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Acute and Critical Care > Volume 36(3); 2021 > Article
Wang, Leibner, Hyman, Ahmed, Hamburger, Hsieh, Dangayach, Tandon, Gidwani, Leibowitz, Kohli-Seth, and On behalf of Mount Sinai Anesthesiology and Critical Care COVID19 Writing Group: The Mount Sinai Hospital Institute for critical care medicine response to the COVID-19 pandemic

KEY MESSAGES

▪ This review provides a roadmap for hospitals and health systems on how to prepare for a surge in critical care capacity.
▪ The coronavirus disease 2019 pandemic requires a team effort across multiple disciplines to manage a surge of critically ill patients.

Abstract

Background

The coronavirus disease 2019 (COVID-19) pandemic resulted in a surge of critically ill patients. This was especially true in New York City. We present a roadmap for hospitals and healthcare systems to prepare for a Pandemic.

Methods

This was a retrospective review of how Mount Sinai Hospital (MSH) was able to rapidly prepare to handle the pandemic. MSH, the largest academic hospital within the Mount Sinai Health System, rapidly expanded the intensive care unit (ICU) bed capacity, including creating new ICU beds, expanded the workforce, and created guidelines.

Results

MSH a 1,139-bed quaternary care academic referral hospital with 104 ICU beds expanded to 1,453 beds (27.5% increase) with 235 ICU beds (126% increase) during the pandemic peak in the first week of April 2020. From March to June 2020, with follow-up through October 2020, MSH admitted 2,591 COVID-19-positive patients, 614 to ICUs. Most admitted patients received noninvasive support including a non-rebreather mask, high flow nasal cannula, and noninvasive positive pressure ventilation. Among ICU patients, 68.4% (n=420) received mechanical ventilation; among the admitted ICU patients, 42.8% (n=263) died, and 47.8% (n=294) were discharged alive.

Conclusions

Flexible bed management initiatives; teamwork across multiple disciplines; and development and implementation of guidelines were critical accommodating the surge of critically ill patients. Non-ICU services and staff were deployed to augment the critical care work force and open new critical care units. This approach to rapidly expand bed availability and staffing across the system helped provide the best care for the patients and saved lives.

INTRODUCTION

Severe acute respiratory syndrome coronavirus 2 (SARS-CoV-2) is a novel respiratory virus of the Coronaviridae family of enveloped, single-stranded RNA viruses and caused the coronavirus disease 2019 (COVID-19). First identified in China in December 2019, COVID-19 became a pandemic in 2020, leading to the largest public health crisis in decades. The first COVID-19 case in the United States (US) was reported in January 2020. By March 2020, COVID-19 cases were identified in all 50 states, District of Columbia, Puerto Rico, Guam, Northern Marianas, and the US Virgin Islands.
New York City (NYC) was the epicenter of the US COVID-19 outbreak. As of February 22, 2021, there were 1,590,000 diagnosed cases and 46,346 deaths [1]. The rapid increase in cases necessitated an unprecedented increase in critical care capacity and development of institutional guidelines for COVID-19 care. In the present study, how increased ICU capacity and the process for creating, disseminating, and revising guidelines for critically ill COVID-19 patients at Mount Sinai Health System (MSHS) are discussed. The aim is to provide a possible roadmap for other institutions to quickly scale up resources for managing critically ill COVID-19 patients.

