OBJECTIVES

To examine the impact of the coronavirus disease 2019 (COVID-19) pandemic and associated workflow changes, such as deployment on pediatric faculty burnout in an early epicenter of the pandemic. We hypothesized burnout would increase during the COVID-19 surge.

METHODS

We conducted serial cross-sectional surveys of pediatric faculty at an academic, tertiary-care children’s hospital that experienced a COVID-19 surge in the Northeastern United States. Surveys were administered pre-surge (February 2020), during the surge (April 2020), and postsurge (September 2020). The primary outcome was burnout prevalence. We also measured areas of worklife scores. We compared responses between all 3 survey periods. Continuous variables were analyzed by using Student’s t or Mann–Whitney tests, and categorical variables were analyzed by using χ2 or Fisher’s exact test, as appropriate.

RESULTS

Our response rate was 89 of 223 (40%) presurge, 100 of 267 (37%) during the surge, and 113 of 275 (41%) postsurge. There were no differences in demographics, including sex, race, and academic rank between survey periods. Frequency of burnout was similar in all 3 periods (20% to 26%). The mean scores of emotional exhaustion improved during the surge (2.25 to 1.9; P = .04).

CONCLUSIONS

Contrary to our hypothesis, we found no changes in pediatric faculty burnout after a COVID-19 surge. Emotional exhaustion improved during the COVID-19 surge. However, these findings represent short-term responses to the COVID-19 surge. Longer-term monitoring of the impact of the COVID-19 surge on pediatric faculty burnout may be necessary for health care organizations to mitigate burnout.

A strategic priority of the American Academy of Pediatrics is to meet the wellness needs of pediatricians despite rapid changes in the health care system.1  However, the novel coronavirus disease 2019 (COVID-19) pandemic has impacted pediatricians profoundly.2  In COVID-19 epicenters, pediatricians have faced significant changes in their work. Outpatient providers shifted to telemedicine,3  and inpatient providers experienced fluctuations in patient volumes4  and deployment to adult COVID-19 units.57  These changes may leave pediatricians more vulnerable to burnout, a work-related syndrome characterized by high emotional exhaustion and high depersonalization.8 

Physicians suffering from burnout are at higher risk for mental health problems,9,10  more likely to make medical errors,11,12  and more likely to deliver suboptimal patient care.13,14  Physicians exposed to traumatic events such as pandemics may be at higher risk for burnout,15,16  because work climate and stressors influence burnout development.8,17  Experts suggest the pandemic may exacerbate the growing public health crisis of physician burnout,18  with significant implications for the future of the pediatric workforce.

New York City was an early epicenter of the COVID-19 in the United States pandemic from March to May 2020.19  In many children’s hospitals, this surge necessitated rapid implementation of adult COVID-19 units staffed by pediatric providers.5,7  It is unclear how significant workplace changes, particularly deployment of pediatricians to care for adult patients, impacts burnout. We aimed to examine the effect of the COVID-19 pandemic on burnout and work climate in pediatric faculty. We hypothesized that burnout prevalence and emotional exhaustion would increase during the COVID-19 surge, particularly in frontline pediatric faculty caring for adult COVD19 patients.

We conducted serial cross-sectional surveys of pediatric faculty physicians at an academic, tertiary-care children’s hospital located in New York City at 3 distinct time periods. Our institution is part of a large, integrated academic health system and is the referral center for children in the health system and in the area. The children’s hospital is located on the main campus of our health system and housed in a separate building, although is connected to the adult hospital and therefore shares the same administrative structure, laboratory, pathology, and radiology services. Our faculty work with 86 residents, 4 chief residents, 66 fellows, and 94 advanced practice providers. This study was approved by our institutional review board.

The initial survey invitation (February 20, 2020, to March 20, 2020) was sent to examine baseline prevalence of factors associated with physician burnout. As part of our institutional departmental commitment to wellbeing, we planned to monitor these factors every 6 months. However, immediately after completion of the initial survey period, our institution coincidentally experienced a COVID-19 patient surge, causing significant changes in faculty work environment, workflow, and worklife factors (Fig 1).

FIGURE 1

Timeline of COVID-19 admissions to our institution and survey administration.

FIGURE 1

Timeline of COVID-19 admissions to our institution and survey administration.

Close modal

To gauge the impact of these changes and stressors on pediatric faculty burnout, we administered a second survey (April 20, 2020, to May 20, 2020) during the peak of COVID-19 cases at our institution, with >75 COVID-19 cases at our children’s hospital (Fig 1) and >1000 cases within our hospital system. At the peak of the COVID-19 surge, pediatric faculty were caring for pediatric COVID-19 patients, deployed to care for adult COVID-19 patients in a unit in our children’s hospital, and deployed to care for adult COVID-19 patients in temporary units for convalescent patients.5  Other faculty joined an expanded palliative-care team and called COVID-19 patients and family members daily.6  Outpatient-based pediatricians shifted toward the use of telemedicine in place of face-to-face clinic visits. Institutional strategies were developed to address these challenges (Supplemental Table 2).

