Individual Agents | 254 | ||
Clozapine (Clozaril) | 254 | ||
Olanzapine (Zyprexa) | 255 | ||
Quetiapine (Seroquel) | 255 | ||
Aripiprazole (Abilify) | 255 | ||
Risperidone (Risperdal) | 256 | ||
Mood Stabilizer Drugs | 256 | ||
Lithium | 256 | ||
History | 256 | ||
Basic Pharmacology | 256 | ||
Structure-Activity. | 256 | ||
Mechanism | 256 | ||
Metabolism | 256 | ||
Clinical Pharmacology | 256 | ||
Pharmacokinetics | 256 | ||
Pharmacodynamics | 256 | ||
Therapeutic Effects | 256 | ||
Adverse Effects. | 256 | ||
Drug Interactions | 257 | ||
Anticonvulsant Mood Stabilizers | 257 | ||
Individual Agents | 257 | ||
Valproate (Depakote) | 257 | ||
Carbamazepine (Tegretol) | 257 | ||
Lamotrigine (Lamictal) | 257 | ||
Psychostimulants | 258 | ||
Pharmacologic Treatment of Parkinson Disease | 258 | ||
Levodopa | 258 | ||
History | 258 | ||
Basic Pharmacology | 258 | ||
Structure-Activity | 258 | ||
Mechanism | 258 | ||
Metabolism | 258 | ||
Clinical Pharmacology | 258 | ||
Pharmacokinetics | 258 | ||
Pharmacodynamics | 258 | ||
Therapeutic Effects. | 258 | ||
Adverse Effects. | 259 | ||
Dopamine Agonists | 259 | ||
History | 259 | ||
Basic Pharmacology | 260 | ||
Structure-Activity | 260 | ||
Mechanism | 260 | ||
Metabolism | 260 | ||
Clinical Pharmacology | 260 | ||
Pharmacokinetics | 260 | ||
Pharmacodynamics | 260 | ||
Therapeutic Effects. | 260 | ||
Adverse Effects. | 260 | ||
MAO-B Inhibitors | 260 | ||
Pharmacologic Treatment of Myasthenia Gravis | 260 | ||
Anticholinesterases | 260 | ||
History | 260 | ||
III Cardiovascular System | 455 | ||
23 Cardiovascular Physiology | 456 | ||
Abstract | 456.e1 | ||
Keywords | 456.e1 | ||
Chapter Outline | 456 | ||
Historical Perspective | 456 | ||
Cardiac Excitation | 456 | ||
General Concepts | 456 | ||
The Action Potential | 458 | ||
Fast Response Tissue | 458 | ||
Phase 0—Rapid Depolarization | 458 | ||
Phase 1—Early Repolarization | 458 | ||
Phase 2—Plateau | 459 | ||
Phase 3—Final Repolarization | 459 | ||
Phase 4—Resting Membrane Potential | 459 | ||
Slow Response Tissue | 459 | ||
Phase 4—Slow Spontaneous Depolarization | 459 | ||
Phase 0—Depolarization | 459 | ||
Impulse Propagation and Conduction | 459 | ||
Excitation-Contraction Coupling | 460 | ||
Membrane Depolarization and Activator Calcium | 460 | ||
Modulation of Excitation-Contraction Coupling | 463 | ||
Autoregulation of Mechanical Function: Frequency and Length Dependence | 463 | ||
Frequency Dependence | 463 | ||
Length Dependence | 464 | ||
Vascular Regulation | 464 | ||
Principles and Caveats | 464 | ||
Vascular Smooth Muscle Structure | 464 | ||
Modulation of Vascular Smooth Muscle Tone | 465 | ||
Mechanisms of Vasoconstriction | 466 | ||
Mechanisms of Vasodilation | 467 | ||
Vasoregulation Signaling Pathways | 468 | ||
Regulation of [Ca2+]i | 468 | ||
Vasodilation: The G-Protein–cAMP Pathway | 468 | ||
Vasodilation: Nitric Oxide−cGMP Pathway | 468 | ||
Vasoconstriction: PLC-Phosphatidylinositol Pathway | 468 | ||
Regulation of Myofilament Ca2+ Sensitivity | 468 | ||
Regulation of Vascular Smooth Muscle by the Endothelium | 468 | ||
Endothelium-Derived Relaxing Factors | 468 | ||
Nitric Oxide | 468 | ||
Prostacyclin | 469 | ||
Endothelium-Derived Hyperpolarizing Factor | 469 | ||
Endothelium-Derived Contracting Factors | 469 | ||
Endothelin I | 469 | ||
Cyclooxygenase Products | 469 | ||
Examples of Local, Autonomic, and Humoral Regulation of Vascular Smooth Muscle | 469 | ||
Local Regulation | 469 | ||
Autonomic Regulation | 469 | ||
Adrenergic | 469 | ||
Cholinergic | 469 | ||
Humoral | 469 | ||
Emerging Developments | 470 | ||
Proteomics to Advance Cardiac Physiology | 470 | ||
Key Points | 470 | ||
Key References | 471 | ||
References | 471 | ||
24 Cardiovascular Physiology | 473 | ||
Abstract | 473.e1 | ||
Keywords | 473.e1 | ||
Chapter Outline | 473 | ||
Cardiac Physiology | 473 | ||
Basic Cardiac Anatomy | 473 | ||
Determinants and Control of Cardiac Output | 474 | ||
Heart Rate | 474 | ||
Stroke Volume | 474 | ||
Preload | 474 | ||
Contractility | 475 | ||