MATERIALS AND METHODS

This was a retrospective review of the response of Mount Sinai Hospital to the COVID-19 pandemic and was exempt from IRB Review. The present manuscript was descriptive in design to explain the efforts made by the Mount Sinai Hospital (MSH) to prepare for the COVID-19 pandemic. Because no patients were involved in policy initiative for the COVID surge management, IRB approval was not required.
MSHS, comprised of the Icahn School of Medicine at MSH and eight hospitals with more than 3,800 inpatient beds and more than 42,000 employees, is one the largest health systems in the US. The Institute for Critical Care Medicine (ICCM) at MSH is comprised of seven adult ICUs with over 6,000 admissions annually as well as several team-based services. The ICCM led the COVID-19 critical care response within MSH. More than 45 critical care faculty within the ICCM are responsible for staffing subspecialty ICUs and include several teams such as the rapid response team (RRT), vascular access team, difficult airway response team (DART), patient safety quality team, clinical research team, and post-ICU recovery clinic.
Providing care for a rapidly increasing number of critically ill patients with acute respiratory failure due to a highly contagious viral illness requires guidelines to inform care and maximize healthcare provider safety. ICCM, Department of Emergency Medicine, Department of Anesthesiology, Perioperative and Pain Medicine, and the Infection Prevention team helped develop guidelines by referencing and adapting professional society guidelines. These guidelines were continuously revised and published on a systemwide COVID-19 website accessible to all hospital employees without the need for in-network access.

RESULTS

COVID-19 rapidly became a worldwide pandemic with over 111 million confirmed cases and over 2.47 million deaths in 188 countries/regions [1]. MSHS and MSH rapidly adapted to the surge in critically ill patients. MSH expanded from a 1,139-bed quaternary care academic referral hospital with 104 ICU beds to 1,453 beds with 235 ICU beds during the pandemic peak (Table 1), which occurred the first week of April (Figure 1). From March to May 2020, MSH admitted 2,161 COVID-19-positive patients, 541 to ICUs. Most admitted patients received noninvasive ventilatory support including a non-rebreather mask, high flow nasal cannula, and noninvasive positive pressure ventilation. Among ICU patients, 68.4% received mechanical ventilation, and among 420 patients that were intubated, 55.0% died and 43.1% were discharged alive. Among the 614 patients admitted to the ICU, 42.8% died and 47.8% were discharged alive (as of Oct 19, 2020) (Table 2). Advanced age correlated with increased death and likelihood of intubation (Table 3).

