OBJECTIVES

Autonomy is necessary for resident professional development and well-being. A recent focus on patient safety has increased supervision and decreased trainee autonomy. Few validated interventions exist to improve resident autonomy. We aimed to use quality improvement methods to increase our autonomy metric, the Resident Autonomy Score (RAS), by 25% within 1 year and sustain for 6 months.

METHODS

We developed a bundled-intervention approach to improve senior resident (SR) perception of autonomy on Pediatric Hospital Medicine (PHM) services at 5 academic children’s hospitals. We surveyed SR and PHM faculty perceptions of autonomy and targeted interventions toward areas with the highest discordance. Interventions included SR and faculty development, expectation-setting huddles, and SR independent rounding. We developed a Resident Autonomy Score (RAS) index to track SR perceptions over time.

RESULTS

Forty-six percent of SRs and 59% of PHM faculty completed the needs assessment survey querying how often SRs were afforded opportunities to provide autonomous medical care. Faculty and SR ratings were discordant in these domains: SR input in medical decisions, SR autonomous decision-making in straightforward cases, follow-through on SR plans, faculty feedback, SR as team leader, and level of attending oversight. The RAS increased by 19% (3.67 to 4.36) 1 month after SR and faculty professional development and before expectation-setting and independent rounding. This increase was sustained throughout the 18-month study period.

CONCLUSIONS

SRs and faculty perceive discordant levels of SR autonomy. We created an adaptable autonomy toolbox that led to sustained improvement in perception of SR autonomy.

Autonomy is the desire to be one’s own origin of behavior1  and is necessary for self-determination.2  Self-determined individuals are motivated to pursue their goals, more satisfied with their work and lives, and higher achievers in educational settings.1,3  Resident autonomy encourages patient ownership, fosters clinical competence, and is crucial preparation for independent practice.4  Residents are expected to progress from supervised to independent practice in core entrustable professional activities during training.5  However, the recent increase in attending physician supervision in an effort to improve patient safety6,7  has limited autonomous experiences for trainees.4 

Attending physicians must balance providing supervision and autonomy for resident trainees8  while also ensuring patients receive efficient, safe, and high-quality care. Additionally, attending physicians perceive granting more autonomy to residents than what residents perceive.3,9  Despite literature supporting the importance of graduated autonomy in training10,11  and its positive impact on resident well-being,1214  little evidence exists on how to reliably and sustainably increase resident autonomy.15 

Although there is no standard approach to safely promote resident autonomy, several interventions have been described. Weisgerber et al developed and validated the Senior Resident Empowerment Action-21(SREA-21) tool to help faculty entrust senior residents (SR) to lead rounds, teach other learners, and communicate with patients and families.16  Adherence to the SREA-21 tool has been used as a proxy for SR autonomy,17  but its direct effect on the promotion of SR autonomy is unknown. Other pro-autonomy interventions include expectation-setting between SR and attending, deliberate SR positioning on rounds, prerounds huddles between SR and attending, and independent SR-led rounds.7,18,19  No previous study has bundled multiple interventions using quality improvement (QI) methods to increase SR autonomy.

The goals of our QI initiative were (1) to understand perceived needs, barriers, and drivers of SR autonomy, and (2) to create and disseminate a change package, or “Autonomy Toolbox,” to increase opportunities for SR autonomy. Our SMART aim was to increase resident perception of autonomy, as measured by our Resident Autonomy Score (RAS), by 25% within 1 year and sustain for 6 months.

This QI initiative occurred at 5 tertiary care children’s hospitals from July 2020 to June 2022 (Supplemental Table 3). We formed a multidisciplinary team of Pediatric Hospital Medicine (PHM) faculty, PHM fellows, chief residents, pediatric residents, educational staff, and QI analysts. The interventions were performed on PHM inpatient teams. Although each institution had unique team structures (e.g., presence of fellows, number of residents and students), all teams had at least 1 SR and an attending physician. Site leaders had flexibility to adapt interventions to fit with the culture of their institutions.