Afterload | 475 | ||
The Cardiac Cycle | 475 | ||
Indices of Cardiac Function | 477 | ||
Calculation of Cardiac Output Using the Thermodilution Method | 477 | ||
Cardiac Function Curves With the Pulmonary Artery Catheter | 477 | ||
Cardiac Function Using the Transpulmonary Thermodilution Method | 477 | ||
Isovolumic Contraction Index | 478 | ||
Ejection Phase Index | 479 | ||
Ventricular Pressure-Volume Loop: End-Systolic Pressure-Volume Relations | 479 | ||
Hemodynamics and Systemic Vascular Control | 481 | ||
Pressure Changes in Systemic and Pulmonary Circulations | 481 | ||
Determinants of Blood Flow: Poiseuille’s Law | 481 | ||
Blood Viscosity | 482 | ||
Turbulent Flow | 482 | ||
Major Vessel Types: Structure and Function | 483 | ||
Factors Influencing the Balancing Between Capillary Filtration and Absorption | 483 | ||
Major Cardiovascular Reflexes | 485 | ||
Arterial Baroreceptor Reflex | 485 | ||
Bezold-Jarisch Reflex | 485 | ||
Bainbridge Reflex | 488 | ||
Tissue Oxygen Transport | 488 | ||
General Concepts | 488 | ||
Oxygen Transport in the Blood | 488 | ||
Characteristic Values for Parameters of Oxygen Delivery | 490 | ||
Diffusion of Oxygen to Tissues: Capillary to Cell Oxygen Delivery | 490 | ||
Measurement of Oxygen Consumption | 491 | ||
Critical Oxygen Delivery | 492 | ||
Determinants of Myocardial Oxygen Supply and Demand | 492 | ||
Control of Coronary Blood Flow | 492 | ||
Coronary Flow Reserve | 493 | ||
Myocardial Oxygen Demand | 494 | ||
Impaired Myocardial Oxygen Balance: Mechanisms of Myocardial Ischemia | 494 | ||
Emerging Developments | 495 | ||
Noninvasive Perioperative Monitoring | 495 | ||
Key Points | 495 | ||
Anatomy and Imaging: The Cardiovascular System | 500 | ||
A. The Aortic Arch in an Idealized Anatomic Drawing | 505 | ||
B. Arteries of the Upper Extremity in an Idealized Anatomic Drawing | 505 | ||
C. Relationships of the Subclavian Vessels, Scalene Muscles, and Brachial Plexus Visualized in an Idealized Anatomic Drawing and by Ultrasonography | 505 | ||
D. The Profunda Artery as Visualized in an Anatomic Dissection and by Ultrasonogaphy | 505 | ||
E. the Brachial Artery as Visualized in an Anatomic Dissection and by Ultrasonography | 509 | ||
F. The Ulnar and Radial Arteries as Visualized in an Anatomic Dissection and by Ultrasonography | 509 | ||
References | 509 | ||
Physics: Fluid Dynamics | 510 | ||
Outline | 510 | ||
Background | 510 | ||
Fluid Flow | 510 | ||
Volumetric Flow | 510 | ||
Mass Flow | 510 | ||
Viscosity | 511 | ||
Types and Properties of Flow | 511 | ||
Laminar Flow | 511 | ||
Turbulent Flow | 512 | ||
Convection | 512 | ||
Bernoulli’s Law | 512 | ||
Flow Meters | 512 | ||
Differential Pressure Sensors | 512 | ||
Rotameters | 512 | ||
Vane Anemometers | 513 | ||
Hot-Wire Anemometers | 513 | ||
Ultrasonic Anemometers | 513 | ||
Physics: Invasive and Noninvasive Blood Pressure Measurement | 514 | ||
Outline | 514 | ||
Background | 514 | ||
Noninvasive Blood Pressure Measurement | 514 | ||
Palpation and Oscillometric Method | 514 | ||
Korotkoff Sounds | 514 | ||
Continuous, Invasive Blood Pressure Monitoring | 515 | ||
Resonant or Natural Frequency | 516 | ||
Damping | 517 | ||
Fast-Flush Test | 517 | ||
Morphology of the Arterial Waveform | 518 | ||
Leveling and Zeroing | 519 | ||
References | 519 | ||
Key References | 497 | ||
References | 497 | ||
25 Vasopressors and Inotropes | 520 | ||
Abstract | 520.e1 | ||
Keywords | 520.e1 | ||
Chapter Outline | 520 | ||
Historical Perspective | 520 | ||
Structure-Activity Relationships | 521 | ||
Mechanisms | 522 | ||
Metabolism/Pharmacokinetics | 523 | ||
Pharmacodynamics and Drug Interactions | 523 | ||
Pharmacogenetics | 523 | ||
Individual Drugs | 525 | ||
Epinephrine | 525 | ||
Isoproterenol | 526 | ||
Norepinephrine | 526 | ||
Dopamine | 526 | ||
Dobutamine | 527 | ||
Milrinone | 527 | ||
Phenylephrine | 528 | ||
Vasopressin | 528 | ||
Ephedrine | 529 | ||
Digoxin | 529 | ||
Rational Drug Selection | 529 | ||
Septic Shock | 529 | ||
Cardiac Arrest | 529 | ||
Mild, Intraoperative Hypotension | 529 | ||
