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Front Cover
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Advances in Pharmacology: Anesthesia and Cardiovascular Disease
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Cpopyright Page
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Contents
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Contributors
22
Preface
30
Part I: Cardiac Muscle
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Chapter 1. Regulation of the Calcium Slow Channels of Heart by Cyclic Nucleotides and Effects of Ischemia
32
I. Introduction
32
II. Types of Calcium Channels
33
III. Cyclic AMP Stimulation of Slow Calcium Channels
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IV. Phosphorylation Hypothesis
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V. Protein Kinase A Stimulation
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VI. Cyclic GMP Inhibition of Slow Calcium Current
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VII. Protein Kinase G Inhibition
45
VIII. Inhibition by Muscarinic Agonists
47
IX. Protein Kinase C and Calmodulin Protein Kinase
49
X. Comparison with Vascular Smooth Muscle and Skeletal Muscle
49
XI. Direct Stimulation of Slow Calcium Channels by Gs Proteins and ß-Receptors
51
XII. Summary
51
References
52
Chapter 2. Functional Adaptation to Myocardial Ischemia: Interaction with Volatile Anesthetics in Chronically Instrumented Dogs
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I. Introduction
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II. Chronic Instrumentation and Monitoring
57
III. Effects of Ischemic Preconditioning on Functional Recovery from Stunning in Conscious Dogs
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IV. Discussion
62
References
67
Chapter 3. Excitation–Contraction Uncoupling and Vasodilators for Long-Term Cold Preservation of Isolated Hearts
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I. Introduction
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II. Long-Term Cardiac Perfusion
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III. Preservation of Isolated Hearts
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IV. Discussion
85
References
90
Chapter 4. Troponin T as a Marker of Perioperative Myocardial Cell Damage
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I. Introduction
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II. Cardiac Troponin
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III. Troponin T in Coronary Artery Bypass Patients with Unstable Angina
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IV. Troponin T versus Conventional Markers of Myocardial Cell Damage in Perioperative Settings
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V. Summary
102
References
103
Chapter 5. Silent Myocardial Ischemia: Pathophysiology and Perioperative Management
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I. Introduction
106
II. Pathophysiology of Silent Myocardial Ischemia
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III. Detection of Silent Myocardial Ischemia
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IV. Which Laboratory Methods Should Be Used for Screening Purposes?
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V. Perioperative Medical Management of Silent Myocardial Ischemia
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VI. Summary
116
References
116
Chapter 6. Effect of Halothane on Sarcolemmal Calcium Channels during Myocardial Ischemia and Reperfusion
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I. Introduction
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II. Canine Model for Myocardial Ischemia and Reperfusion
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III. Isolation of Sarcolemma-Enriched Preparation
123
IV. Binding Capacity of Isradipine
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V. Summary
126
References
126
Chapter 7. Myocardial Ischemic Preconditioning
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I. Introduction
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II. Myocardial Ischemia
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III. Effects on Infarct Size
134
IV. Discussion
137
References
138
Chapter 8. Effects of Hypoxia/Reoxygenation on Intracellular Calcium Ion Homeostasis in Ventricular Myocytes during Halothane Exposure
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I. Introduction
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II. Intracellular Calcium Measurements
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III. Effects of Hypoxia, with or without Halothane, on Myocyte Morphology
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IV. Effects of Hypoxia, with or without Halothane, on Intracellular Calcium
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V. Effects of Hypoxia, with or without Halothane, on Electrically Induced Calcium Transients
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VI. Effects of Hypoxia, with or without Halothane, on Caffeine-Induced Calcium Transients
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VII. Discussion
148
References
153
Chapter 9. Mechanical Consequences of Calcium Channel Modulation during Volatile Anesthetic-Induced Left Ventricular Systolic and Diastolic Dysfunction
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I. Introduction
