Respiratory Failure and Acid-Base Status in Hypothermia M
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Breathing & Buoyancy Control: Stop, Breathe, Think, And
Breathing & Buoyancy control: Stop, Breathe, Think, and then Act For an introduction to this five part series see: House of Cards 'As a child I was fascinated by the way marine creatures just held their position in the water and the one creature that captivated my curiosity and inspired my direction more than any is the Nautilus. Hanging motionless in any depth of water and the inspiration for the design of the submarine with multiple air chambers within its shell to hold perfect buoyancy it is truly a grand master of the art of buoyancy. Buoyancy really is the ultimate Foundation skill in the repertoire of a diver, whether they are a beginner or an explorer. It is the base on which all other skills are laid. With good buoyancy a problem does not become an emergency it remains a problem to be solved calmly under control. The secret to mastery of buoyancy is control of breathing, which also gives many additional advantages to the skill set of a safe diver. Calming one's breathing can dissipate stress, give a sense of well being and control. Once the breathing is calmed, the heart rate will calm too and any situation can be thought through, processed and solved. Always ‘Stop, Breathe, Think and then Act.' Breath control is used in martial arts as a control of the flow of energy, in prenatal training and in child birth. At a simpler more every day level, just pausing to take several slow deep breaths can resolve physical or psychological stress in many scenarios found in daily life. -
Hypothermia Brochure
Visit these websites for more water safety and hypothermia prevention in- formation. What is East Pierce Fire & Rescue Hypothermia? www.eastpiercefire.org Hypothermia means “low temperature”. Washington State Drowning When your body is exposed to cold tem- Prevention Coalition Hypothermia www.drowning-prevention.org perature, it tries to protect itself by keeping a normal body temperature of 98.6°F. It Children’s Hospital & tries to reduce heat loss by shivering and Regional Medical Center In Our Lakes moving blood from your arms and legs to www.seattlechildrens.org the core of your body—head, chest and and Rivers abdomen. Hypothermia Prevention, Recognition and Treatment www.hypothermia.org Stages of Hypothermia Boat Washington Mild Hypothermia www.boatwashington.org (Core body temperature of 98.6°— 93.2°F) Symptoms: Shivering; altered judg- ment; numbness; clumsiness; loss of Boat U.S. Foundation dexterity; pain from cold; and fast www.boatus.com breathing. Boat Safe Moderate Hypothermia www.boatsafe.com (Core body temperature of 93.2°—86°F) Symptoms: Semiconscious to uncon- scious; shivering reduced or absent; lips are blue; slurred speech; rigid n in muscles; appears drunk; slow Eve breathing; and feeling of warmth can occur. mer! Headquarters Station Sum Severe Hypothermia 18421 Old Buckley Hwy (Core body temperature below 86°F) Bonney Lake, WA 98391 Symptoms: Coma; heart stops; and clinical death. Phone: 253-863-1800 Fax: 253-863-1848 Email: [email protected] Know the water. Know your limits. Wear a life vest. By choosing to swim in colder water you Waters in Western Common Misconceptions Washington reduce your survival time. -
Heat Stroke Heat Exhaustion
Environmental Injuries Co lin G. Ka ide, MD , FACEP, FAAEM, UHM Associate Professor of Emergency Medicine Board-Certified Specialist in Hyperbaric Medicine Specialist in Wound Care The Ohio State University Wexner Medical Center The Most Dangerous Drug Combination… Accidental Testosterone Hypothermia and Alcohol! The most likely victims… Photo: Ralf Roletschek 1 Definition of Blizzard Hypothermia of Subnormal T° when the body is unable to generate sufficient heat to sustain normal functions Core Temperature < 95°F 1979 (35°C) Most Important Temperatures Thermoregulation 95°F (35° C) Hyper/Goofy The body uses a Poikilothermic shell to maintain a Homeothermic core 90°F (32°C) Shivering Stops Maintains core T° w/in 1.8°F(1°C) 80°F (26. 5°C) Vfib, Coma Hypothalamus Skin 65°F (18°C) Asystole Constant T° 96.896.8-- 100.4° F 2 Thermoregulation The 2 most important factors Only 3 Causes! Shivering (10x increase) Decreased Heat Production Initiated by low skin temperature Increased Heat Loss Warming the skin can abolish Impaired Thermoregulation shivering! Peripheral vasoconstriction Sequesters heat Predisposing Predisposing Factors Factors Decreased Production Increased Loss –Endocrine problems Radiation Evaporation • Thyroid Conduction* • Adrenal Axis Convection** –Malnutrition *Depends on conducting material **Depends on wind velocity –Neuromuscular disease 3 Predisposing Systemic Responses CNS Factors T°< 90°F (34°C) Impaired Regulation Hyperactivity, excitability, recklessness CNS injury T°< 80°F (27°C) Hypothalamic injuries Loss of voluntary -