Hypotension in the Parturient | 529 | ||
Right Heart Failure | 530 | ||
Postbypass Hypotension | 530 | ||
Emerging Developments | 531 | ||
Key Points | 531 | ||
Key References | 531 | ||
References | 532 | ||
26 Antihypertensive Drugs and Vasodilators | 535 | ||
Abstract | 535.e1 | ||
Keywords | 535.e1 | ||
Chapter Outline | 535 | ||
Historical Perspective | 536 | ||
Sites and Mechanisms of Antihypertensive and Vasodilator Drugs | 537 | ||
Basic Pharmacology and Mechanisms of Action of Individual Drug Classes | 538 | ||
Calcium Channel Blockers | 538 | ||
β Blockers | 538 | ||
Action of β Blockers at Adrenergic Receptors | 539 | ||
Angiotensin-Converting Enzyme Inhibitors and Angiotensin Receptor Antagonists | 539 | ||
Diuretics | 540 | ||
Centrally Acting Agents | 540 | ||
α2 Adrenoreceptor Agonists | 541 | ||
α1 Adrenoreceptor Antagonists | 541 | ||
Nitrovasodilators | 541 | ||
Other Vasodilators | 542 | ||
Pharmacokinetics, Pharmacodynamics, and Adverse Effects | 543 | ||
Calcium Channel Blockers | 543 | ||
Adverse Drug Interactions | 544 | ||
Newer Calcium Channel Blockers | 544 | ||
β Blockers | 544 | ||
Antihypertensive Effect of β Blockers | 545 | ||
Newer β Blockers | 545 | ||
Adverse Effects of β Blockers | 545 | ||
Angiotensin-Converting Enzyme Inhibitors | 546 | ||
Angiotensin II Receptor Antagonists | 546 | ||
Adverse Effects and Drug Interactions | 546 | ||
Diuretics | 546 | ||
Adverse Effects and Drug Interactions | 547 | ||
α2 Adrenoreceptor Agonists | 547 | ||
α1 Adrenoreceptor Antagonists | 547 | ||
Phentolamine and Phenoxybenzamine | 547 | ||
Vasodilators | 547 | ||
Hydralazine | 547 | ||
Nicorandil | 548 | ||
Minoxidil | 548 | ||
Nitrates | 548 | ||
Phosphodiesterase Inhibitors | 548 | ||
Pharmacotherapy of Hypertension | 548 | ||
Hypertension and Anesthesia | 549 | ||
Pulmonary Vasodilators | 549 | ||
Phosphodiesterase Inhibitors | 550 | ||
Novel Pulmonary Vasodilators | 550 | ||
Emerging Developments | 550 | ||
New Management Guidelines for Hypertension | 550 | ||
Direct Renin Inhibitors | 551 | ||
Natriuretic Peptides | 551 | ||
Endothelin and Endothelin Blockade | 551 | ||
Key Points | 552 | ||
Key References | 553 | ||
References | 553 | ||
27 Antiarrhythmic Drugs | 556 | ||
Abstract | 556.e1 | ||
Chapter Outline | 556 | ||
Historical Perspective | 556 | ||
Basic Pharmacology | 557 | ||
Singh-Vaughan Williams Classification of Antiarrhythmic Drugs | 557 | ||
Sodium Channels and Class I Antiarrhythmic Drugs | 557 | ||
β Receptors and Class II Antiarrhythmics | 560 | ||
Potassium Channels and Class III Antiarrhythmic Drugs | 560 | ||
Calcium Channels and Class IV Antiarrhythmics | 563 | ||
Clinical Pharmacology | 564 | ||
Categories of Arrhythmogenic Mechanisms | 564 | ||
Automaticity | 564 | ||
Triggered | 564 | ||
Conduction | 564 | ||
Clinical Application | 565 | ||
Class I—Sodium Channel Blockers | 565 | ||
Class Ia Nav Channel Blockers | 565 | ||
Class Ib Nav Channel Blockers | 566 | ||
Class Ic Nav Channel Blockers | 566 | ||
Class II—β Blockers | 567 | ||
Class III—Potassium Channel Blockers | 567 | ||
Class IV—Calcium Channel Blockers | 568 | ||
Emerging Developments | 569 | ||
Molecular Genetics of Arrhythmias | 569 | ||
Long QT Syndrome | 569 | ||
Short QT Syndrome | 570 | ||
Brugada Syndrome | 570 | ||
Other Inherited Arrhythmia Syndromes | 570 | ||
hERG Drug Interactions | 570 | ||
Gene Therapy Guided by Molecular Genetics of Inherited Arrhythmias | 571 | ||
Key Points | 571 | ||
Key References | 572 | ||
References | 572 | ||
28 Cardiopulmonary Resuscitation | 575 | ||
Abstract | 575.e1 | ||
Keywords | 575.e1 | ||
Chapter Outline | 575 | ||
Historical Perspective | 575 | ||
Oxygen Delivery, Consumption, and the Margin of Error | 575 | ||
Compensated Hypovolemia and Supply-Dependent Oxygen Consumption | 576 | ||
Early Goal-Directed Therapy | 576 | ||
Cardiopulmonary Resuscitation | 577 | ||
Compression and Decompression | 577 | ||
Ventilation and Blood Flow During CPR | 577 | ||
CPR and Intracranial Pressure | 578 | ||