The third survey period (September 1, 2020, to October 1, 2020) was part of the initially planned semiannual schedule to monitor burnout prevalence. At this time, pediatric faculty no longer cared for adult patients. On average, <5 COVID-19 patients were admitted to the children’s hospital daily (Fig 1), and <30 COVID-19 patients were admitted to the entire health system daily. However, we theorized that the start of the school year, notable for uncertainty related to school openings, would exacerbate challenges in balancing worklife commitments, particularly for pediatric faculty who were caregivers of young children.

All primary and affiliated faculty of the Department of Pediatrics at our institution were eligible for this study. Starting from Survey 2, this included affiliated faculty who held appointments in 2 different departments (eg, pediatric surgeons with appointments in pediatrics and surgery). Eligible participants were defined from a department list of currently employed faculty. Because of new faculty hires, Survey 3 may have included faculty who were not employed at our institution during the COVID-19 surge. We defined pediatric faculty as participants who self-indicated they held a rank of “Instructor” or above because instructors are considered faculty at our institution.

Survey invitations were sent to a faculty list via e-mail with a cover letter in the body of the e-mail. The cover letter explained the purpose of the survey (to monitor and improve physician wellbeing), clarified that the survey participants would be anonymous, and was signed by the department chair and vice-chair for faculty development.

The survey was administered with an Internet-based survey hosting system (Mind Garden, Inc, Menlo Park, CA). The survey was accessed via an e-mail link, allowed for unique identities for each participant, and included automated scoring with no way to track individual participants. All survey questions had to be answered for participants to submit the survey.

During all 3 survey periods, faculty had one month to complete the survey. E-mail reminders were sent weekly in every survey period (3 in total) to all eligible participants. No incentives were offered for completion of the survey and participation was voluntary. Participants were able to review and change their answers before submission. Completion of the survey was considered implied consent by the participant.

This 68-question survey included 3 sections over 3 pages, including a section on demographic information, including age, race and ethnicity, sex, marital status, and responsibility for dependents. Professional information, such as faculty rank, years of experience after medical school, years at current organization, subspecialty, and employment status (full- versus part-time) were also collected. The next section included a commonly used measure for burnout evaluation in medical literature,8,20,21  the validated Maslach Burnout Inventory-Human Services Survey (MBI-HSS).22  This is a 22-question survey used to measure burnout in individuals working human services jobs. Finally, we examined the Areas of Worklife Survey (AWS), a 28-question validated survey, which is used to assess 6 key organizational areas of the workplace environment (worklife domains) strongly associated with burnout.17 

The AWS includes 6 domains (workload, control, reward, community, fairness, and values). Each domain score is calculated by using level of agreement with statements evaluating the participant’s worklife and measured on a 1 (strongly disagree) to 5 (strongly agree) Likert scale. Lower scores (generally, <2.75 out of 5) suggested problems in a worklife domain. Consistent with other studies,23  mean domain scores were used to compare and evaluate worklife domains between survey periods.

The Maslach Burnout Inventory-Human Services Survey is used to measure burnout by using 3 subscales. Emotional exhaustion (EE) measures feelings of stress or exhaustion, depersonalization (DEP) measures low enthusiasm and feelings of detachment, and personal accomplishment (PA) measures feelings of competency. Scores are calculated by using self-reported frequency of symptoms, on a 0 (never) to 6 (every day) Likert scale. Based on other studies, we focused on subscales commonly used to define burnout:8  high scores on EE (>3.0) and/or a high score on depersonalization (≥2.73). “High” scores were calculated by using population norms.24 

We grouped pediatric faculty as either “inpatient” or “outpatient” providers on the basis of their self-reported subspecialty. Participants who identified as critical care physicians, emergency department physicians, hospitalists, or neonatologists were considered “inpatient” providers. Because these physicians only worked in an acute hospital setting, they were identified as “frontline” workers during and after the COVID-19 surge in the survey 2 period. During the Survey 3 period, participants were also asked whether they had directly cared for COVID-19 patients between March and June 2020 as a dichotomous “yes/no” question to evaluate if exposure to COVID-19 patients contributed to burnout.

Our primary outcome was the prevalence of pediatric faculty burnout and its associated subscales (EE, DEP, and PA), comparing all 3 survey periods. Secondary outcomes included mean worklife domain scores, comparing 3 survey periods, and associations between demographics (such as frontline worker status) and burnout.

