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A 5-day intensive curriculum for interns utilizing simulation and active-learning techniques: addressing domains important across internal medicine practice
BMC Research Notes volume 11, Article number: 916 (2018)
Simulation-based learning strategies have demonstrated improved procedural competency, teamwork skills, and acute patient management skills in learners. “Boot camp” curricula have shown immediate and delayed performance in surgical and medical residents. We created a 5-day intensive, simulation and active learning-based curriculum for internal medicine interns to address perceived gaps in cognitive, affective and psychomotor domains. Intern confidence and self-perceived competence was assessed via survey before and after the curriculum, along with qualitative data.
A total of 33 interns completed the curriculum in 2014, 32 in 2015. Interns had a significant increase in confidence and self-perceived competence in procedural, cognitive and affective domains (all p values < .05).
Residency programs rely heavily on experiential learning for training, which may result in variable experiences between trainees and limited exposure to certain skillsets, leading to practice variation and gaps in knowledge . The “boot camp” method of intensive, active learning in high density ‘blocks’ has been used with success in procedural specialties, in addition to a 3-day curriculum in internal medicine [2, 3]. We developed a 5-day bootcamp-style intern curriculum using active learning techniques with the aims of standardizing and improving performance in cognitive, affective and psychomotor domains. We hypothesized this intervention would be feasible and improve intern confidence and self-perceived competence in areas of clinical knowledge and diagnostic reasoning, as well as procedural, ultrasound, communication, and electronic health record skills.
The intervention commenced in September of 2014 and has continued annually since. Oregon Health & Science University Internal Medicine Residency Program is a 98-resident program with 32–33 interns/year in a tertiary referral academic medicine center. We are reporting learner self-evaluation results for the 2014 and 2015 cohorts.
The intervention consisted of a sequential 5-day intern curriculum held at the OHSU Simulation Center; 2 days progressing through the curriculum as one cohort, and 3 days rotating through six half-day stations in groups of 5–6. September was selected to allow several months of clinical experiences and context, however early enough to impact the remainder of intern year. All ‘Intensive Week’ clinical obligations were covered by upper level residents, allowing full intern participation for the 5 consecutive days of the curriculum. The program’s existing “3 + 1” (1 week of ambulatory care following every 3 weeks of inpatient clinical duties) rotation blocking minimized inpatient coverage needs, however several residents were pulled from elective blocks to cover the inpatient services [4, 5].
Curriculum domains and content were identified from informal focus groups of interns, senior, graduating, and chief residents, faculty, and program leadership. From the identified curricular needs content was developed focusing on (1) improved comfort and skills when managing urgent calls such as unstable atrial fibrillation; (2) increased communication skills during difficult conversations; (3) enhanced electronic health record (EHR) navigation and manipulation proficiency; (4) standardized procedural training for commonly performed procedures; and (5) expanded point of care ultrasound instruction for clinical assessment and procedural skills.
The primary outcomes of this study were Kirkpatrick level 1 outcomes  of self-perceived confidence and competence via surveys. Interns completed pre- and post-intervention surveys of baseline characteristics, prior simulation exposure, and confidence/self-perceived competence in key areas (5-point Likert scale with 5 representing the positive anchor, see Additional file 3 for anchor verbiage). Qualitative feedback was also collected.
A paired sample t-test was used to ensure similar 2014 and 2015 class characteristics. Pre/post curriculum comparisons of pooled 2014 and 2015 results were made using student paired t-tests. Cohort data are shown as mean Likert score ± standard deviation, with associated p values. A Chi square test was used to compare pre and post replies of “average” or above. A p value < .05 was considered statistically significant for all analyses. Data were analysed using the IBM SPSS statistical package version 24 (IBM Corporation, Armonk New York, USA).
This study was approved by the Oregon Health & Science University Institutional Review Board (IRB). All participants were provided a consent information sheet, and informed consent was implied by proceeding to the survey. This was approved in lieu of written or verbal consent by the IRB.
Intern participation in the intervention and completion of the pre-intervention survey was 100% for both 2014 and 2015 intern classes (N = 33 for 2014 and N = 32 for 2015). Post-intervention survey completion rates were 96% overall with 100% for 2014 and 91% in 2015. Over 85% of interns endorsed some simulation exposure in medical school. Baseline characteristics were similar with the exception of the 2014 cohort having significantly more women, and less undergraduate experience with standardized patients to teach clinical skills (see Additional file 4). Because of similarities in class size, participation, and overall demographics we pooled analysis for the 2 years (see Additional file 5).
Approximately 14 faculty were involved to varying degrees each year, with a total of 96 faculty hours required for days 1–2 and 216 faculty hours for days 3–5.
For procedurally-related activities participants significantly improved confidence and self-perceived competence across all procedures (Table 1). Specifically, the fraction of interns who had at least “average” self-perceived confidence across the procedures increased from 32.3 to 85.7% (p < .001). Similar results were observed with self-perceived competence (30.6 vs 81.3%; p < .001).
In a similar fashion, we demonstrated an increase in confidence and self-perceived competence across the cognitive and affective domains as well (Table 2); the percentage of interns who had at least “average” self-perceived confidence increased from 77.3 to 89.7% (p < .001). Parallel results were observed with self-perceived competence (77.2 vs 90.8%; p < .001). Figure 1 illustrates the percentages of learners with self-assessments of average or better, broken out by specific skill.