Optimizing Chest Compression/Decompression | 579 | ||
Automated Chest Compression Devices | 580 | ||
Targeted Temperature Management After Resuscitation | 581 | ||
Emerging Developments | 582 | ||
Extracorporeal Life Support for Refractory Cardiac Arrest | 582 | ||
Key Points | 583 | ||
Key References | 583 | ||
References | 583 | ||
IV Pulmonary System | 585 | ||
29 Pulmonary Physiology | 586 | ||
Abstract | 586.e1 | ||
Keywords: | 586.e1 | ||
Chapter Outline | 586 | ||
Pulmonary Ventilation | 586 | ||
Muscles of Ventilation | 586 | ||
The Airway | 587 | ||
Cellular Physiology | 587 | ||
Neural Control | 587 | ||
Humoral Control | 587 | ||
Physical and Chemical Effects | 587 | ||
Local Cellular Mechanisms | 588 | ||
Molecular Physiology | 588 | ||
Bronchodilator Pathway | 589 | ||
Bronchoconstrictor Pathway | 589 | ||
Bronchoconstriction in Airway Disease | 589 | ||
Oxygenation | 590 | ||
Ventilation and Perfusion Relationships | 590 | ||
Distribution of Ventilation | 590 | ||
Distribution of Perfusion | 590 | ||
Ventilation in Relation to Perfusion | 591 | ||
Shunt | 591 | ||
Effects of General Anesthesia | 591 | ||
Active Control of Pulmonary Vascular Resistance | 592 | ||
Hypoxic Pulmonary Vasoconstriction | 592 | ||
Cellular Physiology of Hypoxic Pulmonary Vasoconstriction | 592 | ||
Molecular Physiology | 592 | ||
Control of Breathing | 593 | ||
Respiratory Center | 593 | ||
Central Pattern Generation | 593 | ||
Connections to the Respiratory Center | 593 | ||
Molecular Physiology | 594 | ||
Chemical Control of Ventilation | 594 | ||
Central Chemoreceptors | 594 | ||
Peripheral Chemoreceptors | 594 | ||
Molecular Physiology | 595 | ||
Ventilatory Response to Sustained Hypoxia | 595 | ||
Emerging Developments | 595 | ||
Carbon Dioxide Oscillations and Control of Ventilation | 595 | ||
Asthma Phenotypes and Targeted Therapies | 596 | ||
Remodeling of Airways | 596 | ||
Key Points | 597 | ||
Anatomy and Imaging: The Thoracic Wall, Intercostal Space, and Thorax | 599 | ||
Physics: Blood Gas Measurement | 603 | ||
Outline | 603 | ||
Background | 603 | ||
Blood Gas Measurement Instrumentation | 603 | ||
Measurement of Oxygen Tension: Clarke (Polarographic) Oxygen Electrode | 603 | ||
Measurement of pH: Glass Electrode | 603 | ||
Measurement of pCO2: the Severinghaus Electrode | 604 | ||
Sampling for Blood Gas Analysis | 605 | ||
References | 605 | ||
Physics: Regulators, Medical Gas Cylinders, and Pressure Measurement of Gases | 606 | ||
Outline | 606 | ||
Background | 606 | ||
Medical Gas Cylinders | 606 | ||
Medical Gas Cylinder Safety | 606 | ||
Estimating the Remaining Volume | 606 | ||
Pressure Measurement and Regulation of Gases | 607 | ||
References | 608 | ||
Physics: Pulse Oximetry | 609 | ||
Outline | 609 | ||
Background | 609 | ||
Pulse Oximetry Probe | 609 | ||
Principle | 609 | ||
Limitations of Pulse Oximetry | 610 | ||
References | 612 | ||
Key References | 597 | ||
References | 597 | ||
30 Pulmonary Pharmacology | 613 | ||
Abstract | 613.e1 | ||
Keywords | 613.e1 | ||
Chapter Outline | 613 | ||
β2-Adrenoceptor Agonists | 614 | ||
Structure-Activity | 614 | ||
Mechanism and Metabolism | 614 | ||
Clinical Pharmacology | 615 | ||
Pharmacokinetics, Pharmacodynamics, and Therapeutic Effects | 615 | ||
Adverse Effects | 615 | ||
Drug Interactions | 616 | ||
Clinical Application | 616 | ||
Common Applications | 616 | ||
Rationale Drug Selection and Administration | 616 | ||
Anticholinergics | 616 | ||
Structure-Activity | 616 | ||
Mechanism and Metabolism | 616 | ||
Clinical Pharmacology | 616 | ||
Pharmacokinetics, Pharmacodynamics, and Therapeutic Effects | 616 | ||
Adverse Effects | 616 | ||
Clinical Application | 617 | ||
Common Applications | 617 | ||
Inhaled Corticosteroids | 619 | ||
Structure-Activity | 619 | ||
Mechanism and Metabolism | 619 | ||
Clinical Pharmacology | 619 | ||
Pharmacokinetics, Pharmacodynamics, and Therapeutic Effects (Table 30.2) | 619 | ||
Adverse Effects | 620 | ||
Drug Interactions | 620 | ||
Clinical Application | 620 | ||
Common Applications | 620 | ||
