Minimum Standards for Intensive Care Units
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The Origin of Bimaristans (Hospitals) in Islamic Medical History
The Origin of Bimaristans (Hospitals) in Islamic Medical History IMPORTANT NOTICE: Author: Dr. Sharif Kaf Al-Ghazal Chief Editor: Prof. Mohamed El-Gomati All rights, including copyright, in the content of this document are owned or controlled for these purposes by FSTC Limited. In Deputy Editor: Prof. Mohammed Abattouy accessing these web pages, you agree that you may only download the content for your own personal non-commercial Associate Editor: Dr. Salim Ayduz use. You are not permitted to copy, broadcast, download, store (in any medium), transmit, show or play in public, adapt or Release Date: April 2007 change in any way the content of this document for any other purpose whatsoever without the prior written permission of FSTC Publication ID: 682 Limited. Material may not be copied, reproduced, republished, Copyright: © FSTC Limited, 2007 downloaded, posted, broadcast or transmitted in any way except for your own personal non-commercial home use. Any other use requires the prior written permission of FSTC Limited. You agree not to adapt, alter or create a derivative work from any of the material contained in this document or use it for any other purpose other than for your personal non-commercial use. FSTC Limited has taken all reasonable care to ensure that pages published in this document and on the MuslimHeritage.com Web Site were accurate at the time of publication or last modification. Web sites are by nature experimental or constantly changing. Hence information published may be for test purposes only, may be out of date, or may be the personal opinion of the author. -
Speakers and Topics
SPEAKERS AND TOPICS SALZBURG WEILL CORNELL SEMINAR ANESTHESIOLOGY AND INTENSIVE CARE Sunday, October 18 – Saturday, October 24, 2020 Schloss Arenberg, Salzburg, Austria Course Director: Hugh C. Hemmings Jr., MD, PhD, FRCA Co-Course Director: Klaus Markstaller, MD Co-Course Director: Kane O. Pryor, MD Co-Course Director: Peter Marhofer, MD SPEAKERS AND TOPICS: Meghann M. Fitzgerald, MD Assistant Professor of Clinical Anesthesiology Weill Cornell Medical College Assistant Attending Anesthesiologist NewYork-Presbyterian Hospital Weill Cornell Medicine Anesthesiology New York, NY USA • Robotic Cardiac Surgery • Blood Management in Cardiac Surgery • TAAA Repair Lukas Kirchmair, MD, PD, DESA, EDRA Department of Anesthesiology and Intensive Care District Hospital Schwaz Schwaz Austria • Polytrauma Management Rudolf Likar, MD, MSc Professor Head, Department of Anesthesiology and Intensive Care General Hospital Klagenfurt Klagenfurt am Woerthersee Austria • Invasive Methods in Cancer Pain • Invasive Methods in Low Back Pain © Open Medical Institute 2020 SPEAKERS AND TOPICS Peter Marhofer, MD Professor of Anesthesia and Intensive Care Medicine Department of Anesthesia and Intensive Care Medicine Medical University of Vienna Vienna Austria • Principles of Regional Anaesthesia I • Principles of Regional Anaesthesia II • Ultrasound in Anaesthesia and Intensive Care Medicine I • Ultrasound in Anaesthesia and Intensive Care Medicine II Rohan Panchamia, MD Assistant Professor of Clinical Anesthesiology Weill Cornell Medical College Assistant Attending -
Patient-Monitoring Systems
17 Patient-Monitoring Systems REED M. GARDNER AND M. MICHAEL SHABOT After reading this chapter,1 you should know the answers to these questions: ● What is patient monitoring, and why is it done? ● What are the primary applications of computerized patient-monitoring systems in the intensive-care unit? ● How do computer-based patient monitors aid health professionals in collecting, analyzing, and displaying data? ● What are the advantages of using microprocessors in bedside monitors? ● What are the important issues for collecting high-quality data either automatically or manually in the intensive-care unit? ● Why is integration of data from many sources in the hospital necessary if a computer is to assist in critical-care-management decisions? 