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El. knyga: Mechanical Ventilation E-Book: Mechanical Ventilation E-Book

4.20/5 (10 ratings by Goodreads)
(Associate Professor of Surgery, Adjunct Faculty, College ), (Professor of Medicine, Medical Director of Respiratory Care, Clinical Chief of the Division of Pulmonary and Critical Care Medicine, Duke University Medical Center, Durham, NC)
  • Formatas: EPUB+DRM
  • Išleidimo metai: 23-Nov-2023
  • Leidėjas: W B Saunders Co Ltd
  • Kalba: eng
  • ISBN-13: 9780323792530
  • Formatas: EPUB+DRM
  • Išleidimo metai: 23-Nov-2023
  • Leidėjas: W B Saunders Co Ltd
  • Kalba: eng
  • ISBN-13: 9780323792530

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With cutting-edge and clinically relevant information, MECHANICAL VENTILATION, 2nd Edition takes a practical, clinical approach to the principles and practice of mechanical ventilation. This informative resource explains mechanical ventilation decisions and procedures in real-world terms so information is easy to understand and apply. This thoroughly updated edition includes one new chapter, four completely updated chapters, and a wealth of new user-friendly features.

  • Detailed, clinically focused coverage of the application of mechanical ventilation to the most common respiratory diseases, provides practical answers to real life problems.
  • UNIQUE! Sections of chapters on Special Techniques and Future Therapies include information on the newest techniques for treating patients in respiratory distress.
  • A separate appendix of case studies helps you apply what you've learned to realistic situations.
  • Well-known and respected authors, Neil MacIntyre and Rich Branson, share their vast expertise and accurate, cutting-edge information.


  • Chapter Objectives, Key Point Summaries, and Assessment Questions reinforce basic concepts from each chapter.
  • New chapter on Unique Patient Populations highlights the mechanical ventilation issues of traumatic brain injury, neuromuscular disease, lung transplantation, burn injury, and perioperative patient populations.
  • Expanded glossary includes relevant terminology and key terms to help you easily find unfamiliar terminology.

Recenzijos

The second edition of Mechanical Ventilation is an excellent introductory text for students of critical care, particularly respiratory therapists, critical care nurses who wish to expand their understanding of mechanical ventilation, and the busy academic provider who needs a quick reference on the fundamentals of mechanical ventilation for board review or from which to generate core teaching materials for trainees. Its greatest strengths are its choice of material, its figures and tables, and its concise, understandable reviews of complex technical aspects of mechanical ventilation, pulmonary physiology, and the potentially confusing literature on clinical applications. This book will become part of our core reading for residency training, and I highly recommended it.

Respiratory Care - February 2009

SECTION I TECHNICAL ASPECTS OF MECHANICAL VENTILATION
1(158)
Classification of Mechanical Ventilators
1(48)
Robert L. Chatburn
Richard D. Branson
Basic Concepts
2(1)
Input Power
2(1)
Electric
3(1)
Pneumatic
3(1)
Control Scheme
3(39)
Control Variables
10(2)
Phase Variables
12(10)
Conditional Variables
22(2)
Modes of Ventilation
24(7)
Control Subsystems
31(4)
Output Waveforms
35(7)
Ventilator Alarm Systems
42(7)
Input Power Alarms
43(1)
Control Circuit Alarms
43(1)
Output Alarm
43(6)
Modes of Ventilator Operation
49(40)
Richard D. Branson
Pressure Control Versus Volume Control