Methylxanthines and Phosphodiesterase Inhibitors | 620 | ||
Structure-Activity | 620 | ||
Mechanism and Metabolism | 620 | ||
Clinical Pharmacology | 621 | ||
Pharmacokinetics, Pharmacodynamics, and Therapeutic Effects | 621 | ||
Adverse Effects | 621 | ||
Drug Interactions | 621 | ||
Special Populations | 621 | ||
Clinical Application | 621 | ||
Common Applications | 621 | ||
Leukotriene Receptor Inhibitors and 5-Lipoxygenase Inhibitors | 621 | ||
Structure-Activity | 621 | ||
Mechanism | 621 | ||
Clinical Pharmacology | 622 | ||
Pharmacokinetics, Pharmacodynamics, and Metabolism | 622 | ||
Drug Interactions | 622 | ||
Clinical Application | 622 | ||
Common Applications | 622 | ||
Monoclonal Antibodies | 622 | ||
Structure-Activity | 622 | ||
Mechanism and Metabolism | 622 | ||
Clinical Pharmacology | 623 | ||
Pharmacokinetics, Pharmacodynamics, and Therapeutic Effects | 623 | ||
Adverse Effects | 623 | ||
V Gastrointestinal and Endocrine Systems | 629 | ||
31 Liver and Gastrointestinal Physiology | 630 | ||
Chapter Outline | 630 | ||
Liver | 630 | ||
Anatomy | 630 | ||
Blood Supply | 631 | ||
Liver Function | 631 | ||
Storage | 631 | ||
Filtering and Cleansing | 632 | ||
Metabolism of Nutrients | 632 | ||
Synthesis of Coagulation Factors | 632 | ||
Bile Secretion | 632 | ||
Bilirubin and Jaundice | 632 | ||
Liver Regeneration | 632 | ||
Portal Hypertension | 633 | ||
Hepatic Drug Metabolism and Excretion | 633 | ||
Anesthetic Pharmacology and the Liver | 634 | ||
Liver Disease: Etiologies and Severity | 634 | ||
Cirrhosis and Perioperative Risk: Nonhepatic Surgery | 634 | ||
Hepatic Surgery | 635 | ||
Gastrointestinal Tract | 635 | ||
Anatomy | 635 | ||
Properties of the Gastrointestinal Tract | 635 | ||
Respiration and Pharyngeal Swallowing | 635 | ||
Lower Esophageal Sphincter | 635 | ||
Neural Control | 636 | ||
Enteric Nervous System | 636 | ||
Parasympathetic Stimulation | 636 | ||
Sympathetic Stimulation | 636 | ||
Hormonal Control | 636 | ||
Splanchnic Circulation | 636 | ||
Stomach Emptying | 636 | ||
Enterogastric Nervous Reflex | 636 | ||
Secretory Functions | 637 | ||
Autonomic Stimulation | 637 | ||
Gastric Secretions | 637 | ||
Pancreatic Digestive Enzymes | 638 | ||
Bicarbonate | 638 | ||
Absorption of Nutrients | 638 | ||
Glucose | 638 | ||
Fats | 638 | ||
Gastrointestinal Disorders | 638 | ||
Anesthetic Pharmacology and the Gastrointestinal Tract | 640 | ||
Emerging Developments | 640 | ||
Tissue Engineering | 640 | ||
Key Points | 642 | ||
Key References | 642 | ||
References | 642 | ||
32 Liver and Gastrointestinal Pharmacology | 645 | ||
Abstract | 645.e1 | ||
Keywords | 645.e1 | ||
Chapter Outline | 645 | ||
Liver Pharmacology | 645 | ||
Cytochrome P450 Enzymes | 645 | ||
Hepatic Extraction | 645 | ||
Plasma Protein Binding | 647 | ||
Anesthetic Drugs and the Liver | 647 | ||
Anesthetic Agents and Hepatic Blood Flow | 647 | ||
Metabolism of Volatile Anesthetics and Hepatotoxicity | 647 | ||
Metabolism of Intravenous Anesthetic Agents | 647 | ||
Hepatobiliary Metabolism and Elimination of Neuromuscular Blockers | 648 | ||
Gastrointestinal Pharmacology | 648 | ||
Basic Principles | 648 | ||
Gastric Acid–Suppressing Medications | 648 | ||
Drugs to Reduce Portal Venous Pressure | 649 | ||
Opioids and the Gastrointestinal System | 650 | ||
Sphincter of Oddi Spasm | 651 | ||
Statins | 651 | ||
Other Treatments for Dyslipidemia | 651 | ||
Hepatitis C Treatment | 651 | ||
Emerging Developments | 651 | ||
Suppression of Gastric Acid Secretion | 651 | ||
Direct-Acting Antivirals for Hepatitis C Treatment | 652 | ||
PCSK9 Inhibitors for Dyslipidemia | 652 | ||
Obeticholic Acid | 652 | ||
Key Points | 652 | ||
Key References | 653 | ||
References | 653 | ||
33 Nutritional and Metabolic Therapy | 657 | ||
Abstract | 657.e1 | ||
Keywords | 657.e1 | ||
Chapter Outline | 657 | ||
Fasting in the Perioperative Period | 657 | ||
Benefits of Early Enteral Feeding | 658 | ||
Timing of Nutrient Delivery | 658 | ||
Pharmaconutrition-Immunonutrition | 659 | ||
Specific Nutrients | 660 | ||