A 22-item needs assessment survey (Supplemental Fig 4) was adapted from the validated survey by Biondi et al.3  We implemented minimal modifications to the questions to fit our specific program design and edited our survey using an iterative consensus process with pediatric chief residents, PHM fellows, PHM faculty, and SRs. Using Kane’s validity framework,20  scoring and generalizability inferences can be drawn given our adaptation of the Biondi et al3  survey using similar syntax and intention to survey a comparable population. Internal review of our survey was performed for consistency and additional review with surrogate survey respondents (ie, chief residents, Infectious Diseases faculty) provided increased reliability. We sent our survey to 427 pediatric SRs and 220 PHM faculty to determine baseline perception of SR autonomy. SR surveyed included any upper level pediatric or combined pediatrics resident in summer or fall of 2020; survey respondents were instructed to reflect specifically on their time on PHM service. We identified 10 questions in which faculty and SR had statistically significant discordant perceptions of SR autonomy. Of these, 6 were chosen by group consensus to comprise a holistic picture of SR perceptions of autonomy. These were combined to form the RAS and were targets of improvement. The 6 questions incorporated into our RAS were:

  1. I feel that my input is taken seriously by my attending when it comes to making important medical decisions.

  2. I feel that I am encouraged to make medical decisions for straightforward cases on my own.

  3. I feel that my attending physicians allow my plan to be followed, even if they prefer an equivalent alternative

  4. I feel that I receive constructive feedback from my attending to help me improve my medical decision-making skills.

  5. I feel like I am the leader of my medical team.

  6. I feel that the level of attending oversight regarding patient care activities is just right.

Responses to these questions, as well as free-text survey responses, allowed us to identify key drivers to improving the perception of SR autonomy (Fig 1).

FIGURE 1

Key driver diagram for increasing SR autonomy. Key drivers as informed by our needs assessment and interventions aimed at addressing these drivers.

FIGURE 1

Key driver diagram for increasing SR autonomy. Key drivers as informed by our needs assessment and interventions aimed at addressing these drivers.

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We created an Autonomy Toolbox change package informed by our key drivers. This included SR and faculty development sessions, SR and attending shared expectation-setting, and SR-led independent rounding.

Professional Development Sessions

In the first plan-do-study-act cycle, SRs and PHM faculty participated in professional development sessions on the SREA-21 framework.16  This curriculum focuses on empowering the SR to lead the team during patient- and family-centered rounds (PFCR). Attending physicians were encouraged to remain silent, enter the patient room after the SR, create a safe learning environment, and optimize teaching and communication to set the SR up for success. Dissemination of this curriculum was individualized at each site. Some sites supplemented instructional workshops with educational videos about SREA-21. One site developed sessions for faculty focused on potential barriers to increasing SR autonomy, like having a struggling SR or PHM fellow. Others provided visual reminders of SREA-21 tenants via “badge buddies.”

Expectation-setting

We formalized expectation-setting huddles between the attending and SR to outline roles and responsibilities of team members at the start of a service week, including specific expectations regarding daily operations of the team (teaching, staffing, and communication with families and staff). Some sites used standardized preservice agreement forms for the SR and attending to sign, whereas others used just-in-time e-mail reminders to discuss expectations (Supplemental Fig 5).

SR Independent Rounding Experience

We asked PHM faculty to allow SRs to lead rounds without an attending present at least once weekly for a minimum of 2 patients. Creating this broad definition of independent rounding allowed each institution to implement this change at a level that worked for them.

Just-in-time Reminders

Regular e-mail communication to SR and PHM faculty at the beginning of service weeks provided just-in-time reminders of our initiative and interventions. We shared resources, such as onboarding videos and a 1-page handout for expectation-setting, across the collaborative. Interventions were reinforced periodically during faculty meetings. Our project was supported by the pediatric residency programs at all 5 sites.

Answers to our 6 questions of interest were converted to a 5-point scale corresponding to the percentage of the time the SR reported each question was true (1 = 0% to 20% of the time, 2 = 21% to 40% of the time, etc). We averaged scores from each question to generate the composite RAS. Data from the needs assessment was used to determine the baseline RAS. All SRs who completed at least 1 week on PHM service during the study period were sent surveys with the 6 component questions of the RAS. Surveys were disseminated to SRs via e-mail monthly. We managed surveys and data via REDCap. Site leaders met virtually monthly to discuss institution specific results and pitfalls, and collaboratively solve problems.

