Remembrance of "Oxford" Conferences Past | p. 3 |
Workshop on Modeling in the 21[superscript st] Century: An executive summary | p. 9 |
Central Respiratory Chemosensitivity: Cellular and Network Mechanisms | p. 17 |
Chemoreception and Tonic Drive in the Retrotrapezoid Nucleus (RTN) Region of the Awake Rat: Bicuculline and muscimol dialysis in the RTN | p. 27 |
Chronic Intermittent Hypoxia Enhances Carotid Body Chemoreceptor Response to Low Oxygen | p. 33 |
Neurotransmitter Release from the Rabbit Carotid Body: Differential Effects of Hypoxia on Substance P and Acetylcholine Release | p. 39 |
Muscarinic Receptors Influence Catecholamine Release from the Cat Carotid Body during Hypoxia | p. 45 |
Pharmacological and Immunochemical Evidence of the Dopamine D[subscript 3] Receptor in the Goat Carotid Body | p. 49 |
The Excitatory Effect of Nitric Oxide on Carotid Body Chemoreception Is Blocked by Oligomycin | p. 55 |
CO[subscript 2]/HCO[subscript 3]-Modulates K[superscript +] and Ca[superscript 2+] Currents in Glomus Cells of the Carotid Body | p. 61 |
Inhibition or Lack of NAD(P)H Oxidase Subunits Do Not Alter the Normal Cytosolic Calcium, Sensory and Respiratory Response of Chemoreceptors | p. 67 |
Peripheral and Central Chemosensitivity: Multiple Mechanisms, Multiple Sites? A workshop summary | p. 73 |
Role of Brainstem Respiratory Neuron Types in Phase-Switching Produced by Afferent Vagal Stimulation | p. 83 |
Modulation of the Central Respiratory Effects of 5-HT by Vagal Afferents in Newborn Rat | p. 89 |
Activation of Medullary Post-Inspiratory Related Neurons during Clonidine-Induced Central Apnea in Anesthetized Goats | p. 95 |
Respiratory Control of Hypoglossal Motoneurons | p. 101 |
Projections from Brainstem GABAergic Neurons to the Phrenic Nucleus | p. 107 |
Optical Recording of the Neuronal Activity in the Brainstem-Spinal Cord: Application of a voltage-sensitive dye | p. 113 |
Interfacing Computer Models with Real Neurons: Respiratory "Cyberneurons" Created with the Dynamic Clamp | p. 119 |
Is the Vertebrate Respiratory Central Pattern Generator Conserved? Insights from in-vitro and in-vivo amphibian models | p. 127 |
Unstable Breathing Rhythms and Quasiperiodicity in the Pre-Botzinger Complex | p. 133 |
Stationary Organotypic Culture of the Pre-Botzinger Complex from the Newborn Rat | p. 139 |
Respiratory Rhythm Generation: PreBotzinger Neuron Discharge Patterns and Persistent Sodium Current | p. 147 |
Roles of the Botzinger Complex in the Formation of Respiratory Rhythm | p. 153 |
Models of Neuronal Bursting Behavior: Implications for In-Vivo versus In-Vitro Respiratory Rhythmogenesis | p. 159 |
Neurogenesis of the Respiratory Pattern: Insights from Computational Modeling | p. 165 |
Reconfiguration of the Central Respiratory Network under Normoxic and Hypoxic Conditions | p. 171 |
How Is the Respiratory Central Pattern Generator Configured and Reconfigured? A workshop summary | p. 179 |
Respiratory Suppression Induced by Nicotine Withdrawal in the Neonatal Rat Brainstem: Implications in the SIDS risk factor | p. 187 |
Effect of DNA Hypomethylation on Neural Control of Respiration: A Genetic Model | p. 195 |
Respiratory Pattern and Hypoxic Ventilatory Response in Mice Functionally Lacking [alpha][subscript 2a]-Adrenergic Receptors | p. 201 |
Do Genetic Factors Influence the Dejours Phenomenon? | p. 209 |
Role of Nitric Oxide in Short-Term Potentiation and Long-Term Facilitation: Involvement of NO in breathing stability | p. 215 |
Induction of Long-Term Modulation of the Exercise Ventilatory Response in Man | p. 221 |
Metabolic Consequences of Hypoxic Conditioning in Lymnaea Stagnalis | p. 225 |
The Lymnaea Respiratory System: Where are we going with learning? | p. 231 |
Possible Mechanisms That May Determine the Set Point and Sensitivities of the Chemoreflexes | p. 237 |
Modeling Respiratory Adaptations in Humans | p. 241 |
Post-Hypoxic Frequency Decline Characterized in the Rat Working Heart Brainstem Preparation | p. 247 |
Model of Nonassociative Learning in Vagal-Pontine Modulation of the Respiratory Rhythm | p. 255 |
NMDA Receptor Blockade Unmasks Novel Gating and Memory Mechanisms in Vagal Control of Respiratory Rhythm | p. 261 |
Beyond Chemoreflex: Plasticity, Redundancy and Self-Organization in Respiratory Control: A workshop summary | p. 267 |
