Leading a Radiation Medicine Department from the Epicenter of the COVID-19 Pandemic in the United States

Applied Radiation Oncology — Vol. 9 , Issue 2 , pp. 15 -22

DOI: 10.37549/ARO1235

Published: June 1, 2020

Daniel Koffler, MD, Sewit Teckie, MD, Louis Potters, MD, FACR, FASTRO, FABS

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SARS-CoV-2, or the novel coronavirus, has spread rapidly throughout the world in the early months of 2020, with 2,432,092 confirmed cases worldwide of COVID-19, the disease caused by SARS-CoV-2, and 166,794 deaths as of April 20, 2020.1 The consequent strain on medical resources has been immense. The US overtook China on March 27, 2020, to have the highest number of confirmed cases and on April 17, 2020, the resource utilization estimated national shortage of hospital beds was 5,403, and intensive care unit (ICU) beds was 8,854.1,2 In New York State, with by far the highest COVID-19 burden in the US, those figures were 7,237 hospital beds and 6,175 ICU beds, respectively, on April 9, 2020, the date of peak statewide resource utilization.2 This crisis will likely be the defining event of our generation similar to the world wars in the early and mid-1900s, and how it unfolds over the ensuing months to years remains unclear, with an economic and health impact worldwide yet to be fully recognized.3 The acute redeployment of health care resources toward COVID-19 has had an immediate impact across the entire health care continuum and, in particular, to the treatment of cancer. The broader macro-impact on health outcomes from heart disease to cancer is not likely to be known for months and years to come.

Early Impact of COVID-19 on New York, Northwell Health, and Oncology Population

On March 11, 2020, when COVID-19 was officially declared a pandemic by the World Health Organization, there were 56 confirmed cases of COVID-19 in New York State. Shortly after on March 22, New York State closed nonessential businesses and issued a stay-at-home order. As of this writing, there have been 232,782 cases within the Northwell Health geographic area of New York and its suburbs, with 14,137 deaths.4 Since the second week of March 2020, the entire focus of our health system, with 23 hospitals and more than 72,000 employees, has been to stand up more than 1,200 additional inpatient beds and to rebuild and configure spaces in our current buildings for inpatient and ICU care. Auditoriums have been ripped apart. Endoscopy, post-anesthesia care units (PACUs), step-down units and more have been converted into ICUs. Beginning the last week of March, operating rooms (OR) were closed for elective cases except for medical emergencies, with an OR volume normally exceeding 1,000 cases per day reduced to about 80 or less. The ICUs quickly reached capacity with a continued census of more than 800 patients on a ventilator. The burden on the Northwell system (Figure 1) is approximately in line with statewide case and mortality trends (Figure 2).4 It appears that we have hit the peak on hospitalizations with, as of this writing, 3 days of a positive trend where discharges marginally outnumber admissions. Still, the long lengths of stay associated with COVID-19 will require continued redeployment of physicians, nurses, technologists and others to help cover the volume of illness.

FIGURE 1.
FIGURE 1. Impact of COVID-19 at Northwell Health – hospitalized patients: 3/22/2020-4/15/2020
FIGURE 2.
FIGURE 2. New York State COVID-19 incidence trends 2/29/2020-4/10/2020

The impact on cancer services has been dramatic. The ability to perform surgery, biopsies, and procedures, and offer other ancillary clinical and supportive services has been significantly impacted. We have taken numerous proactive steps to prepare for COVID-19 and implement policies over the past 7 weeks (as of this writing). The purpose of this review article is to outline how the department of radiation medicine has managed the COVID-19 crisis to date.

Impact on Our Radiation Medicine Department

The public health crisis sketched above has had a major downstream impact on medical services not immediately related to its mitigation, including our Radiation Medicine Department. The Department of Radiation Medicine of the Northwell Health Cancer Institute comprises 9 radiation oncology clinics across 6 of the 9 downstate New York counties and provides cancer care to patients throughout this regional area. In the immediate prelude to the pandemic, the department’s daily census on average consisted of 270 patients receiving external-beam radiation, 6 to 10 receiving stereotactic radiosurgery (SRS) or stereotactic body radiation therapy (SBRT), 2 receiving Gamma Knife (Elekta), 20 simulations, 18 new-starts, as well as various brachytherapy procedures, and other patient evaluation and management (E/M) visits. As early as the week of March 9, it was becoming apparent that New York would be significantly affected by COVID-19. This “quiet before the storm” was worsened by constant news reports, which distracted from our day-to-day operations. Nevertheless, we had time to plan without fully recognizing the impact within the department and overall.

