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      The indispensable role of emergency medicine in national preparedness for high consequence infectious diseases (HCIDs)

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          Abstract

          Facing the epidemic of 2019 Novel Coronavirus (COVID‐19), emergency departments (EDs) across the United States are once again reviewing their plans and abilities to detect and treat potential cases of an emerging infectious disease while ensuring the safety of patients and staff and to accommodate potential surges in visit volumes. As the most common first destination for individuals seeking urgent or emergent care, EDs have long played a critical role in the nation's ability to respond to outbreaks of high consequence infectious diseases (HCIDs), with responses to Ebola Virus Disease (EVD), Middle East Respiratory Syndrome (MERS), and pandemic influenza in just the past decade. However, because of the panic‐neglect pattern of funding and attention, 1 many EDs have not been given sustained access to the tools, resources, and interdisciplinary partnerships they need in between outbreaks of national attention, and we are now facing the consequences. EDs must be able to fully implement a wide variety of activities within the “Identify‐Isolate‐Inform” framework (developed within emergency medicine and advocated by the Centers for Disease Control and Prevention) (CDC) to limit HCID spread and to provide safe patient care. 2 This is true both when outbreaks are known, as with current COVID‐19 outbreak, and also when they are not. While the case of 2 nurses infected at work with EVD in Dallas in 2014 is familiar to many, less well‐publicized was a nosocomial outbreak of 82 confirmed MERS cases in South Korea that was attributed to a single unrecognized patient exposure in an ED. 3 Too many EDs do not consistently use the Identify‐Isolate‐Inform framework, as demonstrated by a recent study performed in 49 New York City EDs that found that appropriate masking of patients, adherence to personal protective equipment (PPE) by staff, and isolation occurred in <80% of encounters. 4 Moreover, many EDs do not routinely retrain their clinicians in the fundamental skills needed for HCID incidents, such as the donning and doffing of the PPE, even though such practice has been shown to reduce episodes of self‐contamination. 5 While there has not been sustained transmission of COVID‐19 within the US to date, many EDs have already experienced adverse effects on their clinical operations. Public health authorities and ambulatory medical practices usually direct suspect cases to the ED, though there is often little coordinated community planning in place for this function. Because of the PPE and isolation needs for evaluating suspect cases, even a small increase in the number of patient evaluations can result in major disruptions to ED patient flow, and these disruptions can often be frustrating for emergency medicine providers, especially when some patients present (or are referred) to the ED despite lower medical acuity. A recent report of patients with the COVID‐19 in Munich indicated that there were patients who had been hospitalized “primarily for public health purposes” despite having only mild illness. 6 To address these challenges, ED and hospital leadership should be routinely included in community HCID evaluation plans and in HCID public messaging efforts. This will help mitigate against these stressors on hospital operations and ensure EDs are able to properly fulfill their mission for HCID care when truly needed. With the potential for sustained COVID‐19 transmission in the US and a larger surge in patient visits to EDs perhaps on the horizon, the idea of “surging” care capabilities within already crowded EDs highlights yet another problem with crowded EDs. The adverse consequences of ED crowding on patient outcomes are very well documented, 7 but ED crowding can be further exacerbated in the midst of an outbreak with media coverage prompting substantial fear of infection and a heightened demand for medical attention. Delayed care and recognition of HCIDs can often result in delayed implementation of infection control measures, all of which can increase the risk of transmission of HCIDs among patients and health care workers. These concerns are especially relevant to the current COVID‐19 outbreak, with case numbers and fatalities already far‐surpassing the extent of the 2003 SARS outbreak. Could technology enhance our ability to respond to HCIDs? Electronic health record (EHR) systems have transformed medical care, providing real‐time decision support for acute conditions such as stroke and sepsis. Could we better leverage EHRs to automatically alert clinicians about patients who meet the current CDC criteria for COVID‐19 or other HCIDs based on their travel history, clinical symptoms, and other exposures? EHR alerts should be engineered to present the clinician with readily available contact information for infection control leadership and public health authorities to best guide infection control and care management decisions, as well as order sets to facilitate the correct implementation of transmission‐based precautions and diagnostic testing. However, too many EHR solutions are designed for a specific outbreak, lacking the flexibility to immediately accommodate newly emerging diseases and their changing public health case definitions. Hospital and IT leaders must work with their ED leaders and infectious disease specialists to prioritize the development of ED EHR tools that substantially and permanently improve how ED clinicians identify HCIDs such as COVID‐19 both now and in the future. With the current COVID‐19 outbreak, the time has come for emergency medicine to emerge at the forefront of public health planning, and along with infectious disease specialists, infection prevention and control specialists, hospital leadership, IT specialists, and public health officials to embrace novel EHR technologies and advocate for the administrative and financial support truly needed if our nation is to be ready for HCIDs. We must address the gaps that impede our ability to safely care for patients in the event of ongoing transmission of COVID‐19, while ensuring the safety of all patients, visitors and staff, and the communities in which we practice. FUNDING AND SUPPORT By JACEP Open policy, all authors are required to disclose any and all commercial, financial, and other relationships in any way related to the subject of this article as per ICMJE conflict of interest guidelines (see http://www.icmje.org). The authors have stated that no such relationships exist. The authors receive funding from the US Department of Health and Human Services Assistant Secretary for Preparedness and Response as a Regional Ebola and Other Special Pathogens Treatment Center. The views and discussions expressed in this paper are solely those of the authors and do not necessarily represent the views of ASPR or the U.S. Department of Health and Human Services nor does mention of trade names, commercial practices, or organizations imply endorsement by the U.S. Government.