DISCUSSION

The 2015 American Hospital Association report estimated that more than 28,800 intensivists delivered ICU care in the US. COVID-19 created a surge in critically ill patients, resulting in hospitals searching for additional staff [2,3]. When the MSH ICU capacity was increased from 7 to 11 adult ICUs, 1–2 attendings, 1–2 advanced care practitioners (APPs), 1–2 fellows, and 1–2 residents per 12-hour shift with 24/7 in house intensivist coverage were on duty [4,5]. At least one of the two attendings in each ICU was an adult intensivist, the other was from anesthesiology, surgery, cardiothoracic surgery, neurosurgery, neurology, pediatric ICU, or neonatal ICU. Figure 2 shows the force multiplier pyramid and Table 4 shows the staff deployed to COVID ICUs. Staff shortages were addressed by employing tiered staffing models and training staff from noncritical care areas to serve in critical care areas under intensivist supervision. Travel nurses helped supplement staffing in all ICUs. Equipment such as ventilators, medication, and tube feeding pumps were deployed based on need [6,7].
During the COVID-19 surge, the ICU bed capacity was doubled from 104 to 208. All seven adult ICUs became COVID-19 ICUs. All ICU rooms were converted to negative pressure rooms with HEPA (high efficiency particulate air) filters with outside exhaust and redesigned to accommodate up to two patients. Two ICUs were changed to post-anesthesia care units (PACUs), designated as COVID-19-negative, and were staffed by PACU anesthesiologists, pain management fellows, and intensivists (Table 1). A space formerly used as an ICU reopened as a COVID-19-negative neuroscience ICU and was staffed by neurosurgeons, intensivists, neurologists, and neurosurgery residents. Two medical/surgery units were repurposed as COVID-19-positive ICUs. This unit utilized anesthesia machines as ventilators due to ventilator shortage and was co-managed by anesthesiologists and intensivists (Supplementary Material 1).
Establishing a new ICU usually requires years of planning, development, investment, and training. This is the first report of creating a de novo anesthesiology-run ICU within days. A location that already had a supply of medical gas, waste pipelines, and an uninterrupted power source was chosen. A telemetry unit was converted to an ICU because it had network interface and a central monitoring station that allowed for remote vital sign monitoring; alarm notification for patient decompensation; and vitals, medication records, and ventilator settings that integrated with the electronic health records. Details of how a stepdown unit was converted into an anesthesia-led critical care unit are described in Supplementary Material 1.
The greatest challenge in converting medical/surgical stepdown beds into ICUs was lack of patient visibility. Doors were kept closed to maintain negative pressure and minimize viral spread. Although windows were added to the doors, patient visibility was inadequate. Audio and visual equipment with a staffed monitoring station were added to many rooms. Tablets allowing video conferencing were attached to walls and focused on both the patient and vital sign monitors to allow audiovisual “spot checks.” Communicating critical information and calling for help from behind closed doors necessitated a hands-free device compatible with personal protective equipment (PPE). Nursing staff was familiar with Vocera (Vocera, San Jose, CA, USA), so the system was expanded to include physicians. Low-tech solutions such as whiteboards and dry erase markers allowed writing of critical information on windows. Early in the pandemic, resources were limited, and webcams were not available; however, webcams were eventually installed in COVID-19 patient rooms and proved extremely helpful to monitor patients.
The most important part of the de novo anesthesiology-run ICU was building a team of individuals from different departments with various levels of training. Nurses assigned to this unit were from a medical/surgical floor and were not trained in critical care. One ICU nurse per shift was assigned as an educator [4]. A de-emphasis on title and role was paramount for seamless teamwork and reduced unnecessary exposure and PPE use. Anesthesiology and nursing collaborated to minimize multiple room entries by pairing one person entering and calling out information or needed equipment to a teammate outside who would record information or gather supplies. Intravenous infusion pumps with extra-long tubing were used for access to each room.
MSH has an intensivist-led central venous access service that facilitates tunneled and non-tunneled central venous catheter placement. This service was expanded with the addition of two cardiothoracic anesthesiologists who were deployed to free intensivists to focus on patient care. Dedicated proning teams were created for acute respiratory distress syndrome (ARDS) patients (a team comprised of surgical technicians who were available because elective procedures were suspended). This was overseen by a designated team within ICCM and deployed via Vocera and available 24/7 [8,9]. All ICCM faculty, house staff, and nurses were instructed on safe proning practices including simulation sessions.
