Abstract
Abstract
Background:
While palliative care (PC) competencies for medical school graduates have been defined, the lack of established curriculum models and assessment tools hampers curricular evaluation.
Objective:
To describe the scope and content of the University of Rochester's longitudinal, integrated four-year PC curriculum after 17 years of implementation, review student evaluative responses, and compare the curriculum to national competency standards.
Design and Setting:
Combining and reorganizing a published PC curriculum assessment tool and a list of medical school PC competencies, we created a novel nine-topic framework to assess the content coverage of our curriculum. We queried our electronic medical school curriculum database and surveyed course and clerkship directors, as well as PC, pain, ethics, and humanities faculty, to locate where and when PC topics are taught and to collate student responses to these experiences.
Results:
We present a comprehensive list of PC curricular activities over a four-year medical school experience. The curriculum covers all nine PC topics longitudinally in multiple formats. Five in-depth activities cover multiple PC topics in a format that integrates biological, psychological, and social dimensions; these activities have survived and evolved over 17 years in our setting. A majority of year 3 University of Rochester students feel “well” or “extremely well” trained in PC.
Conclusions:
Our four-year PC curriculum provides robust and developmentally appropriate training that addresses all nine evidence-based core topics for PC education. Medical student feedback and their Association of American Medical Colleges (AAMC) survey responses suggest that they find their PC learning experiences rewarding. This curriculum could serve as a model for other schools.
Introduction
P
Because PC intersects with many dimensions of healthcare, it is probably best taught longitudinally, with a variety of experiences woven throughout the curriculum.4–6 A developmental curriculum would have year 1–2 medical students learn basic pain management, followed by more complex discussions of treatment goals in years 3–4.7–9 However, most year 3 students never observe an advance directive discussion and rarely conduct one themselves. 10 Longitudinal PC learning experiences for students are difficult to design, implement, and evaluate because they need to be integrated into an array of courses that have diverse educational objectives and are run by multiple educators.
The University of Rochester School of Medicine and Dentistry (UR) has a long history of teaching the “biopsychosocial model” of patient care. 11 The Double Helix Curriculum, initiated in the late 1990s, weaves fundamental patient care skills through years 1–2 of medical school and extends basic science into years 3–4. As part of this curricular reform, a longitudinal, integrated, biopsychosocial PC curriculum, developed under the leadership of one author (T.Q.), incorporated PC topics and experiences throughout the students' four-year experience. In 2003, Quill et al. 12 reported that this PC curriculum combined lecture, case and ethics conferences, problem-based learning cases with PC components, a home-visit experience, and a formative comprehensive assessment (CA) with standardized patient encounters, including an EOL decision-making case.
This PC curriculum was not formally evaluated in its first years, and methods for assessment of PC education have advanced in the intervening period. In 2000, Meekin et al. 13 developed the palliative education assessment tool (PEAT) based on existing literature. The PEAT has been used for an analysis of PC content in international undergraduate medical curricula, 14 but its seven domains are very broad and underrepresent some essential topics, while its 83 objectives are cumbersome. In 2014, Schaefer et al. surveyed 70 national PC experts, who identified 18 PC competencies for medical students, based on the competencies previously developed for hospice and palliative medicine fellowships. 3 These experts evaluated competencies for importance and relevance and identified seven that they deemed “essential for all” students. 3 Schaefer's seven essential competencies, although more manageable than the 83 objectives of the PEAT, did not align well with the seven PEAT domains.
In this study, we aimed to describe the scope and content of the UR PC curriculum after 17 years of implementation and assess student responses to it. The authors created a novel nine-topic framework for curriculum content that combines and reorganizes the PEAT domains/objectives and the Schaefer competencies. We systematically reexamined our longitudinal curriculum and used the framework to map its content to the nine-topic framework.3,13,15 We identified five in-depth PC learning activities that are valued by most students and assessed student responses to the overall curriculum. This integrated, longitudinal curricular model may be useful to other medical schools interested in enhancing PC education.
Methods
Analysis of the UR curriculum in PC
In 2016, we used electronic searches and a faculty survey to tabulate all PC curricular activities. We queried the four-year curriculum database to identify student experiences with a central PC theme, using the search terms PC, hospice, pain management, EOL, and advance directives. We surveyed course and clerkship directors and PC, pain, ethics, and humanities faculty through e-mail to identify additional experiences with a PC subcomponent, looking for teaching of general principles of PC, EOL, pain and nonpain symptom management, advance directives, and the emotional impact of caring for patients with severe illness. Respondents were asked whether and how they covered these topics, and if they felt any were covered inadequately. Collating the data, we created a comprehensive table of PC curricular activities, including five in-depth activities. For the latter, course directors were asked for student responses, which were available in various formats from an online evaluation system.
Development of competency tool and curriculum mapping
To analyze our curriculum content in relation to national competency standards, we initially compared and evaluated the full set of 18 PC competencies for medical students of Schaefer et al. 3 and the seven domains and 83 objectives in the PEAT. 13 All authors independently and then jointly reviewed the two tools and identified overlaps and omissions. We combined and reorganized items from both tools to create a framework of nine distinct but partially overlapping PC curricular topics for use in our curriculum content analysis (Table 1). Two authors (E.M.D.-K., T.Q.) then mapped all PC curricular activities to these nine topics (Table 2), reaching consensus by discussion.