Categorical variables were analyzed by using χ2 or Fisher’s exact tests to compare demographic and professional information between all 3 survey periods and between faculty demographics and survey demographics. We also used χ2 analysis or Fisher’s exact test, as appropriate, to analyze burnout prevalence between survey periods, and to measure associations between certain demographics (eg, frontline worker status) and burnout. Continuous variables, such as burnout subscale scores and worklife domain scores. were analyzed by using a Student’s t test or Mann–Whitney test, as appropriate, comparing time periods as follows: Survey 1 to Survey 2, Survey 2 to Survey 3, and Survey 1 to Survey 3. Burnout subscales (EE, DEP, and PA) and worklife domain scores were reported as mean scores on the basis of previous literature. All statistical analyses were conducted by using Stata Corp 15.1 (Stata Corp, College Station, TX).

The response rate for each of the 3 surveys was 89 of 223 (40%) in Survey 1, 100 of 267 (37%) in Survey 2, and 113 of 275 (41%) in Survey 3. There were no differences in the demographics of the participants comparing survey periods (Table 1). When comparing overall faculty to survey participants, there were no differences in terms of age range or sex in Survey 1 (P = .34; P = .89; respectively), Survey 2 (P = .37; P = .89; respectively), or Survey 3 (P = .35; P = .28; respectively). In all 3 time periods, associate and full professors were more likely to respond to the survey (Survey 1: P = .01; Survey 2: P < .001; Survey 3: P = .007; data not shown).

TABLE 1

Demographic Characteristics of Participants

CharacteristicSurvey 1a (n = 89)Survey 2a (n = 100)Survey 3a (n = 113)
Age, n (%)    
 <40 y 25 (28) 28 (28) 39 (35) 
 41–50 y 24 (27) 22 (22) 26 (23) 
 51–60 y 24 (27) 27 (27) 29 (26) 
 61–70 y 11 (12) 16 (16) 11 (10) 
 ≥71 y 5 (6) 7 (7) 8 (7) 
Sex, n (%)    
 Male 22 (25) 27 (27) 37 (33) 
 Female 62 (70) 68 (68) 73 (65) 
 Nonbinary or no answer 5 (5) 5 (5) 3 (3) 
Ethnicity, n (%)    
 White 46 (52) 61 (61) 79 (70) 
 African American 4 (4) 3 (3) 1 (1) 
 Hispanic or Latino 7 (8) 5 (5) 8 (7) 
 Asian or Pacific Islander 15 (17) 15 (15) 10 (9) 
 Other or no answer 17 (19) 16 (16) 15 (13) 
Marital status, n (%)    
 Married 69 (77) 73 (73) 93 (82) 
 Single 6 (7) 11 (11) 12 (11) 
 Divorced, separated or widowed 5 (6) 7 (7) 6 (5) 
 No answer 9 (10) 9 (9) 2 (2) 
Responsibility for dependents, n (%) 60 (67) 59 (59) 68 (60) 
Faculty rank, n (%)    
 Instructor 1 (1) 1 (1) 5 (4) 
 Assistant professor 48 (54) 49 (49) 57 (50) 
 Associate professor 21 (24) 27 (27) 28 (25) 
 Professor 19 (21) 23 (23) 23 (20) 
Experience, y, n (%)    
 0–5 5 (6) 4 (4) 4 (4) 
 6–10 9 (10) 16 (16) 29 (26) 
 11–15 19 (21) 16 (16) 17 (15) 
 16–20 15 (17) 11 (11) 12 (11) 
 21–25 12 (13) 12 (12) 13 (12) 
 ≥26 29 (33) 41 (41) 38 (34) 
Primary work setting, n (%)    
 Inpatient 32 (36) 35 (35) 37 (33) 
 Outpatient 57 (64) 65 (65) 76 (67) 
Full-time employment, n (%) 78 (88) 83 (83) 98 (87) 
CharacteristicSurvey 1a (n = 89)Survey 2a (n = 100)Survey 3a (n = 113)
Age, n (%)    
 <40 y 25 (28) 28 (28) 39 (35) 
 41–50 y 24 (27) 22 (22) 26 (23) 
 51–60 y 24 (27) 27 (27) 29 (26) 
 61–70 y 11 (12) 16 (16) 11 (10) 
 ≥71 y 5 (6) 7 (7) 8 (7) 
Sex, n (%)    
 Male 22 (25) 27 (27) 37 (33) 
 Female 62 (70) 68 (68) 73 (65) 
 Nonbinary or no answer 5 (5) 5 (5) 3 (3) 
Ethnicity, n (%)    
 White 46 (52) 61 (61) 79 (70) 
 African American 4 (4) 3 (3) 1 (1) 
 Hispanic or Latino 7 (8) 5 (5) 8 (7) 
 Asian or Pacific Islander 15 (17) 15 (15) 10 (9) 
 Other or no answer 17 (19) 16 (16) 15 (13) 
Marital status, n (%)    
 Married 69 (77) 73 (73) 93 (82) 
 Single 6 (7) 11 (11) 12 (11) 
 Divorced, separated or widowed 5 (6) 7 (7) 6 (5) 
 No answer 9 (10) 9 (9) 2 (2) 
Responsibility for dependents, n (%) 60 (67) 59 (59) 68 (60) 
Faculty rank, n (%)    
 Instructor 1 (1) 1 (1) 5 (4) 
 Assistant professor 48 (54) 49 (49) 57 (50) 
 Associate professor 21 (24) 27 (27) 28 (25) 
 Professor 19 (21) 23 (23) 23 (20) 
Experience, y, n (%)    
 0–5 5 (6) 4 (4) 4 (4) 
 6–10 9 (10) 16 (16) 29 (26) 
 11–15 19 (21) 16 (16) 17 (15) 
 16–20 15 (17) 11 (11) 12 (11) 
 21–25 12 (13) 12 (12) 13 (12) 
 ≥26 29 (33) 41 (41) 38 (34) 
Primary work setting, n (%)    
 Inpatient 32 (36) 35 (35) 37 (33) 
 Outpatient 57 (64) 65 (65) 76 (67) 
Full-time employment, n (%) 78 (88) 83 (83) 98 (87) 
a