On March 15, an email was sent to our physicians and administrators outlining the over-riding principles (Table 1) and action items needed for safe operations. These principles have served without compromise since.

Table 1. Principles of Department During COVID-19, as Outlined in March 15 Department Email
Our Priorities During COVID-19 Are the Following:
1. Protect the health of staff
2. Protect the health of our patients
3. Ensure continuation of care for active patients receiving radiation therapy
4. Maintain access to patients requiring radiation therapy services
5. Provide an appropriate standard of care to infected patients only if priorities 1-3 can be met

We also determined that follow-up visits should be curtailed and converted initially to a phone call while telehealth services were being implemented. Additionally, we asked physicians to catalog cases into critical and noncritical categories in case of staffing issues, and to start anticipating cancelled procedures and surgeries.

While we never had an issue obtaining personal protective equipment (PPE) at Northwell, PPE policies evolved during this early phase of the crisis, creating some staff concern and anxiety. Also evolving at this time was the management of staff exposures and patient screening. We started to deploy work-from-home (WFH) orders for some back-office staff, including those performing treatment planning, to reduce personnel volume and thereby lower exposure risk.

Additionally, on March 17, we issued a policy for our residency program to protect residents and minimize their exposure without compromising training. The policy stated that residents would immediately do the following: WFH on their attendings’ academic days and other days when no clinic or hospital visits were scheduled for their respective services; don context-appropriate PPE for all patient encounters; perform contouring, plan review, clinical note writing, and other such work remotely to the extent feasible; and participate in didactic sessions and tumor boards via video chat and/or teleconference. On April 1, we also implemented weekly teleconference check-ins between the residents and program director regarding operational concerns and resident well-being.

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Prioritizing Patients for Radiation Start

By March 19 a more detailed outline was developed to prioritize patient treatment urgency into three categories (Table 2). At that time, we had 253 patients in the queue between consultation and treatment start. A department-wide video conference was convened on the morning of March 20 where each case was presented and assigned a priority (Table 3). While it was laudable to delay the start of up to 40% of our patients, it was not clear if or how many of the staff would become sick and if we could continue to offer access to current patients. As a result, our on-treatment patient volume did not decompress for another 2 weeks due to lagging attrition (Figure 3). Although we never experienced a reduction in staff, we had developed contingency plans to maintain access and treatment if that had happened.5 Likewise, our physics department smoothly transitioned to WFH, with shorter planning times and slightly longer plan upload times likely due to virtual private network (VPN) connectivity (Figure 4).

FIGURE 3.
FIGURE 3. Average daily patient load in radiation medicine (not including one community site) during COVID-19
FIGURE 4.
FIGURE 4. Physics monthly planning volumes and average time to completion for three steps: Treatment plan, 2nd check, and plan upload (in hours); January through March 2020.
Table 2. Prioritization of Radiation Treatment Start Date Based on Treatment Urgency
PriorityDescriptionExample Cases
Priority ICases where a delay of treatment may result in a loss of life, progression of disease or a permanent loss of neurological or other function.
These patients are to be assessed and managed accordingly.
1. Oncologic emergencies
2. Advanced head and neck
3. Advanced gastrointestinal
4. Advanced gynecologic
5. Advanced lung
Priority IICases that may be delayed for up to 4 weeks, and delay in treatment is unlikely to result in a loss of life or negatively impact a patient’s prognosis.
If a patient’s treatment is deferred, waiting lists should be created for priority II patients requiring treatment. These waiting lists will be reviewed at least weekly depending on the overall situation and the availability of treatment slots.
1. Early stage head and neck
2. Early stage lung
3. Lymphoma
4. Brain stereotactic radiosurgery of benign diseases
Priority IIICases that may be delayed for 30 days or more, where such delay in radiation treatment is unlikely to result in a loss of life or negatively impact a patient’s prognosis.
If a patient’s treatment is deferred, waiting lists should be created for priority III patients requiring treatment. These waiting lists will be reviewed for pending treatment accordingly and the patients contacted with follow-up as needed.
1. Early stage prostate
2. Early stage breast
3. Prostate on androgen deprivation
Table 3. Prioritization Assignment of All Pending Patients (total n = 253) as of March 20, 2020
PriorityN%
I15059%
II6827%
III3514%

Other actions during the week of March 16-20 included starting a daily administrative operations call, creating a new huddle for on-site staff (at appropriate distance), pre-screening patients before entering our waiting room, converting more than 70% of our E/M visits to telehealth, and managing several staff rule-outs and rule-ins for COVID-19 (Table 4).