Glutamine | 660 | ||
Clinical Outcome Studies Using Glutamine | 661 | ||
Arginine | 661 | ||
Clinical Outcome Studies Using Arginine | 662 | ||
Recommendations Regarding Delivery of Arginine | 663 | ||
Omega-3 Fatty Acids | 663 | ||
Clinical Outcome Studies Using 20 and 22 Carbon Omega-3 Fatty Acids | 664 | ||
Recommendations Regarding Delivery of Omega-3 Fatty Acids | 664 | ||
Timing of Delivery of Nutrients as Pharmacologic Agents | 665 | ||
Use of Protocols Enhance Safe Delivery of Nutrients | 665 | ||
Emerging Developments | 665 | ||
New Malnutrition Definitions and Other Nutrients | 665 | ||
Probiotics | 666 | ||
Conclusion | 666 | ||
Key Points | 667 | ||
Key References | 667 | ||
References | 667 | ||
34 Pharmacology of Postoperative Nausea and Vomiting | 671 | ||
Abstract | 671.e1 | ||
Keywords | 671.e1 | ||
Chapter Outline | 671 | ||
Historical Perspective | 671 | ||
Mechanisms of Nausea and Vomiting | 672 | ||
Serotonin Receptor Antagonists | 673 | ||
Ondansetron | 673 | ||
Granisetron and Dolasetron | 673 | ||
Palonosetron | 676 | ||
Dopamine Receptor Antagonists | 678 | ||
Droperidol | 678 | ||
Haloperidol | 679 | ||
Metoclopramide | 679 | ||
Corticosteroids | 679 | ||
NK1 Receptor Antagonists | 680 | ||
Aprepitant | 681 | ||
Scopolamine | 682 | ||
H1-Receptor Antagonists | 683 | ||
Dimenhydrinate and Diphenhydramine | 683 | ||
Promethazine | 684 | ||
GABA Receptor Agonists | 684 | ||
Propofol | 684 | ||
Benzodiazepines | 685 | ||
Opioid Receptor Antagonists | 685 | ||
Naloxone | 685 | ||
Alvimopan | 686 | ||
Cannabinoids | 687 | ||
Risk-Based Prophylaxis | 687 | ||
Enhanced Recovery After Surgery | 687 | ||
Multimodal Therapy | 687 | ||
Emerging Developments | 688 | ||
Novel Antiemetic Drugs | 688 | ||
Postdischarge Nausea and Vomiting | 688 | ||
Key Points | 689 | ||
Key References | 689 | ||
References | 690 | ||
35 Endocrine Physiology | 693 | ||
Abstract | 693.e1 | ||
Keywords | 693.e1 | ||
Chapter Outline | 693 | ||
Pituitary Physiology | 693 | ||
Anterior Pituitary | 693 | ||
Hyperpituitarism and Anterior Lobe Tumors | 694 | ||
Gigantism and Acromegaly | 694 | ||
Cushing Disease | 694 | ||
Prolactinomas | 695 | ||
Posterior Pituitary | 695 | ||
Diabetes Insipidus and Syndrome of Inappropriate Antidiuretic Hormone | 695 | ||
Parathyroid Physiology | 696 | ||
Primary Hyperparathyroidism | 697 | ||
Multiple Endocrine Neoplasia | 697 | ||
Secondary Hyperparathyroidism | 697 | ||
Hypoparathyroidism | 697 | ||
Thyroid Physiology | 698 | ||
Hypothyroidism | 698 | ||
Hyperthyroidism | 699 | ||
Thyroiditis | 699 | ||
Adrenal Gland Physiology | 700 | ||
Adrenal Cortex Physiology | 700 | ||
Cushing Syndrome | 700 | ||
Glucocorticoid Deficiency | 701 | ||
Hyperaldosteronism | 701 | ||
Hypoaldosteronism | 701 | ||
Adrenal Medulla Physiology | 702 | ||
Pheochromocytoma | 702 | ||
Pancreas Physiology | 703 | ||
Diabetes Mellitus | 704 | ||
Emerging Developments | 704 | ||
Key Points | 705 | ||
Key References | 706 | ||
References | 706 | ||
36 Endocrine Pharmacology | 708 | ||
Abstract | 708.e1 | ||
Keywords | 708.e1 | ||
Chapter Outline | 708 | ||
Drugs to Treat Disorders of the Endocrine Pancreas | 709 | ||
Insulin | 709 | ||
Basic Pharmacology | 709 | ||
Clinical Pharmacology | 709 | ||
Individual Insulin Preparations | 710 | ||
Regular Insulin | 710 | ||
Rapidly Acting Insulin Analogues | 711 | ||
Intermediate-Acting Insulin | 711 | ||
Long-Acting Insulins | 711 | ||
Inhaled Insulin | 711 | ||
Clinical Application | 711 | ||
Oral Hypoglycemic Agents: Sulfonylureas, Biguanides, Thiazolidinediones | 712 | ||
Basic Pharmacology | 712 | ||
VI Immunity and Infection | 752 | ||
38 Chemotherapy, Immunosuppression, and Anesthesia | 753 | ||
Abstract | 753.e1 | ||
Keywords | 753.e1 | ||
Chapter Outline | 753 | ||
Chemotherapy | 753 | ||
Drugs That Cause DNA/RNA Damage | 754 | ||
Alkylating Agents | 754 | ||
Antimetabolites | 754 | ||
Antineoplastic Antibiotics | 754 | ||
Topoisomerase Inhibitors | 757 | ||
Drugs That Suppress Proliferation: Microtubule-Binding Agents | 758 | ||