50(1)
Pressure Target Versus Volume Targe
50(1)
Modes
51(20)
Continuous Mandatory Ventilation
51(1)
Assist-Control Ventilation
52(3)
Assisted Mechanical Ventilation
55(3)
Intermittent Mandatory Ventilation
58(1)
Synchronized Intermittent Mandatory Ventilation
59(1)
Pressure Support Ventilation
60(4)
Continuous Positive Airway Pressure
64(2)
Airway Pressure Release Ventilation
66(2)
Pressure Control Inverse Ratio Ventilation
68(1)
Mandatory Minute Ventilation
69(2)
Combining Modes
71(1)
Dual Control Modes
71(3)
Dual Control Within a Breath
71(2)
Dual Control Breath-to-Breath-Pressure-Limited, Flow-Cycled Ventilation
73(1)
Dual Control Breath-to-Breath-Pressure-Limited, Time-Cycled Ventilation
73(1)
Automode
74(2)
Adaptive Support Ventilation
76(2)
Adaptive Tidal Volume Support
78(1)
Automatic Tube Compensation
79(1)
Proportional Assist Ventilation
80(2)
Smartcareps
82(7)
The Patient-Ventilator Interface: Ventilator Circuit, Airway Care, and Suctioning
89(22)
Richard D. Branson
The Ventilator Circuit
90(2)
Ventilation
90(1)
Exhalation Valves
91(1)
Care of the Artificial Airway
92(8)
Tube Placement
92(4)
Securing the Tube
96(1)
Special Endotracheal Tubes
97(1)
Silver-Coated or Silver-Impregnated Endotracheal Tubes
97(1)
Subglottic Suction Endotracheal Tubes
97(1)
Oral Care
98(1)
Management of the Endotracheal Tube Cuff
98(1)
Monitoring Cuff Pressure
99(1)
Suctioning
100(3)
Bronchial Suctioning
101(1)
Use of Saline Instillation
102(1)
Complications of Suctioning
102(1)
Patient-Ventilator System Check
103(8)
Humidification and Aerosol Therapy
111(35)
Richard D. Branson
Physical Properties
112(2)
Physiologic Principles
114(1)
High-Flow Humidifiers
115(1)
Types of High-Flow Humidifiers
116(1)
Passive Humidifier
116(3)
Characteristics of Artificial Noses
119(2)
Moisture Output
119(1)
Resistance
119(1)
Dead Space
120(1)
Additives
120(1)
Cost
120(1)
Choosing the Right Passive Humidifier
121(1)
Use of Humidification Devices During Mechanical Ventilation
121(2)
Active Hygroscopic Heat and Moisture Exchangers
123(1)
Heat and Moisture Exchanger Booster
124(1)
Aerosol Therapy During Mechanical Ventilation
124(8)
Physical Properties
124(1)
Types of Aerosol Generators
125(3)
Choosing an Aerosol Delivery System
128(1)
Aerosol Delivery During Mechanical Ventilation
128(2)
Monitoring Bronchodilator Efficacy
130(2)
Recommendations for Aerosol Therapy in Mechanically Ventilated Patients
132(1)
Aerosolized Pharmacologic Agents
132(14)
Bronchodilators
132(3)
Anticholinergics
135(1)
Anti-Inflammatory Agents
136(1)
Aerosolized Antibiotics
137(9)
Ventilator Monitors and Displays
146(13)
Neil R. MacIntyre
Pressure and Flow Sensors
147(4)
Pressure Sensors
147(1)
Flow and Volume Sensors
148(1)
Output from Pressure/Flow/Volume Sensors
149(1)
Monitoring Maneuvers
149(2)
Gas Analyzers and Gas Exchange Monitors
151(1)
Display Screens
151(1)
Future Sensors and Monitors
151(2)
Ventilator Alarm Systems
153(6)
Levels of Events and Alarm Requirements
153(2)
Alarm Cost Effectiveness
155(4)
SECTION II PHYSIOLOGY
159(58)
Respiratory System Mechanics
159(12)
Neil R. MacIntyre
Measurements
159(3)
Lung Inflation and Respiratory System Mechanics: Equation of Motion
162(3)
Compliance (Elastance)
162(2)
Resistance
164(1)
Mechanical Loads
165(2)
Interaction of Respiratory System Mechanics with Ventilator Settings
167(4)
Mechanical Determinants of Delivered Ventilation
167(4)
Alveolar-Capillary Gas Transport
171(11)
Neil R. MacIntyre
Steady-State Alveolar-Capillary Pressure Gradients
171(2)
Ventilation-Perfusion Matching
173(1)
Positive Pressure Ventilation Effects on Ventilation-Perfusion Matching