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          Most cited references6

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          Transmission of 2019-nCoV Infection from an Asymptomatic Contact in Germany

          To the Editor: The novel coronavirus (2019-nCoV) from Wuhan is currently causing concern in the medical community as the virus is spreading around the world. 1 Since identification of the virus in late December 2019, the number of cases from China that have been imported into other countries is on the rise, and the epidemiologic picture is changing on a daily basis. We are reporting a case of 2019-nCoV infection acquired outside Asia in which transmission appears to have occurred during the incubation period in the index patient. A 33-year-old otherwise healthy German businessman (Patient 1) became ill with a sore throat, chills, and myalgias on January 24, 2020. The following day, a fever of 39.1°C (102.4°F) developed, along with a productive cough. By the evening of the next day, he started feeling better and went back to work on January 27. Before the onset of symptoms, he had attended meetings with a Chinese business partner at his company near Munich on January 20 and 21. The business partner, a Shanghai resident, had visited Germany between January 19 and 22. During her stay, she had been well with no signs or symptoms of infection but had become ill on her flight back to China, where she tested positive for 2019-nCoV on January 26 (index patient in Figure 1) (see Supplementary Appendix, available at NEJM.org, for details on the timeline of symptom development leading to hospitalization). On January 27, she informed the company about her illness. Contact tracing was started, and the above-mentioned colleague was sent to the Division of Infectious Diseases and Tropical Medicine in Munich for further assessment. At presentation, he was afebrile and well. He reported no previous or chronic illnesses and had no history of foreign travel within 14 days before the onset of symptoms. Two nasopharyngeal swabs and one sputum sample were obtained and were found to be positive for 2019-nCoV on quantitative reverse-transcriptase–polymerase-chain-reaction (qRT-PCR) assay. 2 Follow-up qRT-PCR assay revealed a high viral load of 108 copies per milliliter in his sputum during the following days, with the last available result on January 29. On January 28, three additional employees at the company tested positive for 2019-nCoV (Patients 2 through 4 in Figure 1). Of these patients, only Patient 2 had contact with the index patient; the other two patients had contact only with Patient 1. In accordance with the health authorities, all the patients with confirmed 2019-nCoV infection were admitted to a Munich infectious diseases unit for clinical monitoring and isolation. So far, none of the four confirmed patients show signs of severe clinical illness. This case of 2019-nCoV infection was diagnosed in Germany and transmitted outside Asia. However, it is notable that the infection appears to have been transmitted during the incubation period of the index patient, in whom the illness was brief and nonspecific. 3 The fact that asymptomatic persons are potential sources of 2019-nCoV infection may warrant a reassessment of transmission dynamics of the current outbreak. In this context, the detection of 2019-nCoV and a high sputum viral load in a convalescent patient (Patient 1) arouse concern about prolonged shedding of 2019-nCoV after recovery. Yet, the viability of 2019-nCoV detected on qRT-PCR in this patient remains to be proved by means of viral culture. Despite these concerns, all four patients who were seen in Munich have had mild cases and were hospitalized primarily for public health purposes. Since hospital capacities are limited — in particular, given the concurrent peak of the influenza season in the northern hemisphere — research is needed to determine whether such patients can be treated with appropriate guidance and oversight outside the hospital.
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            MERS-CoV outbreak following a single patient exposure in an emergency room in South Korea: an epidemiological outbreak study