Palliative care physicians were placed in all COVID-19 ICUs to assist with family meetings and discussions regarding care goals. Social workers facilitated family meetings via video conferencing. Tablets were placed in each ICU room to facilitate video communication between medical teams, families, and patients. ICCM RRT respond to decompensating patients in the hospital. Normally, this team includes an intensivist, critical care fellow, nurse practitioner, and respiratory therapist. During the COVID-19 outbreak, the team expanded to include two certified registered nurse anesthetist during the day and an interventional radiology or anesthesiology resident at night. CRNAs and APPs from outside institutions provided additional help.
Staff deployed to COVID-19 ICUs were required to perform new roles and learn new processes at an unprecedented speed. The ability to rapidly train and orient staff from a variety of backgrounds, disciplines, and from within and outside MSH posed a significant challenge [10,11]. To address this, a training and reference manual, the ICCM handbook, was created. The target audience was medical staff outside critical care (internal medicine, surgery, anesthesiology, interventional radiology, and pediatrics) [12] who had volunteered for COVID duty.
The handbook provided a simple yet comprehensive guide to: (1) complement COVID-19 educational training [13], (2) review before deployment to COVID-19 ICUs, (3) provide justin-time training , and (4) serve as a simple reference for experienced providers. No precedent existed at the time of handbook preparation; thus, initial topics were based on review of existing protocols from institutions in Italy and US, and from references from prior respiratory viral pandemics (including MERS, SARS, and influenza) [14]. Topics included staff safety, PPE use, patient transport, sample collection, pharmacologic treatment, airway management and resuscitation, protocol for extended PPE use, ARDS management, and daily workflow in COVID-19 ICUs.
The handbook consisted of a table of contents, a three-page summary for quick reference, and an appendix with protocols (Supplementary Material 2). Protocols were based on state, critical care society, and system guidelines and were structured with illustrations and step-by-step instructions. Sample collection and PPE donning/doffing instructions included illustrations from the centers for disease control and prevention, and intubation and cardiac arrest protocols included a list of needed supplies. The handbook was circulated via the publicly accessible MSHS COVID-19 staff resource website [15].
The first week of the COVID-19 crisis in NYC made it evident that institutional guidelines for intubation of COVID-19-positive patients were needed to ensure maximum frontline worker safety. Prior to crisis onset, ICCM developed a DART including critical care, emergency, anesthesiology, and otolaryngology. Each member reviewed literature [16,17] and guidelines released by the Society for Critical Care Medicine and the Anesthesia Patient Safety Foundation [12,18] to develop COVID19-specific airway management guidelines.
DART addressed anticipated ventilator shortages [19] and safety of noninvasive ventilatory strategies. While delaying intubation could increase the risk of acute catastrophic decompensation and respiratory arrest, controversy remained over the extent of increased viral aerosolization [20,21]. Airway management dictates preparation for intubation as well as multiple backup plans for unanticipated difficulties [22]. “Go bags” were organized for intubation to minimize supply contamination and waste. Anticipated difficult intubations included larger “go bags” with additional supplies.
Many professional society guidelines have the most experienced person perform laryngoscopy for COVID-19 intubations [12,18,23]. Our guidelines recommended that COVID-19 intubations be performed by two experienced operators, one for laryngoscopy and the other to assist. COVID-19 intubation teams included intensivists, anesthesiology attendings, anesthesiology senior residents, and nurse anesthetists. DART activations, available for backup at MSH 24/7, assembled critical care, anesthesiology, and otolaryngology physicians for difficult intubations. COVID-19 DART intubations allowed otolaryngologists into the room only if a surgical airway was needed to limit the number of providers exposed and to preserve PPE. Guideline dissemination occurred via email to all departments who provide airway management and through virtual departmental conferences and grand rounds. In addition, high-fidelity simulation sessions were offered in small groups to all airway providers across departments followed by debriefing to evaluate and reinforce adherence to protocols. MSHS COVID-19 intubation guidelines, updated as of April 16, 2020, are included in Supplementary Material 2.
MSH responded to the COVID-19 surge by quickly expanding critical care bed capacity from 104 to over 200 ICU beds. Teamwork across multiple disciplines and guidelines for airway management, cardiac arrest, anticoagulation, vascular access, and proning was critical to hospital success. Non-ICU staff were used to help reinforce the ICU staff and open additional ICUs.