Our primary outcome, SR perception of autonomy, was measured via the RAS. We selected a goal RAS of 4.50 by consensus, representing a 25% increase from the baseline. For our process measures, we embedded additional survey questions to determine the degree of uptake of our expectation-setting and independent rounding interventions each month. We gathered feedback from surveys of families and nurses regarding the quality and efficiency of PFCR, if family and nursing issues were adequately addressed, and if families were satisfied with the discussion on PFCR with their team as our balancing measures. Questions were decided by group consensus as to what is important to families and nursing staff. Surveys were collected at time of service either by paper or via quick response code. Additionally, PHM attending physicians were surveyed via e-mail after every service block regarding their perspectives on how efforts to improve resident autonomy affected rounding efficiency, patient safety, and quality of teaching.

Analysis of Needs Assessment

We compared attending and SR responses using Fisher’s exact test (R statistical software, version 3.5.2, https://r-project.org). Free text responses regarding perceived barriers to SR autonomy and suggestions to improve autonomy were reviewed, with common themes identified and tallied.

Analysis of Improvement Efforts Over Time

The monthly average RAS was plotted using an X-bar statistical process control chart (Microsoft Excel for Microsoft 365 MSO). The X-bar chart enabled the QI team to define sequential stage means. Calculation of control limits was based on process averages and the within-subgroup estimate of the SD, with 3 σ limits based on a normal distribution of the data.21  statistical process control chart principles were used to determine if there was special cause variation; 8 consecutive points below or above the centerline led to a centerline shift.22  As start dates from the 5 institutions were asynchronous, data were standardized to time from the first intervention at each institution.

This study was approved by the institutional review board at all sites.

At least 1 question of the needs assessment survey was answered by 59% (129 of 220) of PHM faculty and 46% (198 of 427) of SRs. Six questions from the needs assessment were identified as targets of improvement as described above (Fig 2). SR answers to these questions were averaged and combined to produce a baseline RAS of 3.67.

FIGURE 2

Needs assessment results. Each bar graph indicates responses from residents and faculty to questions in the Needs Assessment. Respondents were asked what percent of the time of their time spent on service they believe each statement is true (reported as from the perspective of the senior resident in this figure). P values were obtained using Fisher’s exact test to compare answers between residents and faculty.

FIGURE 2

Needs assessment results. Each bar graph indicates responses from residents and faculty to questions in the Needs Assessment. Respondents were asked what percent of the time of their time spent on service they believe each statement is true (reported as from the perspective of the senior resident in this figure). P values were obtained using Fisher’s exact test to compare answers between residents and faculty.

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SR and PHM attending physicians identified similar but distinct barriers to autonomy in their free-text responses (Table 1). SR identified attending qualities (early career, micromanages, or “too available”) as biggest barriers to SR autonomy, whereas attending physicians identified a lack of SR skill, knowledge, or motivation as their biggest barriers to providing autonomy. Both groups noted that patient acuity or complexity limited SR autonomy.