Molecular Therapies, Growth Inhibitors, and Targeted Therapies | 759 | ||
Monoclonal Antibodies | 762 | ||
Antimetastasis Therapy | 764 | ||
Immunotherapy | 764 | ||
How Anesthetics Might Affect Cancer | 765 | ||
Opioids | 765 | ||
Volatile Anesthetics | 765 | ||
Propofol | 765 | ||
Local Anesthetics | 766 | ||
Other Factors | 766 | ||
Key Points | 766 | ||
Key References | 767 | ||
References | 767 | ||
39 Infection, Antimicrobial Drugs, and Anesthesia | 769 | ||
Abstract | 769.e1 | ||
Keywords | 769.e1 | ||
Chapter Outline | 769 | ||
Historical Perspective | 769 | ||
Introduction | 769 | ||
Surgical Antibiotic Prophylaxis | 770 | ||
Clinical Pharmacology of Common Perioperative Antimicrobial Agents | 772 | ||
Beta-Lactam Antibiotics | 772 | ||
Penicillins | 772 | ||
Cephalosporins | 772 | ||
Monobactams (Aztreonam) | 772 | ||
Carbapenems (Doripenem, Ertapenem, Imipenem, and Meropenem) | 772 | ||
Aminoglycosides (Including Streptomycin, Neomycin, Kanamycin, Amikacin, Gentamicin, and Tobramycin) | 772 | ||
Fluoroquinolones | 773 | ||
Vancomycin | 773 | ||
Clindamycin | 773 | ||
Metronidazole | 773 | ||
Amphotericin B | 773 | ||
Selection of Antimicrobial Agents for SSI Prevention | 773 | ||
Dosing and Administration of Prophylactic Antibiotics | 774 | ||
Clostridium Difficile Infection | 774 | ||
Cost Containment | 776 | ||
Summary | 776 | ||
Emerging Developments | 776 | ||
Key Points | 777 | ||
Key References | 778 | ||
References | 778 | ||
VII Fluid, Electrolyte, and Hematologic Homeostasis | 781 | ||
40 Renal Physiology | 782 | ||
Abstract | 782.e1 | ||
Keywords | 782.e1 | ||
Chapter Outline | 782 | ||
Renal Blood Flow and Glomerular Filtration Rate | 782 | ||
Renal Blood Flow | 782 | ||
Renal Clearance | 782 | ||
Renal Plasma Flow | 783 | ||
Glomerular Filtration Rate | 783 | ||
Age-Related Renal Changes | 783 | ||
The Nephron | 784 | ||
Water and the Kidney | 784 | ||
Salt and the Kidney | 784 | ||
Potassium and the Kidney | 785 | ||
Toxin and Metabolite Excretion | 787 | ||
Acid–Base Balance | 787 | ||
Renal Hormone Production | 787 | ||
Defining Renal Failure | 787 | ||
Risk of Perioperative Acute Kidney Injury | 788 | ||
Acute Kidney Injury in Surgical Patients | 788 | ||
Assessment and Management of Acute Kidney Injury | 789 | ||
Preoperative Approach | 789 | ||
Intraoperative Management of Renal Function | 789 | ||
Anesthetic Drugs and Impaired Renal Function | 790 | ||
Common Perioperative Medications That Impair Renal Function | 790 | ||
Perioperative Renal Replacement Therapy | 790 | ||
Hepatorenal Syndrome | 791 | ||
Emerging Developments | 791 | ||
Prevention and Biomarkers for Acute Kidney Injury | 791 | ||
Key Points | 792 | ||
Key References | 792 | ||
References | 793 | ||
41 Intravascular Volume Replacement Therapy | 795 | ||
Abstract | 795.e1 | ||
Key words | 795.e1 | ||
Chapter Outline | 795 | ||
Historical Perspective | 795 | ||
Conventional Concepts | 796 | ||
Body Water | 796 | ||
Measurement of Body Fluid Spaces | 796 | ||
Maintenance Requirements for Water, Sodium, and Potassium | 796 | ||
Interstitium | 797 | ||
Third Space | 798 | ||
Fluid Shifts and Losses During Surgery, and Their Replacement | 799 | ||
Conventional Indices of Resuscitation | 799 | ||
Response to Fluid Challenge | 800 | ||
Static Measurements of Intravascular Volume | 800 | ||
Pulmonary Artery Occlusion Pressure | 800 | ||
Transesophageal Echocardiography | 800 | ||
Intrathoracic Blood Volume Index and Global End-Diastolic Volume Index | 800 | ||
Stroke Volume Variation and Pulse Pressure Variation | 800 | ||
Esophageal Doppler Catheter | 801 | ||
Passive Leg Raising Test | 801 | ||
Oxygen Delivery and the Microcirculation | 801 | ||
Body Fluid Dynamics (Modeling Fluid Therapy) | 801 | ||
Plasma Volume Expansion | 802 | ||
Volume Kinetics for Infusion Fluids | 803 | ||
Estimation of Volume Kinetic Parameters | 805 | ||
Population Kinetics for Infusion Fluids | 805 | ||
Pharmacodynamics of Infusion Fluids | 805 | ||
Guiding Principles and Clinical Implications | 806 | ||