NOTES

CONFLICT OF INTEREST

No potential conflict of interest relevant to this article was reported.

AUTHOR CONTRIBUTIONS

Conceptualization: JW, EL, JH (Joshua Hamburger), SA, JH (Jean Hsieh). Data curation: EL, PT. Formal analysis: EL, JW. Methodology: JH (Joshua Hamburger), JH (Jean Hsieh). Project administration: RKS, AL, UG. Visualization: RKS, AL. Writing–original draft: JW, EL, JH, SA, JH, JH. Writing–review & editing: ND, UG.

SUPPLEMENTARY MATERIALS

Supplementary materials can be found via https://doi.org/10.4266/acc.2021.00402.
Supplementary Material 1.
Anesthesiology intensive care unit (ICU) document
acc-2021-00402-suppl1.pdf
Supplementary Material 2.
Mount Sinai Hospital (MSH) coronavirus disease 2019 (COVID-19) handbook
acc-2021-00402-suppl2.pdf

Figure 1.
Mount Sinai Hospital (MSH) coronavirus disease 2019 (COVID-19) intensive care unit (ICU) versus hospital admissions.
acc-2021-00402f1.jpg
Figure 2.
Force multiplier pyramid: a schema for critical care personnel expansion. ICU: intensive care unit; APP: advanced care practitioner; RN: registered nurse.
acc-2021-00402f2.jpg
Table 1.
Pre-COVID-19 and COVID-19 ICU beds at Mount Sinai Hospital
Unit Pre-COVID-19
COVID-19
Patient population No. of bedsa Patient population No. of bedsa
PACU
 Main OR PACU OR Post Op 30 MICU/SICU/medicine stepdown (COVID negative) 30
 Annenberg 6 PACU Ambulatory Post Op 12 Transplant critically Ill (COVID negative) 12
 Annenberg 7 PACU Neurosurgical Post Op 12 OR PACU (COVID negative) 12
ICU
 MICU Medical critically ill 14 COVID-19 critically ill 28
 SICU Surgical critically ill 14 COVID-19 critically ill 28
 TICU Transplant critically ill 12 COVID-19 critically ill 24
 CICU Cardiac critically ill 14 COVID-19 critically ill 28
 NSICU Neurosurgical critically ill 18 COVID-19 critically ill 36
 CVU Cardiac surgical Critically ill 14 COVID-19 critically ill 28
 CTICU Cardiac surgical Critically ill 12 COVID-19 critically ill 24
Step down unit
 Medicine stepdown Medicine stepdown 14 COVID-19 critically ill 14
 Cardiac stepdown Cardiac stepdown 6 COVID-19 critically ill 12
 Surgical stepdown Surgical stepdown 14 COVID-19 critically ill 14
 Medicine overflow General medicine patients 16 Neurosurgical critically ill 16

COVID-19: coronavirus disease 2019; ICU: intensive care unit; PACU: post-anesthesia care unit; OR: operating room; Post Op: postoperative patients; MICU: medical ICU; SICU: surgical ICU; TICU: transplant ICU; CICU: cardiac ICU; NSICU: neuroscience ICU; CVU: cardio vascular; CTICU: cardio thoracic ICU.

a ICU rooms were set up for two patients but varied depending on patient needs and nursing staff.

Table 2.
Clinical characteristics and outcomes of COVID-19 patients admitted to Mount Sinai Hospital
Variable Total Never ICU Admitted to ICU
Demographics (n=2,591) (n=1,977) (n=614)
 Age (yr) 60.1±17.5 60.1±17.9 60.0±16.0
 Male 1,457 (56.2) 1,073 (54.2) 384 (62.5)
Major comorbidity (n=2,494) (n=1,904) (n=590)
 HTN 847 (33.9) 671 (35.2) 176 (23.2)
 Diabetes 553 (22.2) 416 (21.8) 137 (23.2)
 Obesity 250 (10.0) 199 (10.5) 51 (8.6)
 CKD 326 (13.1) 262 (13.7) 64 (10.8)
 COPD 99 (3.9) 85 (4.5) 14 (2.4)
Noninvasive support (n=2,291) (n=1,682) (n=609)
 NRB 858 (37.4) 507 (30.1) 351 (57.7)
 HFNC 353 (15.4) 154 (9.2) 199 (32.7)
 NIPPV 298 (13.0) 108 (6.4) 190 (31.1)
Invasive ventilator (n=2,591) (n=1,977) (n=614)
 Intubated 420 (16.2) 0 420 (68.4)
Clinical outcome (n=2,591) (n=1,977) (n=614)
 Died 485 (18.7) 222 (11.2) 263 (42.8)
 Discharged from index visit 2,051 (79.1) 1,757 (88.8) 294 (47.8)
 Discharged home 1,623 (62.6) 1,435 (72.6) 188 (30.6)
 Discharged to facility 428 (15.6) 322 (16.3) 106 (17.2)
Among intubated patients (n=420)
 Died 231 (55.0)
 Discharged from index visit 181 (43.1)
 Discharged home 80 (19.0)
 Discharged to facility 101 (24.0)

Values are presented as mean±standard deviation or number (%).

COVID-19: coronavirus disease 2019; ICU: intensive care unit; HTN: hypertension; CKD: chronic kidney disease; COPD: chronic obstructive pulmonary disease; NRB: non-rebreather; HFNC: high-flow nasal cannula; NIPPV: non-invasive positive pressure ventilation.