174(4)
Inspiratory and Expiratory Positive Pressure
174(3)
Inspiratory Flow Pattern and Inspiratory-Expiratory Time Relationship
177(1)
Intrathoracic Pressures and Perfusion
178(1)
Alveolar-Capillary Gas Transport in the Context of Overall Oxygen Delivery
178(4)
Patient-Ventilator Interactions
182(16)
Lawrence R. Tom
Catherine S. H. Sassoon
Determinants of Spontaneous Ventilation
183(2)
Respiratory Control System
183(1)
Equation of Motion
184(1)
Patient-Ventilator Interactions
185(8)
Patient-Related Factors
185(1)
Ventilator-Related Factors
186(7)
The Future
193(5)
Cardiopulmonary Interactions
198(8)
David N. Hager
Henry E. Fessler
Mechanical Forces During Ventilation
199(1)
Venous Return
199(1)
Ventricular Interdependence
199(1)
Pulmonary Vascular Resistance
200(1)
Pulmonary Vascular Capacitance
200(1)
Ventricular Afterload
200(1)
Stress on Abdominal Vessels
200(1)
Clinical Applications: Transient Effects
200(1)
Valsalva Maneuver
200(1)
Respiratory Changes in Pulse Pressure
201(1)
Clinical Applications: Steady-State Effects
201(5)
PEEP
201(2)
Weaning
203(3)
Ventilator-Induced Lung Injury
206(11)
Renee D. Stapleton
Kenneth P. Steinbert
Alveolar Rupture and Extra-Alveolar Air
207(1)
Stretch-Induced Lung Injury
208(4)
Experimental and Mechanistic Evidence for VILI
208(3)
Clinical Studies Providing Evidence for VILI
211(1)
Summary
212(5)
SECTION III ADJUNCTIVE THERAPY
217(70)
Nutrition
217(18)
Richard D. Branson
Jay A. Johannigman
Malnutrition in the Mechanically Ventilated Patient
218(1)
Effect of Underfeeding
218(1)
Effect of Overfeeding
219(1)
Nutritional Assessment
220(1)
Nutritional Requirements
221(1)
Performance of Indirect Calorimetry
222(3)
Design of the Nutrition Support Regimen
225(4)
Monitoring Response and Patient Tolerance
229(1)
Conclusions
230(5)
Sedation, Analgesia, and Neuromuscular Blockade
235(17)
Bryan A. Fisk
Lisa K. Moores
Pain
237(3)
Rationale for Pain Management
237(1)
Recognition of Pain
237(1)
Management of Pain
238(2)
Delirium
240(1)
Recognition of Delirium
240(1)
Treatment of Delirium
240(1)
Sedation
241(4)
Rationale for Sedation Management
241(1)
Titration and End Points
241(1)
Drugs Used for Sedation
242(1)
Approach to Management
243(2)
Neuromuscular Blockade
245(3)
Drugs Used for Neuromuscular Blockade
245(2)
Monitoring Use of NMBAs
247(1)
Summary
248(4)
Patient Positioning
252(14)
Joseph A. Govert
Effects of Posture and Position on Healthy Patients
253(3)
Lung Volumes
253(1)
Regional Pleural Pressures
253(1)
Regional Lung Inflation
254(1)
Pulmonary Mechanics
255(1)
Distribution of Ventilation
256(1)
Distribution of Perfusion
256(1)
Ventilation-Perfusion (V/Q) Relationships
256(1)
Effects of Posture and Position on Patients with Respiratory Disease
256(10)
Neuromuscular Disease
256(1)
Obstructive Airway Disease
257(1)
Unilateral Lung Injury
258(1)
Acute Respiratory Distress Syndrome
258(8)
Ventilator-Associated Pneumonia
266(21)
Mohammed Hijazi
Mariam Al-Ansari
Incidence and Risk Factors
266(1)
Morbidity, Mortality, and Cost
267(1)
Pathogenesis
268(2)
Colonization
269(1)
Respiratory Therapy Equipment
269(1)
Host Defenses
270(1)
Microbiology
270(2)
Diagnosis
272(2)
Clinical Features and Chest X-Ray
272(1)
Qualitative Culture Techniques
273(1)
Quantitative Culture Techniques
273(1)
Therapy
274(3)
Empiric Therapy
274(1)
Pharmacologic Consideration
275(1)
De-Escalation and Specific Therapy
276(1)
Duration of Therapy
276(1)
Response to Therapy
277(1)
Prevention
277(10)
SECTION IV CLINICAL APPLICATIONS
287(164)
Management of Parenchymal Lung Injury
287(10)
Neil R. MacIntyre
Pathophysiology of Parenchymal Lung Injury