No differences between groups on the basis of χ2 tests.

In all 3 survey periods, the frequency of burnout ranged from 20% to 26% of participants (P > .05, all comparisons by χ2 test), and inpatient (frontline) workers were not more likely to report burnout (P > .05 in Survey 2 and Survey 3; Fig 2). Fig 3 reveals changes in PA, DEP, and EE over the 3 survey time periods. Although faculty deployment occurred between survey 1 to survey 2, there was a decrease in EE, with the mean EE score decreasing from 2.25 (1.1) to 1.9 (1.2) from Survey 1 to Survey 2 (P = .04; Fig 3). The EE score remained lower (2.07) in Survey 3 compared with that of Survey 1 (P = .22), although not different compared with that of the previous time periods. There was no change in DEP or PA when comparing survey periods. Burnout frequency and changes in burnout subscales were unchanged when reanalyzing our data with primary pediatric faculty (ie, without affiliated faculty such as pediatric surgeons) in surveys 2 and 3. Participants self-reporting direct care for COVID-19 patients during the surge also did not have an increased likelihood of burnout (P = .48; data not shown).

FIGURE 2

Physician burnout by frontline worker status. *P = .9 or P > .9 (comparing physician burnout by frontline worker status by using χ2 analysis). **P = .12 (comparing physician burnout by frontline worker status by using χ2 analysis).

FIGURE 2

Physician burnout by frontline worker status. *P = .9 or P > .9 (comparing physician burnout by frontline worker status by using χ2 analysis). **P = .12 (comparing physician burnout by frontline worker status by using χ2 analysis).

Close modal
FIGURE 3

Burnout subscales comparing survey periods. Lower mean scores for EE and depersonalization suggest less risk for burnout, and lower mean scores for PA suggest increased risk for burnout.

FIGURE 3

Burnout subscales comparing survey periods. Lower mean scores for EE and depersonalization suggest less risk for burnout, and lower mean scores for PA suggest increased risk for burnout.

Close modal

Fig 4 reveals changes in the 6 worklife domains over the 3 time periods. There was an improvement in workload, when comparing Survey 1 to Survey 2 (mean: 2.5 [0.72] to 2.95 [0.78]) and survey 1 to Survey 3 (mean: 2.5 [0.72] to 2.8 [0.77]; both P < .01), suggesting participants had less problems with workload in later survey periods. There was also an improvement in the fairness domain comparing Survey 1 to Survey 2 (mean: 3.1 [0.71] to 3.3 [0.69]; Fig 4) and Survey 1 to Survey 3 (mean: 3.1 [0.71] to 3.3 [0.72]; both P = .03; Fig 4). These findings remained unchanged when reanalyzing our data with primary pediatric faculty. When separating faculty into inpatient (frontline) and outpatient providers, we still found improvements in the workload domain in inpatient faculty when comparing Survey 1 to Survey 2 (mean: 2.7 [0.75] to 3.1 [0.78]; P = .03). Outpatient faculty had improvements in the workload domain comparing Survey 1 to Survey 2 (mean: 2.5 [0.71] to 2.9 [0.77]; P = .006) and survey 1 to survey 3 (mean: 2.5 [0.71] to 2.80 [0.78]; P = .015).

FIGURE 4

Areas of worklife mean domain scores comparing survey periods. aIndicates that comparison of survey 1 to survey 2; and comparison of survey 1 to survey 3 are significant. Lower mean worklife scores suggest participants have more problems within that worklife domain.

FIGURE 4

Areas of worklife mean domain scores comparing survey periods. aIndicates that comparison of survey 1 to survey 2; and comparison of survey 1 to survey 3 are significant. Lower mean worklife scores suggest participants have more problems within that worklife domain.