17.1 What Is Patient Monitoring? Continuous measurement of patient parameters such as heart rate and rhythm, respira- tory rate, blood pressure, blood-oxygen saturation, and many other parameters have become a common feature of the care of critically ill patients. When accurate and imme- diate decision-making is crucial for effective patient care, electronic monitors frequently are used to collect and display physiological data. Increasingly, such data are collected using non-invasive sensors from less seriously ill patients in a hospital’s medical-surgical units, labor and delivery suites, nursing homes, or patients’ own homes to detect unex- pected life-threatening conditions or to record routine but required data efficiently. We usually think of a patient monitor as something that watches for—and warns against—serious or life-threatening events in patients, critically ill or otherwise. Patient monitoring can be rigorously defined as “repeated or continuous observations or meas- urements of the patient, his or her physiological function, and the function of life sup- port equipment, for the purpose of guiding management decisions, including when to make therapeutic interventions, and assessment of those interventions” (Hudson, 1985, p. -
Capnography 101 Oxygenation and Ventilation
It’s Time to Start Using it! Capnography 101 Oxygenation and Ventilation What is the difference? Oxygenation and Ventilation Ventilation O Oxygenation (capnography) 2 (oximetry) CO Cellular 2 Metabolism Capnographic Waveform • Capnograph detects only CO2 from ventilation • No CO2 present during inspiration – Baseline is normally zero CD AB E Baseline Capnogram Phase I Dead Space Ventilation • Beginning of exhalation • No CO2 present • Air from trachea, posterior pharynx, mouth and nose – No gas exchange occurs there – Called “dead space” Capnogram Phase I Baseline A B I Baseline Beginning of exhalation Capnogram Phase II Ascending Phase • CO2 from the alveoli begins to reach the upper airway and mix with the dead space air – Causes a rapid rise in the amount of CO2 • CO2 now present and detected in exhaled air Alveoli Capnogram Phase II Ascending Phase C Ascending II Phase Early A B Exhalation CO2 present and increasing in exhaled air Capnogram Phase III Alveolar Plateau • CO2 rich alveolar gas now constitutes the majority of the exhaled air • Uniform concentration of CO2 from alveoli to nose/mouth Capnogram Phase III Alveolar Plateau Alveolar Plateau CD III AB CO2 exhalation wave plateaus Capnogram Phase III End-Tidal • End of exhalation contains the highest concentration of CO2 – The “end-tidal CO2” – The number seen on your monitor • Normal EtCO2 is 35-45mmHg Capnogram Phase III End-Tidal End-tidal C D AB End of the the wave of exhalation Capnogram Phase IV Descending Phase • Inhalation begins • Oxygen fills airway • CO2 level quickly -
COVID-19 Pneumonia: Different Respiratory Treatment for Different Phenotypes? L
Intensive Care Medicine EDITORIAL Un-edited accepted proof COVID-19 pneumonia: different respiratory treatment for different phenotypes? L. Gattinoni1, D. Chiumello2, P. Caironi3, M. Busana1, F. Romitti1, L. Brazzi4, L. Camporota5 Affiliations: 1Department of Anesthesiology and Intensive Care, Medical University of GöttinGen 4Department of Anesthesia, Intensive Care and Emergency - 'Città della Salute e della Scienza’ Hospital - Turin 5Department of Adult Critical Care, Guy’s and St Thomas’ NHS Foundation Trust, Health Centre for Human and Applied Physiological Sciences - London Corresponding author: Luciano Gattinoni Department of Anesthesiology and Intensive Care, Medical University of Göttingen, Robert-Koch Straße 40, 37075, Göttingen, Germany Conflict of interests: The authors have no conflict of interest to disclose NOTE: This article is the pre-proof author’s accepted version. The final edited version will appear soon on the website of the journal Intensive Care Medicine with the following DOI number: DOI 10.1007/s00134-020-06033-2 1 Gattinoni L. et al. COVID-19 pneumonia: different respiratory treatment for different phenotypes? (2020) Intensive Care Medicine; DOI: 10.1007/s00134-020-06033-2 Intensive Care Medicine EDITORIAL Un-edited accepted proof The Surviving Sepsis CampaiGn panel (ahead of print, DOI: 10.1007/s00134-020-06022-5) recently recommended that “mechanically ventilated patients with COVID-19 should be managed similarly to other patients with acute respiratory failure in the ICU.” Yet, COVID-19 pneumonia [1], despite falling in most of the circumstances under the Berlin definition of ARDS [2], is a specific disease, whose distinctive features are severe hypoxemia often associated with near normal respiratory system compliance (more than 50% of the 150 patients measured by the authors and further confirmed by several colleagues in Northern Italy). -