288(1)
Goals of Ventilatory Support
288(1)
Mechanical Ventilation Strategies
289(3)
Modes Selection
289(1)
Frequency-Tidal Volume Settings
290(1)
Positive End-Expiratory Pressure and Inspired Oxygen Concentration
291(1)
Novel Approaches to Lung Protection in Parenchymal Lung Injury
292(1)
Airway Pressure Release Ventilation
293(1)
High-Frequency Ventilation
293(1)
Other Considerations in Managing Parenchymal Lung Injury
293(1)
Outcome of Parenchymal Lung Injury
293(4)
Management of Obstructive Airway Disease
297(9)
Neil R. MacIntyre
Pathophysiology of Obstructive Airway Diseases
297(1)
Goals of Ventilatory Support
298(1)
Mechanical Ventilation Strategies
298(5)
Mode Selection
298(2)
Tidal Volume/Frequency/Inspiratory Time
300(1)
Positive End-Expiratory Pressure/Inspired Oxygen Concentration
301(1)
Other Considerations in Ventilatory Management
302(1)
Outcomes of Respiratory Failure in Obstructed Airway Disease
303(3)
Unique Patient Populations
306(11)
John H. Sherner
Lisa K. Moores
Traumatic Brain Injury
307(2)
Pathophysiology and Unique Features
307(1)
Management
307(2)
Neuromuscular Disease
309(1)
Pathophysiology and Unique Features
309(1)
Management
309(1)
Lung Transplantation
310(3)
Donor Care
310(1)
Perioperative Care of Transplant Recipients
311(2)
Burn Injuries
313(1)
Pathophysiology and Unique Features
313(1)
Assessment
313(1)
Management
313(1)
Perioperative Respiratory Failure
313(1)
Pathophysiology and Unique Features
313(1)
Management
313(1)
Conclusions
314(3)
Discontinuing Mechanical Ventilation
317(8)
Neil R. Maclntyre
Considering Ventilator Discontinuation
318(1)
Assessing the Potential for Discontinuation
318(1)
Next Steps for Patients With Successful Spontaneous Breathing Trial
319(1)
Managing the Not-Yet-Ready-to-Be Discontinued Patient
320(1)
The Impact of Newer Feedback Controllers on Discontinuation
321(1)
Approaches for the Difficult-to-Wean Patient
322(3)
Prolonged Mechanical Ventilation
325(14)
Christopher E. Cox
Shannon S. Carson
Prolonged Mechanical Ventilation
326(1)
Epidemiology of PMV
326(2)
Economics of PMV
326(1)
PMV Patients
327(1)
Ventilator-Dependent Patients
327(1)
Predicting the Need for PMV
328(1)
Reducing the Likelihood of PMV
328(1)
Timing for Tracheostomy Placement
329(2)
Placing a Tracheostomy
331(1)
Outcome of PMV Patients
331(1)
Disposition
331(1)
Weaning Success
331(1)
Survival
331(1)
Quality of Life and Functional Status
331(1)
Cost-Effectiveness
332(1)
Most Effective Way to Wean PMV Patients
332(1)
Predicting Weaning Success
333(1)
Interventions to Improve PMV Outcomes
333(3)
Post---Acute Care Facilities and Respiratory Care Units in PMV Care
335(1)
Palliative Care in the PMV Population
335(1)
Summary
336(3)
Mechanical Ventilation During Transport and Cardiopulmonary Resuscitation
339(27)
Richard D. Branson
Jay A. Johannigman
Ventilation During Cardiopulmonary Resuscitation
340(1)
Standards for Ventilation and Devices
340(1)
Lung Compliance After Cardiac Arrest
340(1)
Techniques of Emergency Ventilation
341(5)
Expired Air Resuscitation
341(1)
Cricoid Pressure
342(1)
Disease Transmission
342(1)
Barrier Devices
343(1)
Mouth-to-Mask
344(2)
Bag-Valve Devices
346(3)
Description
346(1)
Bag-Valve Device Performance
347(1)
Ventilation Efficacy
347(1)
Delivered Oxygen Concentration
348(1)
Nonrebreathing Valve Performance
348(1)
Oxygen-Powered Breathing Devices
349(3)
Description
349(1)
Assessment
350(1)
Ventilator-to-Mask Ventilation
350(2)
Impedence Threshold Device
352(1)
Transport of the Mechanically Ventilated Patient
352(14)
Rationale for Transport
352(1)
Preparation
352(1)
Equipment
353(1)
