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Background: New York City was the epicenter of the initial surge of the COVID-19 pandemic in the United States. Tracheostomy is a critical procedure in the care of patients with COVID-19. We hypothesized that early tracheostomy would decrease the length of time on sedation, time on mechanical ventilation, intensive care unit length of stay, and mortality. Methods: A retrospective analysis of outcomes for all patients with COVID-19 who underwent tracheostomy during the first year of the COVID-19 pandemic at the Mount Sinai Hospital in New York City, New York. All adult intensive care units at the Mount Sinai Hospital, New York. Patients/subjects: 888 patients admitted to intensive care with COVID-19. Results: All patients admitted to the intensive care unit with COVID-19 (888) from 1 March 2020 to 1 March 2021 were analyzed and separated further into those intubated (544) and those requiring tracheostomy (177). Of those receiving tracheostomy, outcomes were analyzed for early (≤12 days) or late (>12 days) tracheostomy. Demographics, medical history, laboratory values, type of oxygen and ventilatory support, and clinical outcomes were recorded and analyzed. Conclusions: Early tracheostomy resulted in reduced duration of mechanical ventilation, reduced hospital length of stay, and reduced intensive care unit length of stay in patients admitted to the intensive care unit with COVID-19. There was no effect on overall mortality.
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BACKGROUND: Transvenous pacemaker placement is an integral component of therapy for severe dysrhythmias and a core skill in emergency medicine. OBJECTIVE: This narrative review provides a focused evaluation of transvenous pacemaker placement in the emergency department setting. DISCUSSION: Temporary cardiac pacing can be a life-saving procedure. Indications for pacemaker placement include hemodynamic instability with symptomatic bradycardia secondary to atrioventricular block and sinus node dysfunction; overdrive pacing in unstable tachydysrhythmias, such as torsades de pointes; and failure of transcutaneous pacing. Optimal placement sites include the right internal jugular vein and left subclavian vein. Insertion first includes placement of a central venous catheter. The pacing wire with balloon is then advanced until electromechanical capture is obtained with the pacer in the right ventricle. Ultrasound can be used to guide and confirm lead placement using the subxiphoid or modified subxiphoid approach. The QRS segment will demonstrate ST segment elevation once the pacing wire tip contacts the endocardial wall. If mechanical capture is not achieved with initial placement of the transvenous pacer, the clinician must consider several potential issues and use an approach to evaluating the equipment and correcting any malfunction. Although life-saving in the appropriate patient, complications may occur from central venous access, right heart catheterization, and the pacing wire. CONCLUSIONS: An understanding of transvenous pacemaker placement is essential for emergency clinicians.
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Marcapaso Artificial , Humanos , Marcapaso Artificial/efectos adversos , Estimulación Cardíaca Artificial/métodos , Bradicardia/etiología , Arritmias Cardíacas/terapia , Arritmias Cardíacas/complicaciones , Síndrome del Seno Enfermo/terapiaRESUMEN
INTRODUCTION: Esophageal perforation is a rare but serious condition associated with a high rate of morbidity and mortality. OBJECTIVE: This article highlights the pearls and pitfalls of esophageal perforation, including diagnosis, initial resuscitation, and management in the emergency department based on current evidence. DISCUSSION: Esophageal perforation occurs with injury to the layers of the esophagus, resulting in mediastinal contamination and sepsis. While aspects of the history and physical examination may prompt consideration of the diagnosis, the lack of classic signs and symptoms cannot be used to rule out esophageal perforation. Chest radiograph often exhibits indirect findings suggestive of esophageal perforation, but these are rarely diagnostic. Advanced imaging is necessary to make the diagnosis, evaluate the severity of the injury, and guide appropriate management. Management focuses on hemodynamic stabilization with intravenous fluids and vasopressors if needed, gastric decompression, broad-spectrum antibiotics, and a thoughtful approach to airway management. Proton pump inhibitors and antifungals may be used as adjunctive therapies. Current available evidence for various treatment options (conservative, endoscopic, and surgical interventions) for esophageal perforation and resulting patient outcomes are limited. A multidisciplinary team approach with input from thoracic surgery, interventional radiology, gastroenterology, and critical care is recommended, with admission to the intensive care setting. CONCLUSIONS: An understanding of esophageal perforation can assist emergency physicians in diagnosing and managing this deadly disease.
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Perforación del Esófago , Enfermedades del Mediastino , Perforación del Esófago/diagnóstico por imagen , Perforación del Esófago/epidemiología , Humanos , Prevalencia , TóraxRESUMEN
BACKGROUND: Coronaviruses are important emerging human and animal pathogens. SARS-CoV-2, the virus that causes COVID-19, is responsible for the current global pandemic. Early in the course of the pandemic, New York City became one of the world's "hot spots" with more than 250,000 cases and more than 15,000 deaths. Although medical providers in New York were fortunate to have the knowledge gained in China and Italy before it came under siege, the magnitude and severity of the disease were unprecedented and arguably under appreciated. The surge of patients with significant COVID-19 threatened to overwhelm health care systems, as New York City health systems realized that the number of specialized critical care providers would be inadequate. A large academic medical system recognized that rapid redeployment of noncritical providers into such roles would be needed. An educational gap was therefore identified: numerous providers with minimal critical care knowledge or experience would now be required to provide critical-level patient care under supervision of intensivists. Safe provision of such high level of patient care mandated the development of "educational crash courses." METHODS: The purpose of this special article is to summarize the approach adopted by the Institute for Critical Care Medicine and Department of Anesthesiology, Perioperative and Pain Medicine's Human Emulation, Education, and Evaluation Lab for Patient Safety and Professional Study Simulation Center in developing a training program for noncritical care providers in this novel disease. RESULTS: Using this joint approach, we were able to swiftly educate a wide range of nonintensive care unit providers (such as surgical, internal medicine, nursing, and advanced practice providers) by focusing on refreshing critical care knowledge and developing essential skillsets to assist in the care of these patients. CONCLUSIONS: We believe that the practical methods reviewed here could be adopted by any health care system that is preparing for an unprecedented surge of critically ill patients.