Crystalloids | 806 | ||
Colloids | 807 | ||
Sepsis and Critical Illness | 809 | ||
Clinical Fluid Therapy Guidelines | 809 | ||
Basal Requirements and Rehydration | 809 | ||
Day Surgery Cases: Minor Surgery | 809 | ||
Surgery Performed With Spinal or Epidural Block | 809 | ||
Gastrointestinal Surgery | 809 | ||
Emerging Developments | 809 | ||
Key Points | 810 | ||
Key References | 810 | ||
References | 810 | ||
42 Electrolytes and Diuretics | 814 | ||
Abstract | 814.e1 | ||
Keywords | 814.e1 | ||
Chapter Outline | 814 | ||
Electrolytes | 814 | ||
Sodium | 814 | ||
Physiologic Role | 814 | ||
Hyponatremia | 814 | ||
Hypernatremia | 818 | ||
Potassium | 820 | ||
Physiologic Role | 820 | ||
Hypokalemia | 820 | ||
Hyperkalemia | 821 | ||
Calcium | 822 | ||
Physiologic Role | 822 | ||
Hypocalcemia | 823 | ||
Hypercalcemia | 825 | ||
Phosphate | 826 | ||
Physiologic Role | 826 | ||
Hypophosphatemia | 826 | ||
Hyperphosphatemia | 827 | ||
Magnesium | 827 | ||
Physiologic Role | 827 | ||
Hypomagnesemia | 827 | ||
Hypermagnesemia | 828 | ||
Diuretics | 828 | ||
Proximal Convoluted Tubule–Carbonic Anhydrase Inhibitors | 829 | ||
Ascending Loop of Henle: Loop Diuretics | 829 | ||
Thiazides | 830 | ||
Potassium-Sparing Diuretics | 830 | ||
Osmotic Diuretics | 830 | ||
Diuretics in Heart Failure | 830 | ||
Adverse Effects of Diuretics | 831 | ||
Volume Depletion | 831 | ||
Azotemia | 831 | ||
Hypokalemia | 831 | ||
Hyponatremia | 831 | ||
Emerging Developments | 832 | ||
Key Points | 832 | ||
Key References | 832 | ||
References | 833 | ||
VIII Blood and Hemostasis | 836 | ||
43 Blood and Coagulation | 837 | ||
Abstract | 837.e1 | ||
Keywords | 837.e1 | ||
Chapter Outline | 837 | ||
Normal Hemostatic Mechanisms | 837 | ||
Hypercoagulability | 838 | ||
Inherited Risk Factors | 838 | ||
Increased Procoagulant Effects | 838 | ||
Reduction of Natural Anticoagulant Factors | 838 | ||
Fibrinolysis Modulation | 839 | ||
Other Inherited Conditions | 840 | ||
Acquired Risk Factors | 840 | ||
Disease States Associated With Hypercoagulability | 841 | ||
Heparin-Induced Thrombocytopenia | 841 | ||
Hypocoagulability: Perioperative Bleeding | 842 | ||
Risk Factors for Bleeding | 842 | ||
Patient-Related Causes of Bleeding | 842 | ||
Common Inherited Hemostatic Disorders | 842 | ||
Physician-Related Factors | 843 | ||
Procedure-Related Factors | 843 | ||
Pharmacologic Factors | 843 | ||
Disorders of Hemostasis: Disseminated Intravascular Coagulation | 843 | ||
Thrombocytopenia | 843 | ||
Coagulopathy | 843 | ||
Fibrinogen Consumption | 843 | ||
Reductions in Coagulation Inhibitors | 844 | ||
Fibrinolysis Indicators | 844 | ||
Hemostatic Testing | 844 | ||
Point-of-Care Coagulation Testing | 844 | ||
Transfusion Algorithms and Massive Transfusion | 845 | ||
Blood Conservation | 845 | ||
Key Points | 846 | ||
Key References | 846 | ||
References | 847 | ||
44 Transfusion and Coagulation Therapy | 849 | ||
Chapter Outline | 849 | ||
Hemoglobin and Volume Replacement Therapies | 849 | ||
Historical Aspects of Transfusion | 849 | ||
Packed Red Blood Cells | 850 | ||
Clinical Uses | 850 | ||
Side Effects | 850 | ||
Erythropoietin | 851 | ||
Side Effects | 851 | ||
Blood Substitutes | 851 | ||
Albumin | 851 | ||
Synthetic Colloids | 852 | ||
Hemostatic Interventions and Coagulation Therapies | 852 | ||
Platelet Concentrates | 852 | ||
Clinical Uses | 853 | ||
Side Effects | 854 | ||
Plasma | 855 | ||
Solvent-Detergent (S/D) Plasma | 855 | ||
Lyophilized Plasma | 855 | ||
Clinical Uses | 856 | ||
Side Effects | 856 | ||
Cryoprecipitate | 857 | ||
Clinical Uses | 857 | ||
Side Effects | 857 | ||
Fibrinogen Concentrate | 858 | ||
Clinical Use | 858 | ||
Index | 895 | ||
A | 895 | ||
B | 898 | ||
C | 899 | ||
D | 902 | ||
E | 903 | ||
F | 904 | ||
G | 904 | ||
H | 905 | ||
I | 907 | ||
J | 908 | ||
K | 908 | ||
L | 909 | ||
M | 910 | ||
N | 911 | ||
O | 913 | ||
P | 914 | ||
Q | 917 | ||
R | 917 | ||
S | 918 | ||
T | 919 | ||
U | 921 | ||
V | 921 | ||
W | 922 | ||
X | 922 | ||
Z | 922 | ||
Inside Back Cover | ibc1 |