Title: Drowning and Therapeutic Hypothermia: Dead Man Walking
Title: Drowning and Therapeutic Hypothermia: Dead Man Walking Author(s): Angela Kavenaugh, D.O., Jamie Cohen, D.O., Jennifer Davis MD FAAP, Department of PICU Affiliation(s): Chris Evert Children’s Hospital, Broward Health Medical Center ABSTRACT BODY: Background: Drowning is the second leading cause of death in children and is associated with severe morbidity and mortality, most often due to hypoxic-ischemic encephalopathy. Those that survive are often left with debilitating neurological deficits. Therapeutic Hypothermia after resuscitation from ventricular fibrillation or pulseless ventricular tachycardia induced cardiac arrest is the standard of care in adults and has also been proven to have beneficial effects that persist into early childhood when utilized in neonatal birth asphyxia, but has yet to be accepted into practice for pediatrics. Objective: To present supportive evidence that Therapeutic Hypothermia improves mortality and morbidity specifically for pediatric post drowning patients. Case Report: A five year old male presented to the Emergency Department after pool submersion of unknown duration. He was found to have asphyxial cardiac arrest and received bystander CPR, which was continued by EMS for a total of 10 minutes, including 2 doses of epinephrine. CPR continued into the emergency department. Upon presentation to the ED, he was found to have fixed and dilated pupils, unresponsiveness, with a GCS of 3. Upon initial pulse check was found to have return of spontaneous circulation, with sinus tachycardia. His blood gas revealed 6.86/45/477/8/-25. He was intubated, given 2 normal saline boluses and 2 mEq/kg of Sodium Bicarbonate. The initial head CT was normal. -
Asphyxia Neonatorum
CLINICAL REVIEW Asphyxia Neonatorum Raul C. Banagale, MD, and Steven M. Donn, MD Ann Arbor, Michigan Various biochemical and structural changes affecting the newborn’s well being develop as a result of perinatal asphyxia. Central nervous system ab normalities are frequent complications with high mortality and morbidity. Cardiac compromise may lead to dysrhythmias and cardiogenic shock. Coagulopathy in the form of disseminated intravascular coagulation or mas sive pulmonary hemorrhage are potentially lethal complications. Necrotizing enterocolitis, acute renal failure, and endocrine problems affecting fluid elec trolyte balance are likely to occur. Even the adrenal glands and pancreas are vulnerable to perinatal oxygen deprivation. The best form of management appears to be anticipation, early identification, and prevention of potential obstetrical-neonatal problems. Every effort should be made to carry out ef fective resuscitation measures on the depressed infant at the time of delivery. erinatal asphyxia produces a wide diversity of in molecules brought into the alveoli inadequately com Pjury in the newborn. Severe birth asphyxia, evi pensate for the uptake by the blood, causing decreases denced by Apgar scores of three or less at one minute, in alveolar oxygen pressure (P02), arterial P02 (Pa02) develops not only in the preterm but also in the term and arterial oxygen saturation. Correspondingly, arte and post-term infant. The knowledge encompassing rial carbon dioxide pressure (PaC02) rises because the the causes, detection, diagnosis, and management of insufficient ventilation cannot expel the volume of the clinical entities resulting from perinatal oxygen carbon dioxide that is added to the alveoli by the pul deprivation has been further enriched by investigators monary capillary blood. -
Den170044 Summary