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II. Materials and Methods
158
III. Effects of Anesthetics and Calcium Channel Modulation
161
IV. Discussion
166
References
170
Chapter 10. Anesthetic Actions on Calcium Uptake and Calcium-Dependent Adenosine Triphosphatase Activity of Cardiac Sarcoplasmic Reticulum
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I. Introduction
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II. Sarcoplasmic Reticulum
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III. Calcium Uptake and ATPase Activity
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IV. Discussion
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References
193
Chapter 11. Interaction of Anesthetics and Catecholamines on Conduction in the Canine His–Purkinje System
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I. Introduction
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II. Catecholamine–Anesthetic Interaction
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III. Summary
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References
212
Chapter 12. Anesthetics, Catecholamines, and Ouabain on Automaticity of Primary and Secondary Pacemakers
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I. Introduction
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II. Isolated and Chronic Atrial Preparations
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III. Anesthetic Interactions with Ouabain and Catecholamines
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IV. Discussion
228
V. Conclusions
234
VI. Future Directions
234
References
234
Chapter 13. The Role of L-Type Voltage-Dependent Calcium Channels in Anesthetic Depression of Contractility
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I. Introduction
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II. Isolated Heart Preparation
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III. Effects of Anesthetics on Isradipine Binding
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IV. Discussion
244
References
245
Chapter 14. Effects of Inhibition of Transsarcolemmal Calcium Influx on Content and Releasability of Calcium Stored in Sarcoplasmic Reticulum of Intact Myocardium
246
I. Introduction
246
II. Isolated Papillary Muscle Preparation
247
III. Calcium Influx and Release
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IV. Discussion
251
References
251
Chapter 15. Arrhythmogenic Effect of Inhalation Anesthetics: Biochemical Heterogeneity between Conduction and Contractile Systems and Protein Unfolding
254
I. Introduction
254
II. Cyclic AMP and the Conduction System
255
III. Myocardial Sensitizing Agents and Phosphodiesterase
256
IV. Mode of Anesthetic–Protein Interaction
257
V. Unfolding of Proteins
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VI. Specific Binding: Lack of Definition
262
References
263
Part II: Coronary Circulation
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Chapter 1. Potassium Channel Current and Coronary Vasodilatation by Volatile Anesthetics
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I. Introduction
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II. Isolated Vessel Ring Experiments
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III. Patch Clamp Experiments
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IV. Effects of Anesthetics on Isolated Coronary Vessels
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V. Effects of Anesthetics on Whole-Cell Potassium Current
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VI. Effects of Anesthetics on Single Potassium Channel Current
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VII. Discussion
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References
282
Chapter 2. Potassium Channel Opening and Coronary Vasodilation by Halothane
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I. Introduction
284
II. Isolated Coronary Vessel Preparation
285
III. Effects of Endothelin
289
IV. Effects of Methacholine
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V. Effects of Potassium
294
VI. Discussion
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References
297
Chapter 3. Volatile Anesthetics and Coronary Collateral Circulation
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I. Introduction
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II. Chronic Animal Instrumentation
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III. Regional Myocardial Function and Perfusion
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IV. Coronary Steal Prone Anatomy Model
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V. Hemodynamic Effects of' Isoflurane, Sevoflurane, and Adenosine
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VI. Regional Myocardial Perfusion: Isoflurane, Sevoflurane, and Adenosine
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VII. Discussion
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References
314
Chapter 4. Myocardial Oxygen Supply–Demand Relations during Isovolemic Hemodilution
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I. Introduction
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II. Experimental Studies
317
III. Summary
342
References
342
Part III: Cellular Targets
344
Chapter 1. Plasma Membrane Ca2+-ATPase as a Target for Volatile Anesthetics
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I. Introduction
344