Close modal

We examined pediatric faculty burnout, and factors associated with burnout, using serial cross-sectional surveys in an early US epicenter of the COVID-19 pandemic over 3 time periods. There were no changes in burnout prevalence during the first 7 months of the pandemic. Contrary to our hypothesis, we found that EE decreased during the COVID-19 surge and did not increase in the postsurge period. Faculty perceptions of workload and fairness improved in the surge and post-surge survey periods. To our knowledge, this is the first study to explore the short-term impact of the COVID-19 pandemic on burnout and worklife in pediatric faculty deployed to care for COVID-19 patients. These findings may be helpful to other institutions who need to deploy pediatric faculty and require strategies to support pediatric faculty during another wave of the pandemic or during other future critical events. Strengths of this study include the ability to directly compare pediatric faculty burnout data during the height of the COVID-19 surge with recent pre- and postsurge data in an academic institution located in a COVID-19 epicenter, and the use of validated survey instruments.

We found burnout rates ranging from 20% to 26% of our pediatric faculty, which is lower than previously reported baseline national rates of pediatrician burnout (30% to 49%)2527  and is comparable with that of other studies exploring health care worker burnout during the COVID-19 pandemic.20,2837  Our findings of improved EE (the subscale most related to burnout8 ) during the COVID-19 surge may reflect a standard psychological response to a disaster. The “phases of disaster” theory is used to describe 6 stages (predisaster, impact, heroic, honeymoon, disillusionment, and reconstruction) characterized by predictable sequences of individual and community emotional responses to a disaster over time, which may occur over months to years.38  The “heroic” stage is characterized by feelings of adrenaline and altruism and occurs soon after the initial impact of a disaster. A subsequent “honeymoon” or “community cohesion” stage then occurs when survivors (in this case, physicians) settle into the new routine created by the disaster and have a stronger sense of connection to each other because of shared experiences.

The timing of Survey 2 (immediately after the peak of the COVID-19 surge; Fig 1) may have captured this “honeymoon” stage, whereas Survey 3 may have captured the beginning of a “disillusionment phase.” In previous studies, researchers indicate EE and burnout in health care workers may continue years after an inciting event, such as a pandemic or earthquake.15,16,39  In one study by Mattei et al,15  direct exposure to an earthquake in L’Aquila, Italy, was a significant predictor of burnout in health care workers, as long as 6 years after the event. With our findings, we support theories that long-term monitoring of physician wellbeing may be critical to ensure a healthy physician workforce in areas severely affected by the pandemic40  and that studying individual and organizational responses to traumatic events can create opportunities for posttraumatic growth.41 

We did not find changes in the majority of AWS domains (control, reward, values, and community) comparing 3 different survey periods, suggesting there may be a ceiling effect with these measures. However, faculty perceptions of workload improved during the surge and postsurge, despite faculty deployment. Our institution employed strategies on the basis of a theoretical framework to mitigate burnout development,42  which may have improved faculty perceptions of workload. Deliberate scheduling ensured no faculty worked over 12 hours in a single shift and had enough time off between shifts.38,43  The creation of an adult unit within our children’s hospital, rather than deploying pediatricians to unfamiliar adult units, staff, and workflows may have eased the burden of unfamiliarity. After the surge, diminished inpatient and outpatient patient volumes may have also contributed to reported improvements. Our findings of improved perceptions of workload is consistent with that of other studies in which researchers measure AWS sequentially. Gregory et al44  examined an intervention in primary care clinics that was associated with improvements in physician workload, EE, and DEP. Associations between burnout subscales and AWS, especially in different settings, may also be particularly important to explore in further studies.

We also noted an improvement in the worklife domain of fairness. The domain of “fairness” is used to examine participants’ perceptions on appropriate allocation of resources and fairness of decision-making by leadership. We theorized frequent and clear communication from administrative leadership may have helped faculty understand how and why decisions were made. We ensured visible and engaged leadership, with the department leadership meeting with each pediatric division between the Survey 2 and Survey 3 periods to understand unique challenges faculty faced.45  Prioritizing frequent and timely communication with all faculty may have helped the perception that resources and responsibilities were distributed as fairly as possible.

Although we did not find significant improvements in the worklife domain of community, this may have been due to a ceiling effect because it was consistently the highest mean worklife score in all time periods (4.0–4.2 of 5). Continued community-building was an important strategy during and after the surge because peer support may mitigate burnout.27  Spaces were created for frontline staff to take a break together during shifts. Virtual faculty support calls were offered on a regular basis.46  Mental health resources were shared, and psychiatry department colleagues offered their services to anyone requesting assistance. In July 2020 (before Survey 3 administration), “parent load” virtual support groups were created to help faculty with dependents <18 years of age cope with the challenges of child care and the uncertainties of school reopening. Celebrations of annual events, such as trainee graduations and faculty retirements, occurred virtually and focused on our community’s strengths. Strengthening feelings of community and support both virtually and in-person (for frontline workers) may have helped create feelings of cohesion and connection needed to mitigate stress from the pandemic surge.