DE NOVO CLASSIFICATION REQUEST FOR CLEARMATE REGULATORY INFORMATION FDA identifies this generic type of device as: Isocapnic ventilation device. An isocapnic ventilation device is a prescription device used to administer a blend of carbon dioxide and oxygen gases to a patient to induce hyperventilation. This device may be labeled for use with breathing circuits made of reservoir bags (21 CFR 868.5320), oxygen cannulas (21 CFR 868.5340), masks (21 CFR 868.5550), valves (21 CFR 868.5870), resuscitation bags (21 CFR 868.5915), and/or tubing (21 CFR 868.5925). NEW REGULATION NUMBER: 21 CFR 868.5480 CLASSIFICATION: Class II PRODUCT CODE: QFB BACKGROUND DEVICE NAME: ClearMateTM SUBMISSION NUMBER: DEN170044 DATE OF DE NOVO: August 23, 2017 CONTACT: Thornhill Research, Inc. 5369 W. Wallace Ave Scottsdale, AZ 85254 INDICATIONS FOR USE ClearMateTM is intended to be used by emergency department medical professionals as an adjunctive treatment for patients suffering from carbon monoxide poisoning. The use of ClearMateTM enables accelerated elimination of carbon monoxide from the body by allowing isocapnic hyperventilation through simulated partial rebreathing. LIMITATIONS Intended Patient Population is adults aged greater than 16 years old and a minimum of 40 kg (80.8 lbs) ClearMateTM is intended to be used by emergency department medical professionals. This device should always be used as adjunctive therapy; not intended to replace existing protocol for treating carbon monoxide poisoning. When providing treatment to a non-spontaneously breathing patient using the ClearMate™ non-spontaneous breathing patient circuit, CO2 monitoring equipment for the measurement of expiratory carbon dioxide concentration must be used. PLEASE REFER TO THE LABELING FOR A MORE COMPLETE LIST OF WARNINGS AND CAUTIONS. -
Resident Scholarly Work
RESIDENT SCHOLARLY WORK Process Improvement 2020-2021 CPIP Curriculum Ongoing Projects: Alexander Gavralidis, Stephanie tin, Matthew Macey, Allisa Alport, Beenish Furquan, Justin Byrne • Unnecessary laboratory draws in patients at a Community Hospital - evaluating whether inpatients at Salem Hospital staying overnight for a social reason undergo unnecessary laboratory draws Daria Ade, Mayuri Rapolu, Usman Mughal, Eva Kubrova, Barbara Lambl, Patrick Lee • Procalcitonin utilization to tailor antibiotic use at Salem Hospital- part of Antibiotic Stewardship program Sneha Lakshman, Arturo Castro, Ashley So, George Kavalam, Hassan Kazmi, Daniela Urma, Patrick Gordan • Development of a standardized ultrasound guided central venus catheter insertion curriculum Nupur Dandawate, Farideh Davoudi , Usama Talib, Patrick Lee • Inpatient Echo utilization – guidelines updates Anneris Estevez, Usmam Mughal, Zach Abbott, Evita Joseph, Caroline Cubbison, Faith Omede, Daniela Urma • Decrease health disparities for Hispanic community at Lynn NSPG by standardizing diabetes education referral patterns and patient education Imama Ahmad, Usama Talib, Muhammad Akash, Pablo Ledesma, Patrick Lee • Inpatient Telemetry Utilization Usman Mughal, Anneris Estevez, Patrick Lee, Barbara Lambl • Health Disparities & Covid-19 Impact on Minorities, sponsored by Dr. Patrick Lee, Chair of Medicine, Dr. Barb Lambl, Infectious Disease 2017-2020 Alexander Gavralidis, Emre Tarhan, Anneris Estevez, Daniela Urma, Austin Turner, Patrick Lee • Expanded Access to Convalescent Plasma for the Treatment of Patients with COVID-19 – 5/2020 implementing use of Convalescent Plasma to MGB Salem hospital in collaboration with research team. Arturo Castro-Diaz, Dr. Daniela Urma • Improving Hospital Care and Post - acute Care of SARS CoV2 patients 4/2020- 8/2020 Caroline Cubbison, Sohaib Ansari, Adam Matos • Code Status Documentation for admitted patients at Salem Hospital - Project accepted to SHM national meeting to be presented in April 2020 Caroline Cubbison, Coleen Reid, Dr. -
BTS Guideline for Oxygen Use in Adults in Healthcare and Emergency