TABLE 1

Needs Assessment Free Text Results

Perceived Barriers to Resident Autonomy
Attending responsesNo. of respondents (125)hResident responsesNo. of respondents (130)h
Lack of SR knowledgea or competence 52 Attending specific traitb 58 
Patient specific traitc 32 PHM fellow on service 30 
Family dynamicd 23 Attending “too available” 19 
Lack of patient ownership or poor communication with patients by SR 22 Patient specific traitc 15 
Lack of SR motivation for or comfort with autonomy 21 Culture of pediatric medicine 14 
Suggestions for improving resident autonomy 
Attending responses No. of respondents (108)h Resident responses No. of respondents (115)h 
Attending and SR set expectations 20 Designate SR as leader of the team 40 
Change in attending behaviore 17 SR independent rounding 29 
SR independent rounding 16 Attending and SR set expectations 15 
Change in rotation structuref 15 Attending and SR run list before rounds 11 
Change in SR behaviorg and standardize expected level of autonomy at institution 12 (tie) Attending physicians allow SR to choose equivalent alternative plan that SR prefers 10 
Perceived Barriers to Resident Autonomy
Attending responsesNo. of respondents (125)hResident responsesNo. of respondents (130)h
Lack of SR knowledgea or competence 52 Attending specific traitb 58 
Patient specific traitc 32 PHM fellow on service 30 
Family dynamicd 23 Attending “too available” 19 
Lack of patient ownership or poor communication with patients by SR 22 Patient specific traitc 15 
Lack of SR motivation for or comfort with autonomy 21 Culture of pediatric medicine 14 
Suggestions for improving resident autonomy 
Attending responses No. of respondents (108)h Resident responses No. of respondents (115)h 
Attending and SR set expectations 20 Designate SR as leader of the team 40 
Change in attending behaviore 17 SR independent rounding 29 
SR independent rounding 16 Attending and SR set expectations 15 
Change in rotation structuref 15 Attending and SR run list before rounds 11 
Change in SR behaviorg and standardize expected level of autonomy at institution 12 (tie) Attending physicians allow SR to choose equivalent alternative plan that SR prefers 10 

The top 5 suggestions and barriers to autonomy written in by surveyed PHM attending physicians and SR. Note that not all survey participants responded to each question and some respondents had answers that listed more than 1 barrier or suggestion for improvement.

a

Medical knowledge or about patient case.

b

Early career status, conservative style, or micromanaging style.

c

Illness severity, complex case, or unfamiliar diagnosis.

d

Dissatisfied family, complex social situation, or pre-existing relationship with attending.

e

Speaking less on rounds, deliberate positioning behind SR.

f

Offer pre-tending rotations, less people on rounds, more continuity with residents, less patients or less complex patients on teaching service

g

Express interest in autonomy, be prepared for rounds, take ownership of patients

h

Number of total respondents to this question

Attending physicians and SRs provided comparable suggestions for improving autonomy. Both groups noted expectation-setting between SR and attending and SR-led independent rounding would improve autonomy. SRs also reported that attending physicians designating them as the leader of the team was important for their autonomy. Attending physicians suggested that personal changes, like deliberate positioning or less frequent interrupting on PFCR, could improve SR autonomy.

Forty percent (209 of 522) of SR surveyed answered all 6 questions comprising the RAS during the study period. Special cause variation was noted in the average RAS beginning 1 month after implementing professional development (Fig 3). The new centerline of 4.36 was sustained for the remainder of the study period.

FIGURE 3

RAS control chart. Composite score for all 6 questions from all 5 institutions over time charted on X-bar control chart. The baseline was established at 3.67 and increased to 4.36 1 month after initiation of interventions. The baseline was established with data from the needs assessment survey. There was an asynchronous start between institutions, so data points are standardized to time from the first intervention (professional development) at each institution.

FIGURE 3

RAS control chart. Composite score for all 6 questions from all 5 institutions over time charted on X-bar control chart. The baseline was established at 3.67 and increased to 4.36 1 month after initiation of interventions. The baseline was established with data from the needs assessment survey. There was an asynchronous start between institutions, so data points are standardized to time from the first intervention (professional development) at each institution.

Close modal

RAS Components

Scores for 5 of the 6 RAS components improved during our study (Supplemental Table 4). The score for the question “I feel that I am encouraged to make medical decisions for straightforward cases on my own” did not change. Scores for questions regarding attending consideration of SR input, attending physicians following SR plans even if preferring an equivalent alternative, and attending oversight being “just right” increased 1 month after implementing professional development sessions. Resident perception as the leader of the team improved 2 months after our first intervention, whereas the reception of faculty feedback improved 7 months postintervention.

During the study period, 72% (144 of 200) of SRs reported their attending set expectations with them at least half of the time, whereas 46% (92 of 200) of SRs reported this was happening 76% to 100% of the time. Of those surveyed, 59% (78 of 132) of SRs reported they were given the opportunity to independently round.

