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دسته بندی: پزشکی ویرایش: نویسندگان: Lindsay C. Johnston, Lillian Su سری: Comprehensive Healthcare Simulation ISBN (شابک) : 3030538435, 9783030538439 ناشر: Springer سال نشر: 2021 تعداد صفحات: 292 زبان: English فرمت فایل : PDF (درصورت درخواست کاربر به PDF، EPUB یا AZW3 تبدیل می شود) حجم فایل: 12 مگابایت
در صورت تبدیل فایل کتاب Comprehensive Healthcare Simulation: ECMO Simulation: A Theoretical and Practical Guide به فرمت های PDF، EPUB، AZW3، MOBI و یا DJVU می توانید به پشتیبان اطلاع دهید تا فایل مورد نظر را تبدیل نمایند.
توجه داشته باشید کتاب : شبیه سازی ECMO: یک راهنمای نظری و عملی نسخه زبان اصلی می باشد و کتاب ترجمه شده به فارسی نمی باشد. وبسایت اینترنشنال لایبرری ارائه دهنده کتاب های زبان اصلی می باشد و هیچ گونه کتاب ترجمه شده یا نوشته شده به فارسی را ارائه نمی دهد.
این کتاب بر مهارتهای فنی، شناختی و رفتاری مورد نیاز برای اجرای یک برنامه شبیهسازی اکسیژنرسانی غشایی خارج از بدن (ECMO) تمرکز دارد. این برنامهها را در سطح سیستم فردی، تیمی و بیمارستانی توصیف میکند و شامل تاریخچه شبیهسازی ECMO، تکامل آن تا وضعیت فعلی، و جهتهای آینده فناوری و علم مرتبط با شبیهسازی ECMO است.
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به شش بخش تقسیم میشود، فصلهایی هم جنبههای نظری و هم جنبههای عملی شبیهسازی ECMO را شرح میدهند، از جمله راهنمای تصویری برای راهاندازی مدار شبیهسازی ECMO و نحوه ایجاد مجدد شرایط اضطراری ECMO. این یک راهنمای عملی است که بر موارد عملی و بحثهای لازم برای برنامهریزی، راهاندازی، هماهنگسازی و تشریح شبیهسازیهای ECMO برای انواع مختلف یادگیرندگان در
شبیه سازی جامع مراقبت های بهداشتی: شبیه سازی ECMO - راهنمای نظری و عملی بخشی از مجموعه شبیه سازی جامع مراقبت های بهداشتی است و این کتاب برای مربیان، فناوران شبیه سازی و ارائه دهندگان مرتبط در نظر گرفته شده است. در برنامههای ECMO که ارزش شبیهسازی را برای بهبود نتایج ECMO تشخیص میدهند.
This book focuses on the technical, cognitive, and behavioral skills needed to implement an extracorporeal membrane oxygenation (ECMO) simulation program. It describes these programs on the individual, team, and hospital system level, and includes the history of ECMO simulation, its evolution to its current state, and future directions of technology and science related to ECMO simulation.
Divided into six sections, chapters describe both the theoretical as well as the practical aspects of ECMO simulation, including a pictorial guide to setting up an ECMO simulation circuit and how to recreate ECMO emergencies. It is a pragmatic guide that emphasizes the necessary practical items and discussions necessary to plan, set-up, orchestrate, and debrief ECMO simulations for different types of learners in different
Comprehensive Healthcare Simulation: ECMO Simulation - A Theoretical and Practical Guide is part of the Comprehensive Healthcare Simulation Series, and this book is intended for educators, simulation technologists, and providers involved in ECMO programs who recognize the value of simulation to improve ECMO outcomes.