BTS guideline BTS guideline for oxygen use in adults in healthcare Thorax: first published as 10.1136/thoraxjnl-2016-209729 on 15 May 2017. Downloaded from and emergency settings BRO’Driscoll,1,2 L S Howard,3 J Earis,4 V Mak,5 on behalf of the British Thoracic Society Emergency Oxygen Guideline Group ▸ Additional material is EXECUTIVE SUMMARY OF THE GUIDELINE appropriate oxygen therapy can be started in the published online only. To view Philosophy of the guideline event of unexpected clinical deterioration with please visit the journal online ▸ (http://dx.doi.org/10.1136/ Oxygen is a treatment for hypoxaemia, not hypoxaemia and also to ensure that the oxim- thoraxjnl-2016-209729). breathlessness. Oxygen has not been proven to etry section of the early warning score (EWS) 1 have any consistent effect on the sensation of can be scored appropriately. Respiratory Medicine, Salford ▸ Royal Foundation NHS Trust, breathlessness in non-hypoxaemic patients. The target saturation should be written (or Salford, UK ▸ The essence of this guideline can be summarised ringed) on the drug chart or entered in an elec- 2Manchester Academic Health simply as a requirement for oxygen to be prescribed tronic prescribing system (guidance on figure 1 Sciences Centre (MAHSC), according to a target saturation range and for those (chart 1)). Manchester, UK 3Hammersmith Hospital, who administer oxygen therapy to monitor the Imperial College Healthcare patient and keep within the target saturation range. 3 Oxygen administration NHS Trust, London, UK ▸ The guideline recommends aiming to achieve ▸ Oxygen should be administered by staff who are 4 University of Liverpool, normal or near-normal oxygen saturation for all trained in oxygen administration. -
Hypothermia – Signs and Symptoms Aside from the Cold That Is Felt and the Shivering That May Occur, Initially Mental Function Is Most Affected
December 2010 – ISSUE 123 DIRECTOR’S NOTE As we prepare to embark on a new year, I would like to take a moment to highlight a few of the forestry transportation safety improvements and initiatives that took place in BC in 2010; The establishment of District wide Road Safety Committees throughout the province. Provincial standardization of radio calling procedures and resource road signage. The expansion of the Council’s Trucksafe program to include issues relating to marine and air transportation safety. Moving forward into 2011, further gains in transportation safety awareness and improved results can be expected through the following initiatives; The identification and development of a Log Truck Driver training program. The establishment of provincial level Trucking Safety Technical Advisory Committees. The development of Passenger Safety Guides for helicopter, float plane and marine transportation of forestry workers. Research and development of programs targeted towards improving the health and wellness of drivers. We look forward to your continued interest and support of this publication and the other safety improvement initiatives carried out by the BC Forest Safety Council. Thank you and have a safe 2011 Chuck Carter, RPF Now that winter is in full force, ensuring preparedness and response for the cold and sometimes extreme conditions while working can make a big difference in your day. Vehicles and equipment are susceptible to break down in freezing temperatures. It’s necessary to ensure proper clothing is worn for the outside temperatures but also it is also important to ensure that there are the resources to keep warm for extended exposure within the vehicle. -
Failure of Hypothermia As Treatment for Asphyxiated Newborn Rabbits R
Arch Dis Child: first published as 10.1136/adc.51.7.512 on 1 July 1976. Downloaded from Archives of Disease in Childhood, 1976, 51, 512. Failure of hypothermia as treatment for asphyxiated newborn rabbits R. K. OATES and DAVID HARVEY From the Institute of Obstetrics and Gynaecology, Queen Charlotte's Maternity Hospital, London Oates, R. K., and Harvey, D. (1976). Archives of Disease in Childhood, 51, 512. Failure of hypothermia as treatment for asphyxiated newborn rabbits. Cooling is known to prolong survival in newborn animals when used before the onset of asphyxia. It has therefore been advocated as a treatment for birth asphyxia in humans. Since it is not possible to cool a human baby before the onset of birth asphyxia, experiments were designed to test the effect of cooling after asphyxia had already started. Newborn rabbits were asphyxiated in 100% nitrogen and were cooled either quickly (drop of 1 °C in 45 s) or slowly (drop of 1°C in 2 min) at varying intervals after asphyxia had started. When compared with controls, there was an increase in survival only when fast cooling was used early in asphyxia. This fast rate of cooling is impossible to obtain in a human baby weighing from 30 to 60 times more than a newborn rabbit. Further litters ofrabbits were asphyxiated in utero. After delivery they were placed in environmental temperatures of either 37 °C, 20 °C, or 0 °C and observed for spon- taneous recovery. The animals who were cooled survived less often than those kept at 37 'C. The results of these experiments suggest that hypothermia has little to offer in the treatment of birth asphyxia in humans. -