Modeling the Ventilatory Response to Variations in End-Tidal PCO[subscript 2] in Patients who Have Undergone Bilateral Carotid Body Resection | p. 275 |
Cerebral Blood Flow Sensitivities of CO[subscript 2] with the Steady-State Method and Read's Rebreathing Method | p. 279 |
Modeling the Interaction between Perfusion Pressure and CO[subscript 2] on Cerebral Blood Flow | p. 285 |
Central Amino Acid Neurotransmitters, Ventilatory Output and Metabolism during Acute Hypoxia in Anesthetized Rats | p. 291 |
Gene Regulation during Intermittent Hypoxia: Evidence for the Involvement of Reactive Oxygen Species | p. 297 |
Response Surface Modeling of Drug Interactions on Cardiorespiratory Control | p. 303 |
A Meta-Analysis of the Effect of Low-Dose Volatile Anaesthetics on the Ventilatory Response to Hypoxia: Analysis for sources of heterogeneity | p. 309 |
Simulation of the Respiratory Control System | p. 315 |
Long-Haul Flights May Induce Respiratory Changes Similar to Ventilatory Acclimatisation to Altitude | p. 321 |
Sustained Moderate Hyperoxia Augments the Acute Hypoxic Response in Awake Goats | p. 325 |
Respiratory Effects of Breathing High Oxygen during Incremental Exercise in Humans | p. 331 |
Intra-Breath Profiles of Alveolar Gas Exchange and the Initial Limb-to-Lung Transit Delay during Exercise in Humans: Relevance for modeling the exercise hyperpnea | p. 337 |
Skeletal Muscle Chemoreflex in Exercise Ventilatory Control | p. 343 |
Distention of Venous Structures in Muscles as a Controller of Respiration | p. 349 |
Ventilatory and Circulatory Responses at the Onset of Rapid Changes in Posture | p. 357 |
Cardiorespiratory Responses to Walking and Running at an Incremental Speed of Treadmill | p. 363 |
The Breath Sound Check and Exercise at or about the Ventilatory Threshold | p. 369 |
Improved O[subscript 2] Transport and Utilization Capacity following Intermittent Hypobaric Hypoxia in Rats | p. 375 |
Intercept Shift in the Breathlessness/Ventilation Relationship in Response to Progressive Increase in Workload: Change in exercise breathlessness response | p. 383 |
Ventilatory vs. Dyspneic Responses to Augmenting and Subsequently Declining CO[subscript 2] Stimulation in Humans | p. 389 |
Hypoxic-Hypercapnic Interaction on Ventilatory Response and Respiratory Sensation in Females: Profile during menstrual cycle | p. 393 |
Opioid Effect on Breathing Frequency and Thermogenesis in Mice Lacking Exon 2 of the [mu]-Opioid Receptor Gene | p. 399 |
Modulation of Breathing using Imperceptible Unloading | p. 405 |
General Model for Patient-Ventilator Interactions | p. 411 |
Phase Relations between Rhythmical Forearm Movements and Breathing in Cerebellar Impaired Patients | p. 417 |
Computational Modeling of Integration of Voluntary/Behavioral and Automatic Mechanisms for Breathing Control | p. 425 |
The Control of Breathing at Rest | p. 431 |
Central and Peripheral Chemoreflex Characteristics: Panic Disorder Patients vs. Healthy Volunteers | p. 435 |
A Physiological and Psychological Model of Idiopathic Hyperventilation | p. 439 |
Behavioral State Control and Airway Instability | p. 445 |
Neural Drives and Breathing Stability | p. 453 |
Variability of CO[subscript 2]-Sensitivity during Sleep | p. 459 |
Dynamics of Heart Rate Control in Obstructive Sleep Apnea: A minimal model | p. 465 |
Computational Model of the Effects of Breathing on Cardiac Function | p. 471 |
Inspiratory Timing Differences and Regulation of Gria2 Gene Variation: A Candidate Gene Hypothesis | p. 477 |
Explained and Unexplained Variability of CO[subscript 2]-Sensitivity in Humans | p. 483 |
Comparison between the Respiratory Inductance Plethysmography Signal Derivative and the Airflow Signal | p. 489 |
Respiratory Instability and Variability: Why Is Respiration Such a Mess? A workshop summary | p. 495 |
Index | p. 501 |
Table of Contents provided by Blackwell. All Rights Reserved. |
The New copy of this book will include any supplemental materials advertised. Please check the title of the book to determine if it should include any access cards, study guides, lab manuals, CDs, etc.
The Used, Rental and eBook copies of this book are not guaranteed to include any supplemental materials. Typically, only the book itself is included. This is true even if the title states it includes any access cards, study guides, lab manuals, CDs, etc.