            Summary Background In 2015, a large outbreak of Middle East respiratory syndrome coronavirus (MERS-CoV) infection occurred following a single patient exposure in an emergency room at the Samsung Medical Center, a tertiary-care hospital in Seoul, South Korea. We aimed to investigate the epidemiology of MERS-CoV outbreak in our hospital. Methods We identified all patients and health-care workers who had been in the emergency room with the index case between May 27 and May 29, 2015. Patients were categorised on the basis of their exposure in the emergency room: in the same zone as the index case (group A), in different zones except for overlap at the registration area or the radiology suite (group B), and in different zones (group C). We documented cases of MERS-CoV infection, confirmed by real-time PCR testing of sputum samples. We analysed attack rates, incubation periods of the virus, and risk factors for transmission. Findings 675 patients and 218 health-care workers were identified as contacts. MERS-CoV infection was confirmed in 82 individuals (33 patients, eight health-care workers, and 41 visitors). The attack rate was highest in group A (20% [23/117] vs 5% [3/58] in group B vs 1% [4/500] in group C; p<0·0001), and was 2% (5/218) in health-care workers. After excluding nine cases (because of inability to determine the date of symptom onset in six cases and lack of data from three visitors), the median incubation period was 7 days (range 2–17, IQR 5–10). The median incubation period was significantly shorter in group A than in group C (5 days [IQR 4–8] vs 11 days [6–12]; p<0·0001). There were no confirmed cases in patients and visitors who visited the emergency room on May 29 and who were exposed only to potentially contaminated environment without direct contact with the index case. The main risk factor for transmission of MERS-CoV was the location of exposure. Interpretation Our results showed increased transmission potential of MERS-CoV from a single patient in an overcrowded emergency room and provide compelling evidence that health-care facilities worldwide need to be prepared for emerging infectious diseases. Funding None.
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              Contamination of Health Care Personnel During Removal of Personal Protective Equipment.

              Contamination of the skin and clothing of health care personnel during removal of personal protective equipment (PPE) contributes to dissemination of pathogens and places personnel at risk for infection.
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                Author and article information

                Contributors
                pbiddinger@partners.org
                Journal
                J Am Coll Emerg Physicians Open
                J Am Coll Emerg Physicians Open
                10.1002/(ISSN)2688-1152
                EMP2
                Journal of the American College of Emergency Physicians Open
                John Wiley and Sons Inc. (Hoboken )
                2688-1152
                27 February 2020
                : 10.1002/emp2.12041
                Affiliations
                [ 1 ] Division of Infectious Diseases Massachusetts General Hospital Boston Massachusetts USA
                [ 2 ] Infection Control Unit Massachusetts General Hospital Boston Massachusetts USA
                [ 3 ] Harvard Medical School Boston Massachusetts USA
                [ 4 ] Department of Emergency Medicine Massachusetts General Hospital Boston Massachusetts USA
                [ 5 ] Division of Emergency Preparedness Massachusetts General Hospital Boston Massachusetts USA
                Author notes
                [*] [* ] Correspondence

                Paul D. Biddinger, MD, Department of Emergency Medicine, Massachusetts General Hospital, Boston, MA, USA.

                Email: pbiddinger@ 123456partners.org

                Author information
                https://orcid.org/0000-0001-8086-1123
                https://orcid.org/0000-0002-9664-6476
                Article
                EMP212041
                10.1002/emp2.12041
                7228288
                ac3ea19e-5c6c-4775-b477-4eebdc779003
                © 2020 The Authors. JACEP Open published by Wiley Periodicals, Inc. on behalf of the American College of Emergency Physicians.

                This is an open access article under the terms of the http://creativecommons.org/licenses/by-nc-nd/4.0/ License, which permits use and distribution in any medium, provided the original work is properly cited, the use is non‐commercial and no modifications or adaptations are made.

                History
                : 17 February 2020
                : 17 February 2020
                Page count
                Figures: 0, Tables: 0, Pages: 2, Words: 1428
                Categories
                Special Contribution
                SPECIAL CONTRIBUTION
                Infectious Disease
                Custom metadata
                2.0
                corrected-proof
                Converter:WILEY_ML3GV2_TO_JATSPMC version:5.8.0 mode:remove_FC converted:15.04.2020

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