Foreword Preface Contents Contributors Part I: History of ECMO & ECMO Simulation 1: ECMO from Conception to Execution Introduction Birth of an Idea Development of Perfusion Technology Conclusions References 2: Simulating ECMO: Rationale and Genesis Rationale for Simulating ECMO Genesis of ECMO Simulation Core Developmental Strategies Lessons Learned Human and System Performance Assessment During ECMO Simulation Program Assessment Looking to the Future (The Future Is Now) Summary References Part II: Educational Theory Behind ECMO Simulation 3: The Critical Role of Simulation in ECMO Education Introduction Simulation in Medical Education Adult Learning Theory Andragogy Social Learning Theories Constructivism Cognitivism Transformative Experiential Procedural Skills Training Simulation in Medical Education Simulation as Part of an Overarching ECMO Educational Curriculum Creation of Goals and Objectives Based on Institutional Needs Use of Simulation for Low-Frequency, High-Risk Events and Review of Rare Cases Use of Simulation for Implementation of Programmatic Changes Creation of Goals and Objectives Based on Learner Population Matching Goals to Instructional Methods How to Incorporate Procedural/Technical Skills training into an ECMO Program Benefits of Simulation on Cognition Critical Thinking Under Stress Benefits of ECMO Simulation on IPE Teamwork Interprofessional Current ELSO guidelines for Simulation Training Potential Role for Simulation in Assessment of ECMO Providers Conclusion References 4: A Conceptual Framework for Development of a Simulation-Enhanced ECMO Training Program: Use of a Zone-Based Framework Introduction Zone-Based Framework for Simulation-Enhanced Training Overall Framework for Simulation-Enhanced ECMO Training Development of Psychomotor Skills Development of Cognitive Skills Development of Teamwork Skills Summary References 5: Brain-Based Learning Introduction Brain-Based Learning Conclusion References 6: Designing an ECMO Simulation Curriculum Introduction Curriculum Development Components of an ECMO Simulation Curriculum Extracorporeal Cardiopulmonary Resuscitation Physiologic Framework for ECMO Complications ECMO Preload ECMO Pump “Contractility” ECMO Afterload Considerations Conclusions References Part III: Technology for ECMO Simulation 7: Innovations and Options for ECMO Simulation Introduction Definitions Foundational Knowledge and Skills Acquired Through Low Physical Resemblance, Low Functional Task Alignment Simulation Development of Psychomotor and Critical Thinking Skills Development of Surgical Cannulation Skills ECMO Team Development and Crisis Management Logistics of ECMO Simulation: A User’s Guide Equipment Technical Innovations for Simulation of ECMO Emergencies Personnel Space Conclusion References 8: Physiologic Modeling Overview of the Chapter Introduction to Physiological Modeling Physiologic Modeling in ECMO Simulation Full Model-Driven and Hybrid ECMO Simulation Explanatory Models in ECMO Simulation Current Available Models for Use in ECMO Simulation Future of Physiological Modeling Introduction to Physiological Modeling Physiological Modeling in ECMO Simulation Full Model-Driven and Hybrid ECMO Simulation Explanatory Models in ECMO Simulation Current Available Models for Use in ECMO Simulation Future of Physiological Modeling Conclusion References 9: Immersive Technologies in ECMO Simulation Introduction Definitions Immersive Technologies Augmented Reality (AR) Mixed Reality (MR) Virtual Reality (VR) The Psychology of VR Design Immersive Technologies in Healthcare Therapeutic Uses Clinical Use Cases Educational Use Cases Advantages and Disadvantages of the Immersive Technologies in Simulation Evidence Behind VR Simulation The Future of Immersive Technology in ECMO Simulation Summary References Part IV: Other Topics for ECMO Simulation 10: Interprofessional Education and ECMO Simulation Introduction Theory to Support Interprofessional Education Andragogy and IPE Transformative Learning and IPE Social Psychology and IPE Interprofessional Team Training Interprofessional Simulation for ECMO Teams A Practical Guide for Interprofessional ECMO Simulation Knows Knows How Shows Needs Assessment Learning Objectives Resources for IPE ECMO Simulation Scheduling for IPE ECMO Simulation Debriefing Does Conclusion References 11: Optimizing ECMO