Table 4. Lessons Learned for Managing a Radiation Medicine Department Through the Crisis Phase of COVID-19
1Decrease treatment volume
• Facilitate spacing of patients during the day, decreasing foot traffic through the department.
• Assign radiation therapist rotations that decrease team size on the linear accelerator.
2Have a back-up plan ready
• We planned for residents and even attendings to work with a tech to keep treating if needed; this has not yet been necessary.
3Work from home (WFH)
• We have instituted WFH for secretarial, billing, physics and dosimetry teams
• Plan for extra laptops and remote access, especially for treatment planning off site.
4Daily huddles
• The staff want to understand the situation and have many questions. Leaders have access to information that the staff does not have. It is vital to share as much with them as possible.
5Be flexible (and admit to that flexibility)
• Things change rapidly, and we have written more policies in the last 6 weeks than collectively in the past several years.
• Communicate these changes effectively and quickly.
• Be aware of ad-hoc rule making. The staff will feel like they need to be proactive and may institute some ad-hoc changes. Sometimes these are helpful, and sometimes not.

Maintaining a Culture of Safety

It is critical in a crisis to maintain departmental rules and policies regarding patient safety. During the COVID-19 crisis, we have made a purposeful decision not to relax safety rules whatsoever and to not allow workarounds, but rather to assess and view these rules as the foundation of providing safe care. Doing so has created a routine and set of expectations that have grounded the staff during the uncertainty of a health crisis unfolding around them. Opportunities to explore modifications of these safety rules provide fresh perspectives toward established policies. However, we have refrained from making such changes in the midst of the crisis, and instead have cataloged feedback from faculty and staff for future discussion, when we are past the acute crisis phase.

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Management of SARS-CoV-2 Positivity Among Staff and Patients

The department has had several staff members test positive for SARS-CoV-2 virus. This understandably creates anxiety regarding potential exposures. Fortunately, we have seen relatively little cross infection except at one of our locations early in the crisis where several staff tested positive together. When staff were known to have tested positive for the virus, all patients and staff with whom they had come in contact in the 48 hours prior to falling ill were informed of the exposure. We followed CDC guidelines for health care workers (HCWs) stating that asymptomatic HCWs who had been exposed to a known COVID-19 case should continue working while wearing a surgical mask and undergo twice-daily temperature and symptom reporting. We attribute the low departmental infection rate to Northwell’s early policy requiring clinical staff to wear surgical masks at all times, high staff awareness about infection prevention, and a policy requiring patients to wear masks. In addition, the health system instituted an early policy prohibiting in-person group meetings including teaching conferences and tumor boards. This allowed staff to limit exposure to each other and reduced the need to travel between our outpatient and inpatient sites for nonpatient-care-related activities. Further, we protected patients and staff by requiring patients to undergo telephone screening 24 hours prior to their appointment.

We continue to treat infected patients with full PPE with an approach involving the use of a rear door, limited exposure time, increased physical distance, appropriate donning and doffing of full PPE, and appropriate vault decontamination (Figure 5). The ability to treat a positive patient in their acute phase of COVID-19 and then to have the illness resolve and continue treatment without the need for full PPE and without a break is also very encouraging.

FIGURE 5.
FIGURE 5. Staff dressed in appropriate personal protective equipment (PPE) while treating our first SARS-CoV-2 positive patient.
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Current Status: Seven Weeks into the Crisis

Our treatment numbers are about 70% of typical volume and it was helpful to arrive here as we initially did not know how staff would be affected. We are calling this our “soft landing.” Now that we are in this position, we can better control new patient flow, with many in the queue assigned a priority level of 2. We continue to space out treatments to decrease foot traffic in the waiting room. Coupled with telehealth, our distancing measures have proven highly successful.