Overall, 98% of families surveyed were satisfied with the discussion with their medical team and felt their concerns were adequately addressed (Table 2). The majority of nursing staff reported that the quality of PFCR was “excellent” or “above average” (60%), SR communication was “excellent” or “above average” (53%), patient and family concerns were adequately addressed (98%), and nursing concerns were adequately addressed (91%). Forty-two percent of nurses also reported that improved SR autonomy positively affected rounding efficiency.

TABLE 2

Balancing Measures

Survey Question and ResponsesNo. of Respondents (%)
Attending responses Do you think intervention(s) to increase resident autonomy has affected rounding efficiency? 
 Yes, efficiency has been positively affected 107 (24) 
 Yes, efficiency has been negatively affected 55 (13) 
 No effect 253 (57) 
 NA 26 (6) 
Do you think intervention(s) to increase resident autonomy has affected patient safety? 
 Yes, patient safety has been positively affected 27 (6) 
 Yes, patient safety has been negatively affected 11 (3) 
 No effect 364 (82) 
 NA, not observed 41 (9) 
Do you think intervention(s) to increase resident autonomy has affected the quality of teaching during PFCR? 
 Yes, quality of teaching has been positively affected 124 (28) 
 Yes, quality of teaching has been negatively affected 43 (10) 
 No effect 234 (53) 
 NA, not observed 41 (9) 
Nursing responses Do you think intervention(s) to increase resident autonomy has affected rounding efficiency? 
 Yes, efficiency has been positively affected 38 (42) 
 No effect 43 (47) 
 Yes, efficiency has been negatively affected 0 (0) 
 NA 10 (11) 
How would you describe the overall quality of PFCR? 
 Excellent 15 (16) 
 Above average 40 (44) 
 Average 34 (37) 
 Below average 1 (1) 
 Poor 1 (1) 
How effective was the senior resident in engaging patients and families during PFCR? 
 Excellent 18 (20) 
 Above average 30 (33) 
 Average 32 (35) 
 Below average 1 (1) 
 Poor 1 (1) 
 NA 9 (10) 
Were patient and/or family concerns or questions appropriately addressed by the senior resident? 
 Yes 85 (98) 
 No 2 (2) 
Were nursing concerns or questions appropriately addressed by the senior resident? 
 Yes 82 (91) 
 No 8 (9) 
Family responses Were you satisfied with the discussion with your medical team leader during PFCR? 
 Yes 81 (98) 
 No 2 (2) 
Were your questions and concerns addressed adequately by the medical team leader? 
 Yes 80 (98) 
 No 2 (2) 
Survey Question and ResponsesNo. of Respondents (%)
Attending responses Do you think intervention(s) to increase resident autonomy has affected rounding efficiency? 
 Yes, efficiency has been positively affected 107 (24) 
 Yes, efficiency has been negatively affected 55 (13) 
 No effect 253 (57) 
 NA 26 (6) 
Do you think intervention(s) to increase resident autonomy has affected patient safety? 
 Yes, patient safety has been positively affected 27 (6) 
 Yes, patient safety has been negatively affected 11 (3) 
 No effect 364 (82) 
 NA, not observed 41 (9) 
Do you think intervention(s) to increase resident autonomy has affected the quality of teaching during PFCR? 
 Yes, quality of teaching has been positively affected 124 (28) 
 Yes, quality of teaching has been negatively affected 43 (10) 
 No effect 234 (53) 
 NA, not observed 41 (9) 
Nursing responses Do you think intervention(s) to increase resident autonomy has affected rounding efficiency? 
 Yes, efficiency has been positively affected 38 (42) 
 No effect 43 (47) 
 Yes, efficiency has been negatively affected 0 (0) 
 NA 10 (11) 
How would you describe the overall quality of PFCR? 
 Excellent 15 (16) 
 Above average 40 (44) 
 Average 34 (37) 
 Below average 1 (1) 
 Poor 1 (1) 
How effective was the senior resident in engaging patients and families during PFCR? 
 Excellent 18 (20) 
 Above average 30 (33) 
 Average 32 (35) 
 Below average 1 (1) 
 Poor 1 (1) 
 NA 9 (10) 
Were patient and/or family concerns or questions appropriately addressed by the senior resident? 
 Yes 85 (98) 
 No 2 (2) 
Were nursing concerns or questions appropriately addressed by the senior resident? 
 Yes 82 (91) 
 No 8 (9) 
Family responses Were you satisfied with the discussion with your medical team leader during PFCR? 
 Yes 81 (98) 
 No 2 (2) 
Were your questions and concerns addressed adequately by the medical team leader? 
 Yes 80 (98) 
 No 2 (2) 