There were several limitations to this study. The response rate was suboptimal, although similar to other physician burnout surveys,47  and may not fully capture the true extent of burnout, although demographics of the survey population and our faculty were generally similar. Senior faculty were more likely to respond to the survey, which may have impacted our findings because older participants have been shown to be less likely to be burned out.8  However, our survey demographics remained similar in all survey periods, and we did not note any changes in burnout between survey periods. We used a cross-sectional survey, so we can only infer associations, not causal relationships. We did not track individual responses over time because the survey was anonymous, and study participants may have only responded in some time periods and not in others. Some participants may have been misclassified as “outpatient” or “nonfrontline” respondents in some cases because we were unable to specifically identify and analyze those outpatient providers who became “frontline” workers during the pandemic surge, which may impact our findings. This study may be subject to response bias, with busier frontline faculty choosing not to respond. Social desirability bias may also have played a role, despite the confidential nature of this study. We did not measure for physician stress or anxiety, which may impact the development of physician burnout and have negative effects on wellbeing. This study was conducted at a single institution, limiting the generalizability to our findings. We were unable to perform a multivariate analysis because of our sample size. Finally, although there was no difference in burnout rates between the 3 survey periods, the results may be subject to a type II error. On the basis of our limited sample size, we were only powered to detect a difference in burnout of 16%. However, despite the limited sample size, we were still able to detect changes in areas of worklife (eg, workload and fairness) that may prevent burnout.

Physician burnout remains a critical public health issue, particularly in the face of the COVID-19 pandemic. Our institution, located in an early epicenter of the pandemic and requiring faculty deployment to deal with a surge in COVID-19 patients, customized strategies to mitigate physician burnout. The implementation of these strategies may have initially improved pediatric faculty EE and worklife. These approaches may be helpful for other institutions facing surges of COVID-19 patients and pediatric faculty deployment. However, the full impact of the COVID-19 surge on pediatric faculty burnout may not yet be apparent only 4 months after the initial surge event. Future studies are needed to examine continued strategies to mitigate burnout and examine the long-term consequences of the COVID-19 pandemic and deployment on physician wellbeing.

We thank the pediatric housestaff, nurses, staff, and faculty at the Children’s Hospital at Montefiore for their hard work and dedication during the COVID-19 surge and beyond.

FUNDING: No external funding.

Dr Uong conducted analyses, drafted the initial manuscript, and reviewed and revised the manuscript; Dr Cabana conceptualized and designed the study, conducted analyses, and reviewed and revised the manuscript; Dr Schulte conceptualized and designed the study, designed the data collection instruments, and reviewed and revised the manuscript; Dr Bernstein conceptualized and designed the study, designed the data collection instruments, and reviewed and revised the manuscript; Dr Serwint critically reviewed and revised the manuscript for important intellectual content; and all authors approved the manuscript as submitted.