As the crisis in New York remains critical, the issue now is redeploying staff. We have had staff from all departmental areas redeployed to inpatient or ambulatory care. Specifically, several nurse practitioners and physician assistants worked on inpatient COVID units for 2 to 4 weeks at a time. Physicians were also added to a redeployment list, but to date were not needed to staff COVID units. It is not clear if this will remain a short- or long-term policy but to date we have not faced critical staffing issues.

We have also begun screening all patients who enter our departments for symptoms related to COVID-19 and we have discouraged visitors from accompanying patients unless they are a formal caregiver. If screening indicates concerning symptoms, the patient is isolated, formally evaluated by a clinician, and referred for immediate testing in our ambulatory locations. Specific ambulatory offices throughout our health system have now been converted for exclusive use as testing centers.

Another area we are addressing is hospital avoidance for our patients (Table 5). The goal is to keep our active on-treatment patients out of emergency departments and hospitals. Hospitals are no longer a sanctuary site for supportive cancer care, but rather an iatrogenic risk site with limited resources for the cancer patient. We will be doing things differently with regards to pre-, on-, and post-treatment management, and we are hopeful that some of these changes may make a long-term difference.5

Table 5. Consensus Guidelines for Intensive Treatment Management to Reduce Hospitalization and Adverse Events*
Disease SitePre-treatmentAcute CTCAE13 to manageSuggested Interventions
Anal CancerHealth system resources potentially unavailable:
• Home care/wound care services
Dermatitis
Desquamation
Pain
Diarrhea
Dehydration
Cytopenias
  • Twice weekly OTV after 2nd week

  • Early use of: Silvadene, sitz baths, anti-diarrheal, pain medication/management

  • CBC monitoring, weekly MedOnc visits (neutropenia/anemia)

  • Consider treatment breaki

Rectal Cancer – advanced, low-lyingConsider induction chemotherapy as part of total neoadjuvant therapy to delay start of radiationiiDermatitis
Desquamation
Pain
Diarrhea
  • Twice weekly OTV after 3rd week

  • Early use of: Silvadene, sitz baths, anti-diarrheal, pain medication/management

  • CBC monitoring, weekly MedOnc visits

Esophageal Cancer – advancedHealth system resources potentially unavailable:
• Nonemergent procedures (eg, esophageal dilation, tent placement, feeding tube placement)
Consider perioperative chemotherapy to defer radiationiii
Esophagitis
Weight loss
Cough
Dyspnea
Early
  • Twice weekly OTV after 2nd week

  • Early use of: PPI twice daily, oral steroids, Carafate, pain medications, dietary evaluation, nutritional supplement shakes


Hospital avoidance
  • IV fluid hydration by MedOnc

    • -

      If MedOnc unavailable, IV fluid hydration within RadMed department

  • NG-tube placement (may be difficult particularly if obstructive symptoms)

Lung Cancer –advancedConsider induction chemotherapy (particularly for small cell)
Consider deferring adjuvant
RT start date for consolidative
RT or PCI for SCLC, postop
N2 NSCLC
Cough
Dyspnea
Esophagitis
Weight loss
Cytopenias
  • Evaluate for O2 need (nocturnal, ambulatory, at rest)

  • Twice weekly OTV after 2nd week

  • Early use of: oral steroids, PPI, Carafate, pain medications, nutritional supplement shakes

  • Aggressive management of esophagitis: PPI twice daily, gabapentin, dietary evaluation

Head and Neck CancersHealth system resources potentially unavailable:
  • Dental evaluation

  • Feeding tube placement

  • Speech/swallow evaluation

  • Home care/wound care services


Consider weekly cisplatin dosing for fit candidates (30-40mg/m2) instead of bolu s cisplatin.
If borderline candidate for systemic therapy, do not use.
Consider altered fractionation to compensate for lack of systemic therapy.
For elderly patients, consider hyprofractionation and no chemotherapy.
Mucositis
Odynophagia
Dysphagia
Dehydration
Weight loss
Cytopenias
Early
  • Twice weekly OTV

  • Review CBC taken by MedOnc weekly

  • Early use of: pain medication/management, gabapentin, mouth rinses, nutritional supplement shakes, dietary evaluation