Sepsis: a Guide for Patients & Relatives
SEPSIS: A GUIDE FOR PATIENTS & RELATIVES CONTENTS ABOUT SEPSIS ABOUT SEPSIS: INTRODUCTION P3 What is sepsis? In the UK, at least 150,000* people each year suffer from serious P4 Why does sepsis happen? sepsis. Worldwide it is thought that 3 in a 1000 people get sepsis P4 Different types of sepsis P4 Who is at risk of getting sepsis? each year, which means that 18 million people are affected. P5 What sepsis does to your body Sepsis can move from a mild illness to a serious one very quickly, TREATMENT OF SEPSIS which is very frightening for patients and their relatives. P7 Why did I need to go to the Critical Care Unit? This booklet is for patients and relatives and it explains sepsis P8 What treatment might I have had? and its causes, the treatment needed and what might help after P9 What other help might I have received in the Critical Care Unit? having sepsis. It has been written by the UK Sepsis Trust, a charity P10 How might I have felt in the Critical Care Unit? which supports people who have had sepsis and campaigns to P11 How long might I stay in the Critical Care Unit and hospital? raise awareness of the illness, in collaboration with ICU steps. P11 Moving to a general ward and The Outreach Team/Patient at Risk Team If a patient cannot read this booklet for him or herself, it may be helpful for AFTER SEPSIS relatives to read it. This will help them to understand what the patient is going through and they will be more able to support them as they recover. -
Monitoring Anesthetic Depth
ANESTHETIC MONITORING Lyon Lee DVM PhD DACVA MONITORING ANESTHETIC DEPTH • The central nervous system is progressively depressed under general anesthesia. • Different stages of anesthesia will accompany different physiological reflexes and responses (see table below, Guedel’s signs and stages). Table 1. Guedel’s (1937) Signs and Stages of Anesthesia based on ‘Ether’ anesthesia in cats. Stages Description 1 Inducement, excitement, pupils constricted, voluntary struggling Obtunded reflexes, pupil diameters start to dilate, still excited, 2 involuntary struggling 3 Planes There are three planes- light, medium, and deep More decreased reflexes, pupils constricted, brisk palpebral reflex, Light corneal reflex, absence of swallowing reflex, lacrimation still present, no involuntary muscle movement. Ideal plane for most invasive procedures, pupils dilated, loss of pain, Medium loss of palpebral reflex, corneal reflexes present. Respiratory depression, severe muscle relaxation, bradycardia, no Deep (early overdose) reflexes (palpebral, corneal), pupils dilated Very deep anesthesia. Respiration ceases, cardiovascular function 4 depresses and death ensues immediately. • Due to arrival of newer inhalation anesthetics and concurrent use of injectable anesthetics and neuromuscular blockers the above classic signs do not fit well in most circumstances. • Modern concept has two stages simply dividing it into ‘awake’ and ‘unconscious’. • One should recognize and familiarize the reflexes with different physiologic signs to avoid any untoward side effects and complications • The system must be continuously monitored, and not neglected in favor of other signs of anesthesia. • Take all the information into account, not just one sign of anesthetic depth. • A major problem faced by all anesthetists is to avoid both ‘too light’ anesthesia with the risk of sudden violent movement and the dangerous ‘too deep’ anesthesia stage. -
Intensive Care Medicine in 10 Years