1.
American Academy of Pediatrics Board of Directors
.
American Academy of Pediatrics five-year strategic plan
.
Available at: https://services.aap.org/en/about-the-aap/strategic-plan/. Accessed February 24, 2021
2.
Kazmerski
TM
,
Friehling
E
,
Sharp
EA
, et al
.
Pediatric faculty and trainee attitudes toward the COVID-19 pandemic
.
Hosp Pediatr
.
2021
;
11
(
2
):
198
207
3.
Katzow
MW
,
Steinway
C
,
Jan
S
.
Telemedicine and health disparities during COVID-19
.
Pediatrics
.
2020
;
146
(
2
):
e20201586
4.
DeLaroche
AM
,
Rodean
J
,
Aronson
PL
, et al
.
Pediatric emergency department visits at US children’s hospitals during the COVID-19 pandemic
.
Pediatrics
.
2021
;
147
(
4
):
e2020039628
5.
Philips
K
,
Uong
A
,
Buckenmyer
T
, et al
.
Rapid implementation of an adult coronavirus disease 2019 unit in a children’s hospital
.
J Pediatr
.
2020
;
222
:
22
27
6.
Norris
SE
,
Strumph
K
,
Rahmani
NE
.
Pediatric palliative care when COVID-19 positive adults are dying in a children’s hospital
.
Pediatrics
.
2020
;
146
(
3
):
e20201570
7.
Osborn
R
,
Doolittle
B
,
Loyal
J
.
When pediatric hospitalists took care of adults during the COVID-19 pandemic
.
Hosp Pediatr
.
2021
;
11
(
1
):
e15
e18
8.
West
CP
,
Dyrbye
LN
,
Shanafelt
TD
.
Physician burnout: contributors, consequences and solutions
.
J Intern Med
.
2018
;
283
(
6
):
516
529
9.
Oreskovich
MR
,
Kaups
KL
,
Balch
CM
, et al
.
Prevalence of alcohol use disorders among American surgeons
.
Arch Surg
.
2012
;
147
(
2
):
168
174
10.
Shanafelt
TD
,
Balch
CM
,
Dyrbye
L
, et al
.
Special report: suicidal ideation among American surgeons
.
Arch Surg
.
2011
;
146
(
1
):
54
62
11.
Tawfik
DS
,
Profit
J
,
Morgenthaler
TI
, et al
.
Physician burnout, well-being, and work unit safety grades in relationship to reported medical errors
.
Mayo Clin Proc
.
2018
;
93
(
11
):
1571
1580
12.
Shanafelt
TD
,
Balch
CM
,
Bechamps
G
, et al
.
Burnout and medical errors among American surgeons
.
Ann Surg
.
2010
;
251
(
6
):
995
1000
13.
Shanafelt
TD
,
Bradley
KA
,
Wipf
JE
,
Back
AL
.
Burnout and self-reported patient care in an internal medicine residency program
.
Ann Intern Med
.
2002
;
136
(
5
):
358
367
14.
Baer
TE
,
Feraco
AM
,
Tuysuzoglu Sagalowsky
S
,
Williams
D
,
Litman
HJ
,
Vinci
RJ
.
Pediatric resident burnout and attitudes toward patients
.
Pediatrics
.
2017
;
139
(
3
):
e20162163
15.
Mattei
A
,
Fiasca
F
,
Mazzei
M
,
Abbossida
V
,
Bianchini
V
.
Burnout among healthcare workers at L’Aquila: its prevalence and associated factors
.
Psychol Health Med
.
2017
;
22
(
10
):
1262
1270
16.
Maunder
RG
,
Lancee
WJ
,
Balderson
KE
, et al
.
Long-term psychological and occupational effects of providing hospital healthcare during SARS outbreak
.
Emerg Infect Dis
.
2006
;
12
(
12
):
1924
1932
17.
Leiter
MP
,
Maslach
C
.
Six areas of worklife: a model of the organizational context of burnout
.
J Health Hum Serv Adm
.
1999
;
21
(
4
):
472
489
18.
Bradley
M
,
Chahar
P
.
Burnout of healthcare providers during COVID-19 [published online ahead of print July 9, 2020]
.
Cleve Clin J Med
.
19.
Thompson
CN
,
Baumgartner
J
,
Pichardo
C
, et al
.
COVID-19 outbreak - New York City, February 29-June 1, 2020
.
MMWR Morb Mortal Wkly Rep
.
2020
;
69
(
46
):
1725
1729
20.
Matsuo
T
,
Kobayashi
D
,
Taki
F
, et al
.
Prevalence of health care worker burnout during the coronavirus disease 2019 (COVID-19) pandemic in Japan
.
JAMA Netw Open
.
2020
;
3
(
8
):
e2017271
21.
Thomas
NK
.
Resident burnout
.
JAMA
.
2004
;
292
(
23
):
2880
2889
22.
Maslach
C
,
Jackson
SE
,
Leiter
MP
.
Maslach Burnout Inventory
. 4th ed.
Menlo Park, CA
:
Mind Garden, Inc.
;
2018
23.
Verret
CI
,
Nguyen
J
,
Verret
C
,
Albert
TJ
,
Fufa
DT
.
How do areas of work life drive burnout in orthopaedic attending surgeons, fellows, and residents?
Clin Orthop Relat Res
.
2021
;
479
(
2
):
251
262
24.
Mind Garden
.
The Problem with Cut-Offs for the Maslach Burnout Inventory
.
Menlo Park, CA
:
Mind Garden
;
2018
25.
Shanafelt
TD
,
West
CP
,
Sinsky
C
, et al
.
Changes in burnout and satisfaction with work-life integration in physicians and the general US working population between 2011 and 2017
.
Mayo Clin Proc
.
2019
;
94
(
9
):
1681
1694
26.
Simkovich
SM
,
Thompson
LM
,
Clark
M
, et al
.
A risk assessment tool for resumption of research activities during the COVID-19 pandemic [published online ahead of print November 12, 2020]
.
Res Sq
.
27.
Starmer
AJ
,
Frintner
MP
,
Freed
GL
.