Physician emotional experience and self-care were not found in any of the domains, but was found in subgroup B under “Professional self-reflection,” which was found under the ethics and the law domain.
EOL, end of life; PC, palliative care.
Electives marked in bold, all other activities are required.
Integration conference: An educational conference designed to integrate basic science, clinical care, and psychosocial aspects of medicine, usually with a patient or a case presented.
Conf, conference; PBL, problem based learning activity; Comp, component; Hum, humanities; CA, comprehensive assessment; Elec, elective; Clin, clinical; ALS, amyotrophic lateral sclerosis; DNR, do-not-resuscitate order; NSAIDs, nonsteroidal anti-inflammatory drugs; SP, standardized patient.
Results
The UR longitudinal, integrated four-year curriculum
The curriculum database search yielded 29 PC-focused activities, mostly lectures and workshops. The survey (faculty response rate 30/32 = 94%) identified 17 additional activities, yielding a total of 46 PC curricular activities over four years. Table 2 lists and maps these activities to the nine core PC topics. All nine topics were addressed, often in multiple formats each year, with many topics recurring. The PC clinical elective was the only single activity that covered all nine core topics, but five or more topics were covered by home visits, humanities seminars, case conferences, the years 2 and 3 CAs, and the Successful Interning course (elective workshops for year 4 students).
Several course directors identified opportunities for additions to the PC curriculum: pain management in the medicine clerkships, discussion of goals of care and advance directives in the emergency medicine clerkship, and discussion of advance directives during the Successful Interning course.
Five in-depth PC experiences and student responses to them
The UR longitudinal PC curriculum is robust, although loosely structured, with activities in many settings over four years. Table 3 expands upon five PC learning experiences that span the four-year curriculum and offer deeper learning and broader coverage (≥5 core topics). They are patient-centered, highly interactive, emphasize biopsychosocial evaluation, and are developmentally timed for the student's learning level. The in-depth experiences have been sustained over time, receiving positive student reviews since 1999. Table 3 provides representative samples of student responses in 2016–17. Among the five in-depth activities, the most innovative and intense is the CA, which includes exercises on PC (among other topics) for all UR medical students near the end of years 2 and 3. CAs are multiday formative experiences composed of standardized patient encounters, large and small group demonstrations and discussions, computer exercises, self-evaluations, peer evaluations, and multisource feedback.
The year 2 CA includes a 4-hour PC clinical practicum with a simulated 45-year-old mother just diagnosed with a life-limiting disease. Students assess the patient's understanding of her disease, respond to her emotions, and discuss her uncertain future. They receive immediate feedback from the patient-actor and view self-selected video recorded segments of their encounter with two student peers. Finally, the entire class explores the encounter as a large group.
The year 3 CA includes a 5-day longitudinal encounter with a simulated 73-year-old patient with a new diagnosis of disseminated cancer. Each student meets individually with the patient-actor and family member daily for three PC discussions as follows: preparing for potential “bad news”; sharing the actual bad news, including prognosis; and facilitating a goals-of-care discussion. Each step is followed by an oral presentation; multisource feedback from patient-actors, clinician observers, and peers; and a large group demonstration and discussion. Responses to the CA are shown in Table 3.
Students' overall evaluations of PC training
Evaluation of the overall curriculum is shown in Table 4. First, students self-assessed their preparedness for the years 2 and 3 CA encounters described above. The majority reported feeling well prepared: 54% in year 2 and over ≥70% in year 3. Students' self-appraisals during the year 3 CA are unique in our curriculum in asking students to take a broad and deep look at their PC education over time. In addition, broader curriculum evaluation data are provided by results of the Association of American Medical College's (AAMC). The AAMC is the association of academic medical centers, which manages the admissions processes for medical students and residents as well as administering a graduate questionnaire (GQ) for medical students, providing valuable feedback to medical schools on the effectiveness of their training programs. In 2013, the last year when these questions were included in the survey, the vast majority of UR medical students felt that their instruction in PC was appropriate and not excessive: 94% for pain management and 95% for EOL care (Table 4). These questions are too broad to allow detailed evaluation of the curriculum, but responses suggest that the UR PC curriculum has been valued by its graduates. Regrettably, more recent data are not available from this source.
Responses are from a required postcourse assessment, with questions matched to expectations of the case-based learning activity.
Discussion
We present a novel framework for PC curriculum analysis using nine core topics derived from national, evidence-based PC assessment tools and competencies. With over 46 PC-related experiences in the curriculum, some redundancy is inevitable, but students did not feel training was excessive. We highlight five innovative, in-depth PC activities that have survived curriculum changes over 17 years and are positively evaluated by students. This study has demonstrated that the UR PC curriculum is consistent with national competency standards in scope and content. It appears to satisfy students, and it met AAMC GQ standards with excellent results through 2013. Our diverse PC curricular activities offer a broad model and specific examples for other programs to consider for their own PC curricula.