Teams: What Every ECMO Educator Needs to Know About the Latest Advances in Team Science ECMO Simulation as the Ultimate Team Sport Simulation as a Lab to Study the Human Behavior of Teams Team Science and Relevant Team Processes From Teamwork to Teaming Coordination Team Sensemaking Solutions to Improve Human Performance in ECMO Teams Thinking of ECMO as a Multiteam System Team Reflexivity Psychological Safety Conclusion References Part V: Practical Considerations 12: Current Training Recommendations for ECMO Providers and Specialists Introduction Adult Learning and ECMO Training ECMO Provider Didactic Course ECMO Simulation Training Historical Perspective Considerations High- Versus Low-Technology Simulation In Situ Versus Simulation Lab Developing Simulation Scenarios Continuing Education of the ECMO Provider Novel Educational Strategies Conclusion References 13: The Role of Simulation in Starting a New ECMO Program Introduction Considerations to Start a New ECMO Program Components of Curriculum for a New ECMO Center Overall Curriculum Design Didactic Sessions and Monthly Lectures Introduction of Complex Physiology and Hands-On Practice Design of the Simulation Curriculum: Circuit Labs Design of the Simulation Curriculum: High-Fidelity Simulation Operationalizing ECMO Training in a New ECMO Center: Establishment of Superuser Group and Training from Expert Center Dissemination of Simulation Training for Larger Audience Conclusions and Recommendations References 14: Using Simulation to Develop an ECMO Transport Program Introduction ELSO Guidelines Regarding ECMO Transport Principles of ECMO Transport to Incorporate into Practical Simulation Transport Simulation Design Goals and Objectives Setting Equipment Transport Simulation Scenarios Conclusion References 15: Debriefing ECMO Simulations: Special Considerations Introduction Debriefing Timing and Facilitation Debriefing Process Elements Essential Elements of Debriefing Conversational Techniques/Educational Strategies Debriefing Adjuncts Special Considerations for Debriefing ECMO Simulations Debriefing Training and Assessment Conclusion References 16: Controversies on Certification of ECMO Practitioners Using Simulation The Need for Standardized ECMO Practitioner Certification The ECMO Practitioner Growth of ECMO Utilization Risks Associated with ECMO High-Risk, Low-Frequency Events Variability in ECMO Center Training and Center Volume Standardization The Role of Simulation in Certification Miller’s Model of Medical Competence Simulation in Medical OSCE Maintenance of Certification Simulation in the Neonatal Resuscitation Program (NRP), Pediatric Advanced Life Support (PALS), and Advanced Cardiac Life Support (ACLS) Controversies in Simulation-Based Certification of ECMO Practitioners ECMO Certification Defining Minimal Competency Differentiating Performance in Clinical Practice Versus in Simulation Lack of Evidence of the Efficacy of Simulation Training in Improving Patient Outcomes Buy-in from ECMO Centers Assessment of Multidisciplinary Team Instructors/Assessor Training Recertification Criteria Conclusion References 17: Research in ECMO Simulation: A Review of the Literature Introduction ECMO Simulation for Training Providers Development of ECMO Simulation Equipment Evidence for Improvement in Knowledge and Skills Evidence of Improved Clinical Outcomes Conclusion References 18: Faculty Development for ECMO Simulation ECMO Faculty Development for Simulation Evolution of Faculty Development Faculty Development for Simulation Theoretical Frameworks to Guide ECMO Simulation Faculty Development Situated Learning Theory Communities of Practice (CoP) Transformative Learning Theory Methodology (Approaches) of ECMO Simulation Faculty Development Formal Approaches Workshops/Seminars/Conferences/Short Courses Faculty Simulation Fellowships/Longitudinal Programs (6 Months–2 Years) Advanced Education Informal Approaches Work-Based Learning Peer Coaching and Feedback Professional Community of Practice (See Theory Section for Further Details) Mentorship Role Modeling Structure and Components of Simulation Faculty Development Program ECMO Faculty Development Development of a Simulation ECMO Faculty Development Course Faculty Assessment Future Directions and Sustainment Appendix 18.1: Simulation Faculty Program Example Appendix 18.2 Appendix 18.3 