Table 3.
Clinical outcomes of COVID-19 patients admitted to Mount Sinai Hospital based on age
Age (yr) All patients (n=2,161)
Ever ICU patients (n=614)
n Admitted to ICU Intubated Died Discharged n Intubated Died (%) Discharged
18–20 12 6 (50) 0 0 12 (100.0) 6 0 0 6 (100)
20–30 131 18 (13.7) 5 (3.82) 2 (1.5) 127 (96.9) 18 5 (27.8) 2 (11.1) 16 (88.9)
30–40 255 53 (20.8) 30 (11.8) 8 (3.1) 240 (94.1) 53 30 (56.6) 8 (15.1) 43 (81.1)
40–50 266 68 (25.6) 44 (16.5) 25 (9.4) 232 (87.2) 68 44 (64.7) 21 (30.9) 45 (66.2)
50–60 486 121 (24.9) 84 (17.3) 66 (13.6) 402 (82.7) 121 84 (69.4) 45 (37.2) 73 (60.3)
60–70 645 180 (27.9) 144 (22.3) 144 (22.3) 491 (76.1) 180 144 (80) 96 (53.3) 82 (45.6)
70–80 658 117 (25) 87 (18.6) 115 (24.6) 348 (74.4) 117 87 (74.4) 66 (56.4) 49 (41.9)
>80 328 51 (15.5) 26 (7.93) 125 (38.1) 199 (60.7) 51 26 (51) 25 (49.0) 25 (49.0)

Values are presented as number (%).

COVID-19: coronavirus disease 2019; ICU: intensive care unit.

Table 4.
Staff deployed to COVID ICUs
Fellow Resident APP
Critical care Anesthesiology General surgery & sur- gical subspecialties
Pulmonary critical care Surgery & surgical subspecialties Emergency
Neurocritical care Interventional radiology APPs from outside MSHS
Cardiology & cardiology subspecialties Medicine
Pediatric subspecialties Pediatrics

COVID: coronavirus disease; ICU: intensive care unit; APP: advanced care practitioner; MSHS: Mount Sinai Health System.

REFERENCES

1. Johns Hopkins University. Covid-19 dashboard by the center for systems [Internet]. Baltimore (MD), Johns Hopkins University. 2020 [cited 2020 Apr 17]. Available from: https://www.covidtracker.com/.

2. Halpern NA, Pastores SM. Critical care medicine beds, use, occupancy, and costs in the United States: a methodological review. Crit Care Med 2015; 43: 2452-9.
pmid pmc
3. Halpern NA, Tan KS, DeWitt M, Pastores SM. Intensivists in U.S. acute care hospitals. Crit Care Med 2019; 47: 517-25.
crossref pmid pmc
4. Halpern NA, Tan KS. United States resource availability for COVID-19 [Internet]. Mount Prospect (IL), Society of Critical Care Medicine. 2020 [cited 2020 Apr 17]. Available from: https://sccm.org/getattachment/Blog/March-2020/United-States-Resource-Availability-for-COVID-19/United-States-Resource-Availability-for-COVID-19.pdf?lang=en-US.

5. Kumaraiah D, Yip N, Ivascu N, Hill L. Innovative ICU physician care models: Covid-19 pandemic at NewYork-Presbyterian. NEJM Catal Innov Care Deliv 2020; 1.

6. Farmer JC, Wax RS MD, Baldisseri MR. Preparing your ICU for disaster response [Internet]. Mount Prospect (IL), Society of Critical Care Medicine. 2020 [cited 2020 Apr 17]. Available from: https://www.sccm.org/getattachment/Disaster/PreparingforDisasterResponse.pdf?lang=en-US.

7. Halpern NA, Kaplan LJ, Rausen M, Yang JJ. Configuring ICUs in the COVID-19 Era. Mount Prospect (IL), Society of Critical Care Medicine. 2020.