Prioritization of Health Services
PRIORITIZATION OF HEALTH SERVICES A Report to the Governor and the 74th Oregon Legislative Assembly Oregon Health Services Commission Office for Oregon Health Policy and Research Department of Administrative Services 2007 TABLE OF CONTENTS List of Figures . iii Health Services Commission and Staff . .v Acknowledgments . .vii Executive Summary . ix CHAPTER ONE: A HISTORY OF HEALTH SERVICES PRIORITIZATION UNDER THE OREGON HEALTH PLAN Enabling Legislatiion . 3 Early Prioritization Efforts . 3 Gaining Waiver Approval . 5 Impact . 6 CHAPTER TWO: PRIORITIZATION OF HEALTH SERVICES FOR 2008-09 Charge to the Health Services Commission . .. 25 Biennial Review of the Prioritized List . 26 A New Prioritization Methodology . 26 Public Input . 36 Next Steps . 36 Interim Modifications to the Prioritized List . 37 Technical Changes . 38 Advancements in Medical Technology . .42 CHAPTER THREE: CLARIFICATIONS TO THE PRIORITIZED LIST OF HEALTH SERVICES Practice Guidelines . 47 Age-Related Macular Degeneration (AMD) . 47 Chronic Anal Fissure . 48 Comfort Care . 48 Complicated Hernias . 49 Diagnostic Services Not Appearing on the Prioritized List . 49 Non-Prenatal Genetic Testing . 49 Tuberculosis Blood Test . 51 Early Childhood Mental Health . 52 Adjustment Reactions In Early Childhood . 52 Attention Deficit and Hyperactivity Disorders in Early Childhood . 53 Disruptive Behavior Disorders In Early Childhood . 54 Mental Health Problems In Early Childhood Related To Neglect Or Abuse . 54 Mood Disorders in Early Childhood . 55 Erythropoietin . 55 Mastocytosis . 56 Obesity . 56 Bariatric Surgery . 56 Non-Surgical Management of Obesity . 58 PET Scans . 58 Prenatal Screening for Down Syndrome . 59 Prophylactic Breast Removal . 59 Psoriasis . 59 Reabilitative Therapies . 60 i TABLE OF CONTENTS (Cont’d) CHAPTER THREE: CLARIFICATIONS TO THE PRIORITIZED LIST OF HEALTH SERVICES (CONT’D) Practice Guidelines (Cont’d) Sinus Surgery . -
Thermoregulatory Correlates of Nausea in Rats and Musk Shrews
www.impactjournals.com/oncotarget/ Oncotarget, Vol. 5, No. 6 Thermoregulatory correlates of nausea in rats and musk shrews Sukonthar Ngampramuan1, Matteo Cerri2, Flavia Del Vecchio2, Joshua J. Corrigan3, Amornrat Kamphee1, Alexander S. Dragic3, John A. Rudd4, Andrej A. Romanovsky3, and Eugene Nalivaiko5 1 Research Center for Neuroscience and Institute of Molecular Bioscience, Mahidol University, Bangkok, Thailand; 2 Department of Biomedical and Motor Sciences, University of Bologna, Bologna, Italy; 3 FeverLab, Trauma Research, St. Joseph’s Hospital and Medical Center, Phoenix, AZ, USA; 4 School of Biomedical Sciences, Chinese University of Hong Kong, Hong Kong, China; 5 School of Biomedical Sciences and Pharmacy, University of Newcastle, Newcastle, NSW, Australia. Correspondence to: Eugene Nalivaiko, email: [email protected] Correspondence to: Andrej A. Romanovsky, email: [email protected] Keywords: nausea, chemotherapy, temperature, hypothermia. Received: December 21, 2013 Accepted: February 21, 2014 Published: February 22 2014 This is an open-access article distributed under the terms of the Creative Commons Attribution License, which permits unrestricted use, distribution, and reproduction in any medium, provided the original author and source are credited. ABSTRACT: Nausea is a prominent symptom and major cause of complaint for patients receiving anticancer chemo- or radiation therapy. The arsenal of anti-nausea drugs is limited, and their efficacy is questionable. Currently, the development of new compounds with anti-nausea activity is hampered by the lack of physiological correlates of nausea. Physiological correlates are needed because common laboratory rodents lack the vomiting reflex. Furthermore, nausea does not always lead to vomiting. Here, we report the results of studies conducted in four research centers to investigate whether nausea is associated with any specific thermoregulatory symptoms.