Final evaluation feedback was positive: 97% of interns in the included classes felt the curriculum was a good use of their time, 94% felt it should be continued (.02% no, .046% unsure), and 89% felt it should be expanded across the second and third years of residency (11% unsure, 0% no). Team building and developing camaraderie with colleagues were unforeseen benefits described by interns when debriefing the experience with the residency Program Director.
In our study, we demonstrated that an annual, week-long, “boot-camp” type curriculum, incorporating active learning techniques such as simulation, is feasible to create and reproduce. This curriculum, employing high-fidelity case-based simulations, procedural simulation with task trainers, communication simulations with standardized patients, and electronic health record (EHR) simulated exercises demonstrated improved intern confidence, and self-perceived competence in performing tasks in cognitive, affective and psychomotor domains.
This curriculum is unique in several ways. Instead of a true “boot-camp” occurring prior to internship, such as the 3-day Northwestern University simulation-based mastery learning curriculum for internal medicine interns , our curriculum occurs several months into the year allowing time to gain clinical context within our health care system.
In addition, the central focus of the Northwestern curriculum was on the summative assessment of learning. In contrast many simulation-based activities revolve around formative assessment which has been described as an assessment for learning rather than of, and is intended to shape skills and knowledge through feedback, highlighting, and closing performance gaps . Other than ours, there are to date no published internal medicine intensive simulation programs which focus solely on formative feedback and skill development. Finally, the 5-day timeframe allowed us to include an increased scope of skills and materials versus the majority of published graduate medical education which focus on surgical and procedural skills instead of communication or collaborative skills , even the more comprehensive Northwestern Internal Medicine curriculum. We included ultrasound, EHR, and clinical skills training relevant to care ranging from outpatient to acute care settings. We feel this is crucial given the wide breadth of knowledge and skills required in internal medicine practice.
Of note, we were able to demonstrate improvements in intern confidence and self-perceived competence despite the intervention occurring later in the year than other documented “bootcamps”. Even starting in September, almost 3-months into the year, we were able to increase the overall number of learners meeting a threshold of at least average confidence and self-perceived competence. This would suggest that similar curricula might benefit trainees throughout the year, and could allow for increasing complexity in topic, technical skills, and concepts.
One consideration to reproducing these findings is the amount of resources required. While we use our Simulation Center, many activities could be run in situ or in classrooms. The most cost-limiting resource may be the faculty, if faculty are not volunteering their time. The current strategy necessitates a minimum of six faculty members over 5 days. This required approximately 14 faculty per year, for a total of 312 h. There is also a significant time commitment in training faculty to participate; which decreases with return faculty. In addition to protected time for interns, the faculty time requires a substantial departmental commitment.
Further analysis is needed to assess the impact of such curricula with escalating complexity and difficulty in more senior residents or faculty. In addition, future studies could determine if the effects on confidence and self-perceived competence are sustained, or if self-perceived competence correlates with demonstrable competence or clinical outcomes.
There was no randomization or control group; interns served as their own historical controls.
Intern confidence and perceived competence were assessed, however there were no formal competency assessments.
While we improved self-perceived competency during this activity, we did not assess objective clinical outcomes.
arterial blood gas
central venous catheter
electronic health record
Institutional Review Board
Oregon Health & Science University
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RKD, JAG, AJH and SSD contributed to overall curriculum and research design. MHR, JCC, KAL and AMM contributed to curriculum and research design for specific portions of the curriculum. RKD performed the data analysis with guidance from JAG, and also was the primary writer for the manuscript. All authors provided edits. All authors read and approved the final manuscript.
Craig Tanner, MD, Leah Wilson, MD and Ryan Clay, MD all contributed to the development and implementation of this curriculum.
The authors declare that they have no competing interests.
Availability of data and materials
The datasets supporting the conclusions of this article are not publicly available due to IRB protocol noting that only co-investigators may receive de-identified data. However de-identified data may be available from the corresponding author on reasonable request, if release is approved via protocol amendment to OHSU IRB.
Consent for publication
Ethics approval and consent to participate
This study was approved by the Oregon Health & Science University Institutional Review Board (IRB), which is the local form of an ethics committee. An IRB approved and stamped consent information sheet was given to each participant, with the final line noting “By proceeding with unique identification selection and the survey, you are attesting that you have read this information.” The IRB approved this implied consent process in place of a written or verbal consent, due to the low risk nature of the study.
This research was in part funded by AHRQ R18HS021367 and the AAMC/Donaghue foundation, specifically the Electronic Health Record navigation and manipulation exercises within the simulated EHR environment.
Springer Nature remains neutral with regard to jurisdictional claims in published maps and institutional affiliations.
“Example Schedule”. Sessions in light grey were conducted in a large group with small group breakouts, and those in dark grey were conducted in rotating small groups.
“Curricular content for each session”. This provides more in-depth descriptions of each session.
“Likert values from surveys” which lists the Likert anchor verbiage.
“Demographics & Baseline Experience of Intensive Week Interns Separated by Year”. This includes standard demographics plus United States Medical Licensing Examination (USMLE) scores and previous experiences.
“Demographics & Baseline Experience of Intensive Week Interns, 2014 + 2015 cohorts”. This includes standard demographics plus United States Medical Licensing Examination (USMLE) scores and previous experiences.
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Dversdal, R.K., Gold, J.A., Richards, M.H. et al. A 5-day intensive curriculum for interns utilizing simulation and active-learning techniques: addressing domains important across internal medicine practice. BMC Res Notes 11, 916 (2018). https://0-doi-org.brum.beds.ac.uk/10.1186/s13104-018-4011-4
- Internal medicine
- Residency education