8. Scholten EL, Beitler JR, Prisk GK, Malhotra A. Treatment of ARDS with prone positioning. Chest 2017; 151: 215-24.
crossref pmid
9. Cherian SV, Kumar A, Akasapu K, Ashton RW, Aparnath M, Malhotra A. Salvage therapies for refractory hypoxemia in ARDS. Respir Med 2018; 141: 150-8.
crossref pmid pmc
10. Kumar P, Kattan O, Broome B, Singhal S. Reassessing Covid-19 needs: how providers can reexamine their surge capacity, supply availability, workforce readiness, and financial resiliency. NEJM Catal Innov Care Deliv 2020; 1.

11. Kim MK, Rabinowitz LG, Nagula S, Dunn A, Chalil J, Tao Xu, et al. A primer for clinician deployment to the medicine floors from an epicenter of Covid-19. NEJM Catal Innov Care Deliv 2020; 1.

12. Alhazzani W, Møller MH, Arabi YM, Loeb M, Gong MN, Fan E, et al. Surviving Sepsis Campaign: guidelines on the management of critically ill adults with coronavirus disease 2019 (COVID-19). Intensive Care Med 2020; 46: 854-87.
crossref pmid
13. Evan S, Leibner M, Elvera L, Baron M, Ronak S, Shah M, et al. Critical care simulation education program during the COVID-19 pandemic. J Patient Saf Forthcoming 2021.

14. Christian MD, Wax R, Lazar N. Critical care during a pandemic: final report of the Ontario health plan for an influenza pandemic (OHPIP) working group on adult critical care admission, discharge and triage criteria. Toronto, Ontario, Canada, Toronto, Ontario Health System. 2006.

15. Mount Sinai. Faculty and staff education during COVID-19 [Internet]. New York (NY), Mount Sinai. 2020 [cited 2020 May 27]. https://www.mountsinai.org/about/covid19/staff-resources/critical-care-education.

16. Caputo KM, Byrick R, Chapman MG, Orser BJ, Orser BA. Intubation of SARS patients: infection and perspectives of healthcare workers. Can J Anaesth 2006; 53: 122-9.
crossref pmid
17. Peng PW, Ho PL, Hota SS. Outbreak of a new coronavirus: what anaesthetists should know. Br J Anaesth 2020; 124: 497-501.
crossref pmid
18. Zucco , Liana , Levy N, Ketchandji D, Aziz M, Ramachandran SK. An Update on the Perioperative Considerations for COVID-19 Severe Acute Respiratory Syndrome Coronavirus-2 (SARS-CoV-2) [Internet]. Rochester (MN), Anesthesia Patient Safety Foundation. 2020 [cited 2021 Aug 24]. Available from: https://www.apsf.org/article/an-update-on-the-perioperative-considerations-for-covid-19-severe-acute-respiratory-syndrome-coronavirus-2-sars-cov-2/.
crossref
19. Ranney ML, Griffeth V, Jha AK. Critical supply shortages: the need for ventilators and personal protective equipment during the COVID-19 pandemic. N Engl J Med 2020; 382: e41.
crossref pmid
20. Respiratory care committee of Chinese Thoracic Society. Expert consensus on preventing nosocomial transmission during respiratory care for critically ill patients infected by 2019 novel coronavirus pneumonia. Zhonghua Jie He Hu Xi Za Zhi 2020; 17: E020.

21. Hui DS, Chow BK, Lo T, Tsang OT, Ko FW, Ng SS, et al. Exhaled air dispersion during high-flow nasal cannula therapy versus CPAP via different masks. Eur Respir J 2019; 53: 1802339.
crossref pmid
22. Apfelbaum JL, Hagberg CA, Caplan RA, Blitt CD, Connis RT, Nickinovich DG, et al. Practice guidelines for management of the difficult airway: an updated report by the American Society of Anesthesiologists Task Force on Management of the Difficult Airway. Anesthesiology 2013; 118: 251-70.

23. Association of Anaesthetists. Anaesthetic management of patients during a COVID-19 outbreak [Internet]. London, Association of Anaesthetists. 2020 [cited 2020 May 27]. Available from: https://anaesthetists.org/Home/Resources-publications/Anaesthetic-Management-of-Patients-During-a-COVID-19-Outbreak.

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