Balancing measures were collected from attending physicians, nurses, and patient families. NA, not applicable.

More attending physicians surveyed noted rounding efficiency had been positively affected than negatively affected (24% vs 13%) by efforts to increase SR autonomy. Eighty-two percent of attending physicians reported that our interventions did not affect patient safety, 3% reported interventions negatively impacted patient safety. Twenty-eight percent of attending physicians reported teaching on PFCR was improved by efforts to increase SR autonomy, and 10% reported a decrease in the quality of teaching.

In this multi-institutional QI initiative, we created and implemented an Autonomy Toolbox that led to a sustained increase in SR perception of autonomy on PHM services across 5 pediatric academic centers. Although it is known that individual changes like independent rounding,19  implementing SREA-21,16,17  or expectation setting18  can improve resident autonomy, this is the first study to implement combined interventions using QI methods. The use of the Autonomy Toolbox allowed for institution-specific adaptation and led to an improvement in the perception of SR autonomy, as demonstrated by a 19% increase in the RAS.

We gained an understanding of the drivers of and barriers to SR autonomy through our needs assessment. SR reported barriers included having fellows on service and the culture of pediatric medicine to involve supervisory physicians in nearly all medical decisions. However, the most cited barriers among SRs were attending-specific factors, such as micromanaging, being overly conservative, or being “too available.” Conversely, attending physicians often identified SR-specific factors, such as perceived lack of knowledge, competence, or confidence, as limiting SR autonomy. Similar to previous studies, residents and attending physicians had discordant perceptions of the level of resident autonomy afforded to SRs.3,9  Surveyed SRs and attending physicians provided suggestions that laid the framework for our interventions. SRs wanted to be designated as the leader of the team; both SRs and attending physicians wanted SRs to independently round and to formally set expectations. The Autonomy Toolbox was created to fit these needs.

The increase in the RAS occurred 1 month after SR and attending physician professional development sessions. We speculate that increasing awareness of the importance of providing SR autonomy can greatly improve the level of autonomy afforded to SR. Framing learning activities in terms of intrinsic goals in an autonomy-supportive environment can increase dedication to learning, as well as learner competence.23  Our development sessions helped to frame SR autonomy as an estimable goal on the wards. Additionally, the initiation of this QI work may have incentivized participants to increase SR autonomy via the Hawthorne effect.24  Direct observation of SR and PHM faculty dyads at some sites may have heightened this effect and created momentum for our initiative. Neither expectation-setting nor independent rounding directly led to significant increase in the RAS. As education alone typically does not produce a prolonged change in behavior, it is likely that subsequent interventions were necessary to sustain the initial increase in the perception of SR autonomy that otherwise would have faltered.

Some factors likely blunted the response to our interventions. Not all PHM faculty-SR dyads participated in expectation-setting or independent rounds. Independent rounds have been shown to promote critical thinking, self-reflection, and patient ownership and SRs report them as beneficial to their learning.7  At institutions where independent rounding was a new practice, uptake was low and hesitation to change was high. Conversely, those institutions with a form of independent rounding before our initiative more readily accepted SRs independently rounding. Attending physicians may be able to decrease the perceived burden by rounding in parallel a few patients behind the SR-led team (also called “shadow rounding,” Supplemental Fig 6) or by seeing early discharges independently.

All but 1 of the domains of the RAS improved during our study. SR perception of faculty feedback improved, despite having no targeted intervention. We hypothesize that because SRs were encouraged to be primarily responsible for team education, family communication, and patient care decisions, attending physicians were better able to provide quality feedback on how SRs performed in these areas. Many SRs particularly noted that expectation-setting at the onset of their service week improved their perception of autonomy; they reported feeling more confident in their decisions and in their ability to voice opinions after expectation-setting.