Work-life balance, burnout, and satisfaction of early career pediatricians
.
Pediatrics
.
2016
;
137
(
4
):
e20153183
28.
Giusti
EM
,
Pedroli
E
,
D’Aniello
GE
, et al
.
The psychological impact of the COVID-19 outbreak on health professionals: a cross-sectional study
.
Front Psychol
.
2020
;
11
:
1684
29.
Amanullah
S
,
Ramesh Shankar
R
.
The impact of COVID-19 on physician burnout globally: a review
.
Healthcare (Basel)
.
2020
;
8
(
4
):
421
30.
Barello
S
,
Palamenghi
L
,
Graffigna
G
.
Burnout and somatic symptoms among frontline healthcare professionals at the peak of the Italian COVID-19 pandemic
.
Psychiatry Res
.
2020
;
290
:
113129
31.
Teo
YH
,
Xu
JTK
,
Ho
C
, et al
.
Factors associated with self-reported burnout level in allied healthcare professionals in a tertiary hospital in Singapore
.
PLoS One
.
2021
;
16
(
1
):
e0244338
32.
Azoulay
E
,
De Waele
J
,
Ferrer
R
, et al
;
ESICM
.
Symptoms of burnout in intensive care unit specialists facing the COVID-19 outbreak
.
Ann Intensive Care
.
2020
;
10
(
1
):
110
33.
Naldi
A
,
Vallelonga
F
,
Di Liberto
A
, et al
.
COVID-19 pandemic-related anxiety, distress and burnout: prevalence and associated factors in healthcare workers of North-West Italy
.
BJPsych Open
.
2021
;
7
(
1
):
e27
34.
Tan
BYQ
,
Kanneganti
A
,
Lim
LJH
, et al
.
Burnout and associated factors among health care workers in Singapore during the COVID-19 pandemic
.
J Am Med Dir Assoc
.
2020
;
21
(
12
):
1751
1758.e5
35.
Wu
Y
,
Wang
J
,
Luo
C
, et al
.
A comparison of burnout frequency among oncology physicians and nurses working on the frontline and usual wards during the COVID-19 epidemic in Wuhan, China
.
J Pain Symptom Manage
.
2020
;
60
(
1
):
e60
e65
36.
Kannampallil
TG
,
Goss
CW
,
Evanoff
BA
,
Strickland
JR
,
McAlister
RP
,
Duncan
J
.
Exposure to COVID-19 patients increases physician trainee stress and burnout
.
PLoS One
.
2020
;
15
(
8
):
e0237301
37.
Firew
T
,
Sano
ED
,
Lee
JW
, et al
.
Protecting the front line: a cross-sectional survey analysis of the occupational factors contributing to healthcare workers’ infection and psychological distress during the COVID-19 pandemic in the USA
.
BMJ Open
.
2020
;
10
(
10
):
e042752
38.
DeWolfe
D
.
Training Manual For Mental Health and Human Service Workers in Major Disasters
.
Rockville, MD
:
US Department of Health and Human Services
;
2000
39.
Fujitani
K
,
Carroll
M
,
Yanagisawa
R
,
Katz
C
.
Burnout and psychiatric distress in local caregivers two years after the 2011 Great East Japan Earthquake and Fukushima nuclear radiation disaster
.
Community Ment Health J
.
2016
;
52
(
1
):
39
45
40.
Dzau
VJ
,
Kirch
D
,
Nasca
T
.
Preventing a parallel pandemic - a national strategy to protect clinicians’ well-being
.
N Engl J Med
.
2020
;
383
(
6
):
513
515
41.
Olson
K
,
Shanafelt
T
,
Southwick
S
.
Pandemic-driven posttraumatic growth for organizations and individuals
.
JAMA
.
2020
;
324
(
18
):
1829
1830
42.
Shanafelt
TD
,
Noseworthy
JH
.
Executive leadership and physician well-being: nine organizational strategies to promote engagement and reduce burnout
.
Mayo Clin Proc
.
2017
;
92
(
1
):
129
146
43.
Schwartz
R
,
Sinskey
JL
,
Anand
U
,
Margolis
RD
.
Addressing postpandemic clinician mental health : a narrative review and conceptual framework
.
Ann Intern Med
.
2020
;
173
(
12
):
981
988
44.
Gregory
STM
,
Menser
T
,
Gregory
BT
.
An organizational intervention to reduce physician burnout
.
J Healthc Manag
.
2018
;
63
(
5
):
338
352
45.
Shanafelt
T
,
Trockel
M
,
Rodriguez
A
,
Logan
D
.
Wellness-centered leadership: equipping health care leaders to cultivate physician well-being and professional fulfillment
.
Acad Med
.
2020
;
96
(
5
)
641
651
46.
Schulte
EE
,
Bernstein
CA
,
Cabana
MD
.
Addressing faculty emotional responses during the coronavirus 2019 pandemic
.
J Pediatr
.
2020
;
222
:
13
14
47.
Shanafelt
TD
,
Boone
S
,
Tan
L
, et al
.
Burnout and satisfaction with work-life balance among US physicians relative to the general US population
.
Arch Intern Med
.
2012
;
172
(
18
):
1377
1385

Competing Interests

POTENTIAL CONFLICT OF INTEREST: The authors have indicated they have no potential conflicts of interest to disclose. Dr Cabana is a member of the US Preventive Services Task Force. This article does not necessarily represent the views of the USPSTF.

FINANCIAL DISCLOSURE: The authors have indicated they have no financial relationships relevant to this article to disclose.

Supplementary data