Characteristics of a Ventilator for Intrahospital Transport
354(3)
Physiologic Effects and Risks of Transport
357(9)
Noninvasive Mechanical Ventilation
366(26)
Nicholas S. Hill
Rationale for the Use of Noninvasive Ventilation
367(1)
Indications for Noninvasive Ventilation: Acute Applications
367(2)
Best Established Indications
367(2)
Indications Supported by Weaker Evidence
369(1)
Other Obstructive Diseases
369(1)
Extubation Failure
369(1)
Postoperative Respiratory Failure/ Insufficiency
370(1)
Do Not Intubate Status
370(1)
Other Acute Applications of Noninvasive Ventilation
370(1)
Selection Guidelines for Noninvasive Ventilation in Acute Respiratory Failure
370(2)
Determinants of Success/Failure
370(1)
Selection Process
371(1)
Long-Term Applications of Noninvasive Ventilation
372(1)
Restrictive Thoracic Disease
372(1)
Chronic Obstructive Pulmonary Disease
372(1)
Obesity Hypoventilation
373(1)
Selection Guidelines
373(1)
Contraindication to Long-Term Noninvasive Ventilation
373(1)
Techniques and Equipment for Noninvasive Ventilation
374(7)
Noninvasive Positive-Pressure Ventilation
374(1)
Interfaces
375(3)
Ventilators for Positive-Pressure Noninvasive Ventilation
378(3)
Application of Noninvasive Positive-Pressure Ventilation
381(5)
Initiation
381(1)
General Considerations
382(1)
Adaptation and Monitoring
383(1)
Long-Term Applications
383(1)
Common Problems and Possible Remedies
384(2)
Summary and Conclusions
386(6)
Modifications on Conventional Ventilation Techniques
392(15)
John D. Davies
Airway Pressure Release Ventilation
393(1)
Description and Rationale
393(1)
Clinical Data
394(1)
Recommendations
394(1)
Independent Lung Ventilation
394(3)
Description and Rationale
394(3)
Clinical Data
397(1)
Recommendations
397(1)
Proportional Assist Ventilation
397(3)
Description and Rationale
397(1)
Clinical Data
398(2)
Recommendations
400(1)
Tracheal Gas Insufflation
400(2)
Description and Rationale
400(1)
Clinical Data
401(1)
Recommendations
401(1)
Modifications for Nuclear Magnetic Scanners and Hyperbaric Chambers
402(5)
MRI-Compatible Equipment
402(1)
Hyperbaric Chamber---Compatible Equipment
402(5)
High-Frequency Ventilation
407(11)
Michael A. Gentile
Neil R. Maclntyre
Devices
408(3)
Jets
408(2)
Oscillators
410(1)
Mechanism of Gas Transport
411(1)
Applications
412(2)
Complications
414(1)
Summary
414(4)
Extracorporeal Techniques for Cardiopulmonary Support
418(11)
Michael A. Gentile
Ira M. Cheifetz
History of Extracorporeal Life Support
418(1)
Patient Selection and Criteria for Extracorporeal Life Support
419(2)
Types of Extracorporeal Life Support
421(2)
Venoarterial Extracorporeal Life Support
421(1)
Venovenous Extracorporeal Life Support
422(1)
Complications Associated With Extracorporeal Life Support
423(1)
Patient Management During Extracorporeal Life Support
423(1)
Ventilator and Respiratory Care
423(1)
Anticoagulation
424(1)
Sedation and Analgesia
424(1)
Nutrition
424(1)
Current Status of Extracorporeal Life Support and Outcome in Pediatrics
424(1)
Extracorporeal Life Support Technology for Adult Respiratory Failure
424(2)
Summary
426(3)
Heliox and Inhaled Nitric Oxide
429(22)
Dean R. Hess
Heliox
429(8)
Physics and Physiology
429(2)
Clinical Applications
431(4)
Delivery Systems for Heliox
435(2)
Inhaled Nitric Oxide
437(14)
Biology of Nitric Oxide
437(1)
Selective Pulmonary Vasodilation
438(1)
Clinical Applications
439(1)
Toxicity and Complications of Inhaled Nitric Oxide
439(1)
Delivery Systems for Inhaled Nitric Oxide
440(11)
Appendix 1 Mechanical Ventilation Case Studies 451(16)
Neil R. Maclntyre
Appendix 2 Assessment Question Answers 467(6)
Glossary 473