II. Isolation and Activity Assay of Ca2+-ATPase
346
III. Effects of Anesthetics
347
IV. Discussion
351
References
352
Chapter 2. Enhancement of Halothane Action at the Ryanodine Receptor by Unsaturated Fatty Acids
354
I. Introduction
354
II. Calcium Efflux
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III. Calcium Release from Heavy Sarcoplasmic Reticulum Fraction
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IV. Discussion
359
References
361
Chapter 3. Adrenergic Receptors: Unique Localization in Human Tissues
364
I. Introduction
364
II. Methods Used to Study Receptor Distribution
368
III. Localization of Receptors in Human Tissue
369
IV. Summary
371
References
372
Chapter 4. Volatile Anesthetic Effects on Inositol Triphosphate-Gated Intracellular Calcium Stores in GH3 Cells
374
I. Introduction
374
II. Intracellular Calcium Measurements
368
III. Effects of Anesthetics
369
IV. Summary
371
References
372
Part IV: Reflex Regulation
382
Chapter 1. Differential Control of Blood Pressure by Two Subtypes of Carotid Baroreceptors
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I. Introduction
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II. Carotid Baroreceptors
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III. Carotid Sinus Nerve Activity
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IV. Discussion
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V. Anesthetic Implications
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References
397
Chapter 2. Sympathetic Activation with Desflurane in Humans
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I. Introduction
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II. Sympathetic Microneurography
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III. Anesthetics and Sympathetic Activation
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IV. Discussion
406
V. Summary
408
References
409
Chapter 3. Randomized, Prospective Comparison of Halothane, Isoflurane, and Enflurane on Baroreflex Control of Heart Rate in Humans
410
I. Introduction
410
II. Baroreflex Function in Humans
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III. Effects of Anesthetics
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IV. Discussion
414
References
417
Chapter 4. Baroreflex Modulation by Isoflurane Anesthesia in Normotensive and Chronically Hypertensive Rabbits
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I. Introduction
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II. Chronically Hypertensive Rabbit Model and Experimental Protocol
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III. Effect of Isoflurane on Arterial Pressure–Renal Sympathetic Nerve Activity and Arterial Pressure–Heart Rate Barocurves
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IV. Discussion
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References
437
Part V: Peripheral Circulation
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Chapter 1. Effects of lsoflurane on Regulation of Capacitance Vessels under Normotensive and Chronically Hypertensive Conditions
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I. Introduction
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II. Hypertensive Rabbit Preparation
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III. Mesenteric Reflex Measurements
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IV. Circulatory Responses to Baroreflex and Chemoreflex Responses in Normotensive and Hypertensive Animals
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V. Effects of Isoflurane on Hypoxia and Baroreflex- Mediated Responses
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Vl. Effects of Isoflurane on Prestimulation Baseline Measurements
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VII. Discussion
452
References
459
Chapter 2. Effect of Volatile Anesthetics on Baroreflex Control of Mesenteric Venous Capacitance
462
I. Introduction
462
II. Measurement of Venous Capacitance
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III. Response to Baroreceptor Stimulaton
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IV. Response to Electric Stimulation
471
V. Discussion
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References
477
Chapter 3. Effect of General Anesthesia on Modulation of Sympathetic Nervous System Function
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I. Introduction
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II. Effect of Intravenous and Inhalational Anesthetics on Norepinephrine Kinetics
481
III. ß-Adrenergic Receptor-Mediated Release of Norepinephrine
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IV. Effect of Inhalational Anesthesia on Prejunctional Norepinephrine Release in Viuo
487
V. Conclusions
488
References
488
Chapter 4. Inhibition of Nitric Oxide-Dependent Vasodilaton by Halogenated Anesthetics
490
I. Introduction
490
II. Methods
491
III. Effects of Anesthetics on Endotheliurn-Dependent Relaxations of Isolated Blood Vessels
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IV. Effects of Halothane and Isoflurane on Nitric Oxide-, Nitroglycerin-, and Carbon Monoxide-Induced Relaxations of Rat Aorta
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V. Effects of Halothane on Nitric Oxide-Stimulated Cyclic GMP
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VI. Interactions of Halothane and Nitric Oxide in Absence of Tissues