BOOKS,FILMS,TAPES &SOFTWARE are difficult to read, the editing is inconsis- tory for critical care medicine. The book is initiate a planning process for leaders who tent, and the content that was omitted indi- divided into sections entitled “Setting the recognize the imperative for change and ad- cates that “efforts to bring this work from Stage,” “Diagnostic, Therapeutic, and In- aptation in critical care. Accordingly, I rec- conception to fruition in less than one year” formation Technologies 10 Years From ommend this book to individuals and groups (as stated in the book’s acknowledgments Now,” “How Might Critical Care Medicine engaged in all aspects of critical care man- section) prevented this book from being a Be Organized and Regulated?” “Training,” agement, now and in the future. “gold standard” text. and “The Critical Care Agenda.” Each sec- J Christopher Farmer MD tion consists of a series of essays/chapters Marie E Steiner MD MSc Department of Medicine that discuss various aspects of the topic, and Department of Pediatrics Mayo Clinic all the sections have solid scientific support Divisions of Pulmonary/ Rochester, Minnesota and bibliographies. The individual topics Critical Care and Hematology/ span the entire range of critical-care clinical Oncology/Blood and Marrow The author reports no conflict of interest related practice, administration, quality and safety, Transplantation to the content of this book review. and so forth. The contributors are acknowl- University Children’s Hospital, Fairview edged senior clinical and scientific leaders University of Minnesota Mechanical Ventilation: Physiological in critical care medicine from around the Minneapolis, Minnesota and Clinical Applications, 4th edition. -
Intravenous Immunoglobulin Fails to Improve ARDS in Patients
Prohaska et al. Journal of Intensive Care (2018) 6:11 DOI 10.1186/s40560-018-0278-8 RESEARCH Open Access Intravenous immunoglobulin fails to improve ARDS in patients undergoing ECMO therapy Stefanie Prohaska1, Andrea Schirner1, Albina Bashota1, Andreas Körner1, Gunnar Blumenstock2 and Helene A. Haeberle1* Abstract Background: Acute respiratory distress syndrome (ARDS) is associated with high mortality rates. ARDS patients suffer from severe hypoxemia, and extracorporeal membrane oxygenation (ECMO) therapy may be necessary to ensure oxygenation. ARDS has various etiologies, including trauma, ischemia-reperfusion injury or infections of various origins, and the associated immunological responses may vary. To support the immunological response in this patient collective, we used intravenous IgM immunoglobulin therapy to enhance the likelihood of pulmonary recovery. Methods: ARDS patients admitted to the intensive care unit (ICU) who were placed on ECMO and treated with (IVIG group; n = 29) or without (control group; n = 28) intravenous IgM-enriched immunoglobulins for 3 days in the initial stages of ARDS were analyzed retrospectively. Results: The baseline characteristics did not differ between the groups, although the IVIG group showed a significantly reduced oxygenation index compared to the control group. We found no differences in the length of ICU stay or ventilation parameters. We did not find a significant difference between the groups for the extent of inflammation or for overall survival. Conclusion: We conclude that administration -
Basic Life Support + First Aid for Healthcare Providers 2020 Course Introduction
Basic Life Support + First Aid for Healthcare Providers 2020 Course Introduction SECTION 1: Foundational concepts of BCLS SECTION 2: Response to an adult in cardiac arrest SECTION 3: Basic Life Support for infants and children SECTION 4: Automated external defibrillation in infants and children SECTION 5: Preventing cardiac arrest SECTION 6: First aid for adults SECTION 7: First aid for children Activity Summary • Activity Title: Basic Life Support (BLS) & First Aid (Cardiopulmonary Resuscitation (CPR), Automated External Defibrillator (AED), and First Aid) • Release date: 2021-06-01 • Expiration date: 2024-06-01 • Estimated time to complete activity: 8 hours • This course is accessible with any web browser. We recommend recent versions of • Google Chrome, Internet Explorer 9 and later, or Apple iPad. • This course is jointly provided by Pacific Medical Training and Postgraduate Institute for Medicine (PIM). You may reach PIM at [email protected]. Target Audience This activity has been designed to meet the educational needs of physicians, physician assistants, nurse practitioners, registered nurses, pharmacists and dentists involved in the care of patients who require advanced life support. 3103 Philmont Ave, Suite 308 • Huntingdon Valley, PA 19006 • 800-417-1748 page 1 Educational Objectives After completing this activity, the participant should be better able to: • Explain the change in emphasis from airway and ventilation to compressions and perfusion. • Select the correct order of interventions for the victim of cardiopulmonary arrest. • List the steps required to safely operate an AED. • Differentiate between adult and pediatric guidelines for CPR. • Explain how to apply the various first aid interventions. • Describe how to apply the various pediatric first aid interventions. -