Hospital avoidance
  • When dysphagia begins, start IV fluid hydration by MedOnc (otherwise fluid bolus via PEG if available) twice weekly during chemoradiation

    • -

      If MedOnc unavailable, consider IV fluid hydration within RadMed department

  • NG-tube placement if weight loss otherwise meeting criteria for PEG placement

  • Low threshold to stop chemotherapy if patient develops CTCAE ≥3

  • Consider treatment break for refractory grade 3 symptoms (< 1 week)

High-grade GliomaStandard fractionation vs hyopfractionation for elderly/poor performance status vs palliativeHeadaches
Nausea
Vomiting
Seizures
Early
  • Twice weekly OTV after 2nd week

  • Steroid management, perhaps more anti-epileptic use than normal


Hospital avoidance
  • If progressive neurologic symptoms, consider outpatient MRI, evaluation by neuro-oncology/neurosurgery

Vulvar CancerHealth system resources potentially unavailable:
  • Decreased OR availability —> Increased utilization of definitive chemoradiation

  • Home care /wound care services

Pain
Dermatitis
Desquamation
Diarrhea
Dehydration
Cytopenias
  • Twice weekly OTV after 2nd week

  • Early use of: Silvadene, sitz bath, pain medication/management, anti-diarrheal

  • CBC monitoring, urinalysis, weekly MedOnc visits

  • Consider treatment break (goal < 1 week)

Recommendations for Crisis Management

The COVID-19 pandemic represents a challenge to medical practice that is unprecedented in living memory. As other authors have noted, oncology patients face a uniquely precarious situation during this crisis: They are likely to be at elevated risk of severe complications of SARS-Cov-2 infection on the basis of age and pathology alone, and are at further heightened risk of exposure as a consequence of the oncologic interventions intended to prolong life and/or improve quality of life. Patients and their providers must negotiate a Morton’s fork between foregoing oncologic care and potentially succumbing prematurely to cancer, or pressing forward with that care and risk succumbing to COVID-19 complications.6,7

Moving from the individual doctor- and-patient approach to a system-wide view, oncology departments must take stock of where they find themselves in the framework proposed by Schrag et al: in preparatory, acute, or crisis phases of the pandemic.7 As of this writing, the majority of the US is in a preparatory phase (intact system with a surplus of manpower and equipment) or acute phase (a system under strain with reduced capacity that can still meet its needs by strategic resource allocations). New York and much of the Northeast, Louisiana, and Michigan are in a crisis phase: a system overwhelmed and facing shortages. It is crucial to marshal resources and prepare staff during the preparatory and acute phases to withstand the crisis phase and minimize the impact on care, to lay plans in advance for a transition out of crisis phase, and indeed to lay preparations for the possibility of cycling between these phases given the possibility of subsequent spikes of infection resulting from causes beyond health care systems’ control.3

The challenge of oncology care during this crisis is further exacerbated by the loss of oncologic surgeries due to the lack of OR resources and the need to preserve hospital space for COVID-19 patients. This impact also includes the limitation or curtailment of brachytherapy procedures leading us to move away from an accepted standard of care in many instances. From a radiation oncology perspective, there has been a push to shorten treatment courses by implementing hypofractionated options to replace protracted conventionally fractionated radiation therapy. While some of these shorter fractionation schedules have evidence-based outcomes, many alternative treatment schedules have not undergone the same breadth of data collection and analysis. In addition, many physicians may find themselves uncomfortable with these regimens and unable to counsel patients appropriately on the expected short- and long-term effects. Examples include adoption of single-fraction regimens in settings ranging from curative-intent thoracic SBRT to palliative radiation therapy in oncologic emergencies, instead of the multifraction approaches that would be favored under ordinary circumstances.8.9 Likewise, from a medical oncology perspective, re-evaluation of oral over intravenous chemotherapy and keeping patients out of infusion facilities remains circumspect with regard to equivalent or non-inferior outcomes.7

Oncology, by its nature, is a multidisciplinary enterprise and oncologic care is optimized by communication and coordination of therapy between its various clinical branches and in collaboration across health systems. It is encouraging, in this context, to see the swift adoption across many practices nationally and internationally of similar policies to limit clinical volumes and treatment times, while maintaining social distancing as well as the morale and health of providers and ancillary staff.7-12

Conclusion

It is undeniable that delays in delivering oncologic care secondary to the scarcity of resources and need for strict social distancing will impact patient outcomes. The degree of that impact, and in which settings it is most significant, will be an urgent subject of future study and analysis. We have outlined here our systematic approach to mitigate that impact to whatever extent is feasible and safe in the interim. Our mission in this crisis is to continue to provide exemplary oncologic care while contributing to the public health of our community — perhaps the most severely and acutely affected of any in the world – and we are unwavering in our commitment to do so.