Appendix 18.4 References 19: Quality Improvement Introduction Background and Terminology Simulation Continuous Quality Improvement (CQI) Total Quality Management (TQM) Systems Thinking Quality Indicators: Benchmarking Performance and Optimizing Safety Benchmarking Performance Performance Management for Optimizing Safety Improving and Sustaining Performance Examples Sustaining Performance Summary References Part VI: Special Considerations for Different ECMO Populations 20: Neonatology Introduction/Chapter Overview Background Education Overview ECMO Curriculum/Scenario Design Participants in ECMO Sim Equipment Considerations for Neonatal ECMO Simulation Conclusions References 21: ECMO Simulation in Infants, Children, and Adolescents Background Scope VA Versus VV ECMO? The Answer Lies in the Oxygen Delivery Equation Common Pediatric VA ECMO Indications Common Pediatric VV ECMO Indications Cannulation Considerations Pediatric ECMO Flows: Guidelines and Considerations Pediatric Anticoagulation/Hematologic Nuances Pediatric Vital Signs: One Size Does Not Fit All Systematic Approach to Develop, and Prioritize, the Most Appropriate Pediatric ECMO Simulations for Your Program Where Things Can Go Wrong: Common Pediatric ECMO Complications Recirculation in VV ECMO Where Things Can Go Wrong: Psychomotor Skills Where Things Can Go Wrong: Systems Processes Prioritizing Simulations for Your Program ECMO Simulation: High(er) Fidelity Is Not Necessarily Better – Just More Complicated Conclusion Appendix 21.1: Pediatric Age-Based Vital Signs, Typical ECMO Flows and Cannula Sizes References 22: ECMO Simulation in Patients with Cardiac Disease Introduction Simulation Design and Setup ECMO Pump Type Cannulation Strategy – Anatomical Location and Implications Cannulation Strategy – Number and Dimensions Additional Cardiac and ECMO Circuit Monitoring Left Heart Decompression on ECMO Investigation for Cardiac Lesions Implicated in Cardiopulmonary Failure Simulation of Complex Cardiac Anatomy and Physiology Biventricular Circulation Acute Coronary Syndromes, Myocardial Infarction, and Pulmonary Embolism Acute Coronary Syndromes and Myocardial Infarction Aortic Balloon Pumps/Impella Single-Ventricle Circulation Bidirectional Glenn Circulation ECPR Cardiovascular Care Microsystems Conclusions References 23: Surgical Considerations Introduction Simulation Techniques ECLS Scenarios in a Surgical Context Human Factors in ECLS Team Training Summary References 24: Nursing Aspects of ECPR and ECMO Training Introduction Description of SimZones Zone 0 Foundational Training with Simulation Creating Psychological Safety Zone 1 Foundational Instruction Zone 2 Acute Situational Instruction ECMO-Specific Prerequisite Training Zone 3 Team and Systems Development Training Zone 4 Real-Life Debriefing and Development Ongoing Education Conclusion References 25: ECMO Simulation in the Adult Population – Proning, Awakening and Breathing Trials, and Mobilization Introduction Overview of Prone Positioning (PP) and Mobilization on ECLS Prone Positioning (PP) for Adult Respiratory Distress Syndrome (ARDS) Emerging from Sedation and Mobilization on ECLS Simulation Design for Proning, SAT/SBT, and Mobilization on ECLS Conclusion Appendix 25.1: Proning Protocol of a Mechanically Ventilated Patient Appendix A: Figures Appendix B: Potential Complications of Prone Positioning and Interventions Appendix C: CPR on a Prone Patient Appendix 25.2 Appendix 25.3: Mobilization on ECLS Bibliography 26: The Role of Simulation in Training of ECMO Specialists Introduction Utilization of ECMO Simulation Technology to Assist Learning of the ECMO Specialist ECMO Specialist Training Phase I: 12 Hours of Didactics Phase II: 4 Hours of Hands on Wet Drills Phase III: 12 Hours of Proctoring Phase IV: Testing and Certification Phase V: Continuing Education Advancement of Simulation for Training of ECMO Specialists Technology Cost Environment and Equipment Circuit-Centered Emergency Scenarios Team-Based Approach Conclusion References Part VII: Practical Guide 27: A Practical and Pictorial Guide for Creating ECMO Simulation Introduction Basic Simulation: Water Drills Manikin-Integrated Simulation Circuit Obstruction/Thrombosis Air Entrainment Bleeding Preparation for Cannulation/Extracorporeal Cardiopulmonary Resuscitation (eCPR) Conclusion References Index