SRs described their autonomy on PHM as higher than on other pediatric inpatient services at baseline. Previous literature supports the idea that hospitalists typically provide more autonomy than subspecialists.25  We theorize the Autonomy Toolbox may further increase SR perception of autonomy in areas that would not have as high of a baseline RAS. The adaptability of the tool allows it to be applied in a variety of settings and institutions.

This study is not without limitations. First, this study was performed at large academic children’s hospitals and may not be generalizable to other hospital settings. Additionally, the focus of this work was to increase SR autonomy and may not be as applicable to other learners. Our findings relied on voluntary survey responses and may not reflect the perspectives of all SR, especially given the response rate of 40%, which overrepresented 2 of our sites. Our primary measurement was of SR perception, which is subjective. Although comprised of many participants across institutions and collected across several months, our baseline RAS was formed by 1 data point. Our RAS does not reflect all relevant domains of resident autonomy, but highlighted areas for improvement. Further validation of the RAS and its parent questions is warranted.

Our interventions spanned 2 academic years. “New” SRs were likely granted less autonomy in July, which may have decreased the response to our interventions. Post graduate year (PGY) affected the perception of SR autonomy. On analysis of the RAS by PGY year, PGY-2 SR had a higher baseline RAS than PGY-3 and 4 SR, though both groups had a similar trajectory and endpoint that mirrored the total RAS. Additionally, low patient volumes at the start of the 2019 coronavirus pandemic and high patient volumes because of surges in pediatric viral illnesses during the summer of 2021 may have confounded the response to our interventions.

Although we obtained nurse, patient, and attending survey data about how SR-led rounds affected care, we were unable to collect baseline data for these measures and our survey tools were not validated. Family and nurse response rates were low, therefore these efforts were not continued at every institution throughout the entire study period. Survey questions did not have alternate options to “yes” or “no” regarding family satisfaction; this may have positively skewed our results. However, all families included in our survey participated in PFCR, which may lead to higher family satisfaction.26 

We created a novel and adaptable change package to sustainably increase the perception of SR autonomy. We identified drivers of and barriers to SR autonomy. When implemented together, professional development, expectation-setting, and independent rounding are effective tools to increase the perception of resident autonomy. The Autonomy Toolbox can be adapted to a variety of needs to help SR become more autonomous and better prepare SRs for independent practice. Possible areas of future study include further examination of how increasing SR autonomy impacts patient safety, family communication, and medical education.

We thank Kelsey Porada MA, CCRP for her instrumental help with survey distribution, collection, and organization.

FUNDING: No external funding.

CONFLICT OF INTEREST DISCLOSURES: The authors have indicated they have no conflicts of interest relevant to this article to disclose.

COMPANION PAPER: A companion to this article can be found online at www.hosppeds.org/cgi/doi/10.1542/hpeds.2023-007205.

Dr Allen contributed to the design of the study, participated in data collection, conducted analysis and interpretation of data, and drafted the initial manuscript; Dr Najjar conceptualized and designed the study, participated in data collection, analysis, and interpretation of data, and drafted the initial manuscript; Drs Ostermeier and Washington conceptualized and designed the study and supervised data collection, analysis, and interpretation of data; Mr Macias conceptualized and designed the study and assisted data collection, analysis, and interpretation of data; Mr Hardy contributed to the design of the study, assisted with data collection and led analysis and interpretation of data; Drs Hazle, Lewis, McFarlane, Molloy, Piper, Perry, Sevov, and Titus participated in the design of the study and participated in analysis; Dr Unaka contributed to the design of the study, and conducted analysis and interpretation of the data; Drs Weisgerber and Toth helped to conceptualize and the design of the study and participated in data analysis and participation; Dr Kasick conceptualized and designed the study, and supervised and participated in data collection, analysis, and interpretation of data; and all authors reviewed and revised the manuscript and approved the final manuscript as submitted.

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Supplementary data