Part 5: Adult Basic Life Support and Cardiopulmonary Resuscitation Quality 1
Part 5: Adult Basic Life Support and Cardiopulmonary Resuscitation Quality 1 Part 5: Adult Basic Life Support and Cardiopulmonary Resuscitation Quality Web-based Integrated 2010 & 2015 American Heart Association Guidelines for Cardiopulmonary Resuscitation and Emergency Cardiovascular Care Key Words: cardiac arrest cardiopulmonary resuscitation defibrillation emergency 1 Highlights & Introduction 1.1 Highlights: Lay Rescuer CPR Summary of Key Issues and Major Changes Key issues and major changes in the 2015 Guidelines Update recommendations for adult CPR by lay rescuers include the following: The crucial links in the out-of-hospital adult Chain of Survival are unchanged from 2010, with continued emphasis on the simplified universal Adult Basic Life Support (BLS) Algorithm. The Adult BLS Algorithm has been modified to reflect the fact that rescuers can activate an emergency response (ie, through use of a mobile telephone) without leaving the victim’s side. It is recommended that communities with people at risk for cardiac arrest implement PAD programs. Recommendations have been strengthened to encourage immediate recognition of unresponsiveness, activation of the emergency response system, and initiation of CPR if the lay rescuer finds an unresponsive victim is not breathing or not breathing normally (eg, gasping). Emphasis has been increased about the rapid identification of potential cardiac arrest by dispatchers, with immediate provision of CPR instructions to the caller (ie, dispatch-guided CPR). The recommended sequence for a single rescuer has been confirmed: the single rescuer is to initiate chest compressions before giving rescue breaths (C-A-B rather than A-B-C) to reduce delay to first compression. The single rescuer should begin CPR with 30 chest compressions followed by 2 breaths. -
HOSPITAL BEDS and RELATED EQUIPMENT DME101.001 Bluereview POSTED DATE: 11/17/2003 EFFECTIVE DATE: 2/27/2004 ______
HOSPITAL BEDS AND RELATED EQUIPMENT DME101.001 BlueReview POSTED DATE: 11/17/2003 EFFECTIVE DATE: 2/27/2004 _____________________________________________________________________________ COVERAGE: HOSPITAL BEDS Various types of hospital beds may be medically necessary when the selected appropriate criteria are met: A. FIXED HEIGHT (one or more of the following is required): · The patient requires positioning of the body for the alleviation of pain in ways not feasible with an ordinary bed. · The patient requires the head of the bed to be elevated more than 30 degrees most of the time due to congestive heart failure, chronic pulmonary disease, or problems with aspiration. Pillows or wedges should first have been considered. · The patient requires traction equipment that can only be attached to a hospital bed. B. VARIABLE HEIGHT (in addition to one of the fixed height criteria): · The patient requires a bed height different than a fixed height hospital bed to permit transfers to chair, wheelchair or standing position. C. SEMI-ELECTRIC: · In addition to the all indications for A and B, the patient requires frequent or immediate changes in body position. D. TOTAL ELECTRIC: · This type of bed is rarely indicated EXCEPT in cases of spinal cord injuries, brain injury patients, and patients with neurological damage that prevents them from getting in or out of bed. These patients also require assistance with the basic activities of daily living (i.e., bathing, use of toilet). E. HEAVY DUTY EXTRA WIDE: · Is covered if the patient meets one of the criteria for a fixed height hospital bed and patient weight is more than 350 pounds but does not exceed 600 pounds.