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VII. Discussion
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References
500
Chapter 5. Effects of Epidural Anesthesia on Splanchnic Capacitance
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I. Introduction
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II. Epidural Anesthesia
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III. Splanchnic Capacitance
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IV. Summary
513
References
513
Chapter 6. Anesthetic Modulation of Pulmonary Vascular Regulation
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I. Introduction
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II. Measurement of Pulmonary Vasoregulation
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III. Anesthesia and Pulmonary Vasoregulation
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IV. Summary
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References
534
Chapter 7. Pulmonary Mechanics Changes Associated with Cardiac Surgery
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I. Introduction
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II. Dynamic Lung Compliance
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III. Effects of Sternotomy
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IV. Discussion
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References
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Chapter 8. Inhaled Nitric Oxide in Adult Respiratory Distress Syndrome and Other Lung Diseases
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I. Introduction
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II. Pulmonary Hypertension in Adult Respiratory Distress Syndrome
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III. Nitric Oxide
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IV. Rationale for Use of Inhaled Nitric Oxide in Patients with Adult Respiratory Distress Syndrome
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V. Laboratory Studies of Inhaled Nitric Oxide
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VI. Clinical Studies of Nitric Oxide Inhalation in Adult Respiratory Distress Syndrome
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VII. Inhaled Nitric Oxide in Other Lung Diseases Associated with Pulmonary Hypertension
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VIII. Toxicity of Nitric Oxide
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IX. Guidelines for Nitric Oxide Inhalation
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References
558
Chapter 9. First Pass Uptake in the Human Lung of Drugs Used during Anesthesia
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I. Introduction
562
II. First Pass Drug Uptake in Human Lung
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III. Factors Affecting Pulmonary Drug Uptake
569
IV. Conclusions
578
References
578
Chapter 10. Lactic Acidosis and pH on the Cardiovascular System
582
I. Introduction
582
II. Induction of Lactic Acidosis
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III. Cardiovascular Effects of Acute Acidosis
569
IV. Discussion
578
References
578
Part VI: CerebraI Circulation
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Chapter 1. Role of Oxygen Free Radicals and Lipid Peroxidation in Cerebral Reperfusion Injury
596
I. Introduction
596
II. Free Radicals
597
III. Mechanisms of Brain Injury
598
IV. Potential Therapeutic Agents
599
V. Conclusion
602
References
603
Chapter 2. Effects of Volatile Anesthetics on Cerebrocortical Laser Doppler Flow: Hyperemia, Autoregulation, Carbon Dioxide Response, Flow Oscillations, and Role of Nitric Oxide
608
I. Introduction
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II. Measurement of Laser Doppler Flow
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III. Resting Flow
612
IV. Autoregulation
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V. Hypocapnia and Hypercapnia
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VI. Role of Nitric Oxide
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VII. Spontaneous Flow Oscillations
619
VIII. Conclusions
622
References
622
Chapter 3. Cerebral Blood Flow during Isovolemic Hemodilution: Mechanistic Observations
626
I. Introduction
626
II. Influence of Hemodiluton on Cerebral Blood Volume
627
III. Influence of Focal Cortical Brain Lesion on Regional Cerebral Blood Flow Response to Hemodilution
628
IV. Comparison of Cerebrovascular and Metabolic Changes Produced by Hypoxia and Hemodilution
630
V. Role of Nitric Oxide in the Cerebral Blood Flow Response to Hemodilution
633
VI. Discussion
634
References
634
Chapter 4. Cerebral Physiology during Cardiopulmonary Bypass: Pulsatile versus Nonpulsatile Flow
638
I. Introduction
638
II. Pulsatile versus Nonpulsatile Bypass
641
III. Influence of Arterial Pressure Waveform
642
IV. Summary
645
References
645
Chapter 5. Anesthetic Actions of Cardiovascular Control Mechanisms in the Central Nervous System
648
I. Introduction
648
II. Studies Performed in Cats
650
III. Studies in Mongrel Dogs
652
IV. Central Nervous System Pressor Site Responses in Cats and Intermediolateral Cell Column Evoked Potential
654
V. Anesthetic Responses in Dogs
656
VI. Histological Documentation of Electrode Sites
665
VII. Discussion
665
References
670
Index
674
Contents of Previous Volumes
686
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