References

  1. Coronavirus COVID-19 Global Cases by the Center for Systems Science and Engineering (CSSE) at Johns Hopkins University..
  2. COVID-19 Projections, Institute for Health Metrics and Evaluation (IHME) at the University of Washington..
  3. Kissler S, Tedijanto C, Goldstein E, Grad Y, Lipsitch M. Projecting the transmission dynamics of SARS-CoV-2 through the postpandemic period. Science.. April 14, 2020.
  4. NYSDOH COVID-19 Tracker.
  5. Chen W, Teckie S, Somerstein G, Adair N, Potters L. Guidelines to reduce hospitalization rates for patients receiving curative-intent radiation therapy during the COVID-19 pandemic: report from a multicenter New York area institution. Adv Rad Onc. April 2020.
  6. Thomson D, Palma D, Guckenberger M. Practice recommendations for risk-adapted head and neck cancer radiotherapy during the COVID-19 pandemic: an ASTRO-ESTRO Consensus Statement. Int J Radiat Oncol Biol Phys:S0360-3016(20)31034-8.
  7. Schrag D, Hershman D, Basch E. Oncology practice during the COVID-19 pandemic. J Am Med Assoc.. April 13, 2020.
  8. Wu A, Rimmer A. Thoracic radiation therapy during COVID-19: provisional guidelines from a comprehensive cancer center within a pandemic epicenter. Adv Rad Onc.. April 2020.
  9. Yaerramilli D, Xu A, Gillespie E. Palliative radiotherapy for oncologic emergencies in the setting of COVID-19: approaches to balancing risks and benefits. Adv Rad Onc.. April 8, 2020.
  10. Noticewala S, Koong A, Bloom E. Strategies to flatten the curve during the COVID-19 pandemic in radiation oncology: experience from a large tertiary cancer center. Adv Rad Onc.. April 2020.
  11. Rathod S, Dubey A, Chowdhury A, Bashir B, Koul R. A call for new 4R’s based radiation oncology model in COVID-19 Pandemic. Adv Rad Onc.. April 2020.
  12. Simcock R, Thomas T, Christopher E. COVID-19: Global radiation oncology’s targeted response for pandemic preparedness. Clin Transl Radiat Oncol.. 2020 Mar 24:55-68.
  13. ;2017:147.
  14. Ajani J, Winter K, Gunderson L. Fluorouracil, mitomycin, and radiotherapy vs fluorouracil, cisplatin, and radiotherapy for carcinoma of the anal canal: a randomized controlled trial. JAMA. 2008;299(16):1914-1921. doi:10.1001/jama.299.16.1914.
  15. Mitra D, Hong T, Horick N. Long-term outcomes and toxicities of a large cohort of anal cancer patients treated with dose-painted IMRT per RTOG 0529. Adv Rad Onc.. 2017;2(2):110-117. doi:10.1016/j.adro.2017.01.009.
  16. Rectal Cancer (Version 2.2020).
  17. Esophageal and Esophagogastric Junction Cancers (Version 1.2020)..
  18. Al-Batran S, Homann N, Pauligk C. Perioperative chemotherapy with fluorouracil plus leucovorin, oxaliplatin, and docetaxel versus fluorouracil or capecitabine plus cisplatin and epirubicin for locally advanced, resectable gastric or gastro-oesophageal junction adenocarcinoma (FLOT4): a randomised, phase 2/3 trial. Lancet. 2019;393(10184):1948-1957. doi:10.1016/S0140-6736(18)32557-1.

Citation

Koffler D, Teckie S, Potters L. Leading a Radiation Medicine Department from the Epicenter of the COVID-19 Pandemic in the United States. Applied Radiation Oncology. 2020;9(2):15-22. doi:10.37549/ARO1235.