Students appear to benefit from repeated exposure to the nine core PC topics, with an array of teaching modalities spread over four years. In particular, numerous activities emphasize the importance of physicians' emotional self-awareness and self-care (PC Core topic 6), a domain of learning that prepares physicians for resilience when caring for patients who are suffering or dying. Providing biopsychosocially competent patient care is the dominant theme of our Double Helix Curriculum and its integrated PC experiences, as demonstrated by the emphasis on PC skills in CA cases in years 2 and 3. The PC curriculum also includes a balance of teaching modalities, with more didactic learning in the early years and increasingly complex clinical applications in the later years. Elective experiences in the last two years are designed to enhance students' evolving interests.
The core elements of the UR PC curriculum have remained remarkably intact since 1999; their persistence suggests sustained acceptance by course directors and students. Students' recent comments on and ratings of several PC experiences (Tables 3 and 4) suggest that they remain satisfied with their education in PC. Given the many changes in leaders, faculty, and educational agendas that have influenced our curriculum over 17 years, we believe that the ongoing retention of these PC learning activities indicates sustained perceived value by faculty and students.
Completion of the PC curriculum analysis was challenging, because integrated experiences are difficult to systematize and track. 6 Course directors found it difficult to answer the survey without spending significant time reviewing each activity for PC content, and the administration expressed concern about educator and student evaluation burden. However, the curriculum review process was helpful for both the course directors and the PC faculty: some areas worthy of increased exposure were identified. For example, in the Successful Interning course, practical hands-on experiences with pain management and advance directive conversations were implemented in 2017. This systematic curriculum analysis will likely foster more improvements over time.
A longitudinal integrated curriculum is challenging to evaluate when it crosses four years of educational experiences, with multiple courses and directors. Course-specific evaluation of the PC curriculum by students has been limited, because in individual courses or activities, student evaluations were not focused on PC experiences, and courses used differing formats and rating scales. A notable exception is the CA in years 2 and 3. We aim to strengthen assessments of students' learning and responses to instruction across our other in-depth experiences, using more systematic, competency-based evaluation methods.
To assist other programs in developing PC curricula, the authors share key lessons learned from our curriculum implementation, based on our long collective experience with curriculum development and evaluation.
(1) Introduce PC topics at developmentally appropriate times. Lectures in year 1 that introduce basic PC concepts and patient-centered communication can set the stage for learning about pain pharmacology in the year 2 and discussing an unexpected adverse diagnosis in year 3. We believe that our students' continuing exposure to opportunities for self-reflection when facing difficult clinical situations enhances their emotional insight as they encounter increasingly challenging patients.
(2) Seize opportunities to integrate your curriculum in new ways. Over time, our PC faculty have volunteered to replace lecturers, small group facilitators, and course directors, and these roles have empowered them to introduce new PC learning opportunities. Dr. Quill has remained active in student teaching since the curriculum was launched and has recruited new faculty (E.M.D.-K. and R.H.) who share his deep commitment in education. One co-author (R.H.) was given the opportunity to direct the years 2 and 3 CAs, and he expanded the cases and self-reflection with PC themes. This study (led by E.M.D.-K.) has prompted addition of new elective workshops to the Successful Interning course.
(3) Work to develop new and better evaluation methods. Evaluations of longitudinal curricula are challenging, but are needed to promote and disseminate PC education nationally. When one author (R.H.) became course director for the CA, he revised and created new cases that enable formative evaluation of students' PC learning. In the future, qualitative analysis of students' written comments from the CAs will provide enhanced data on their learning outcomes. Another author (E.M.D.-K.) has been appointed to oversee and evaluate our longitudinal PC curriculum (resulting in this study). Clearly the robust institutional support for sustaining and improving the PC curriculum has been a key to the success of our program.
Limitations
Generalizability of this study may be limited, as it was conducted at one institution with a long-standing focus on the biopsychosocial model, a well-established PC program, and PC clinicians who are involved in multiple aspects of our medical school curriculum. Hence our environment may be more supportive of PC education than other academic settings.
Our survey of course and clerkship directors was productive, but was likely subject to recall bias, or in some cases, reluctance of the respondent to take time for a comprehensive response. So we may have missed some PC-related activities in our analysis.
The absence of an explicit PC evaluation process at our institution is a limiting factor in evaluating our PC curriculum. Despite the value of the CA as a formative assessment tool, our current medical school course evaluations and graduate surveys do not directly address PC education, and additional evaluation burdens on course leaders and students are discouraged. AAMC survey data on student views of their PC training are no longer collected. Recent student ratings of several PC experiences suggest satisfaction, but a more comprehensive approach to curriculum evaluation is needed. In addition to qualitative analysis of students' written comments from the CAs, we will add comments on postgraduate surveys to assess how graduates' PC learning influences future practice. Improving evaluation of our other in-depth PC experiences will also address this shortcoming.
Conclusion
Content analysis shows that the UR four-year PC curriculum provides robust, diverse, and developmentally appropriate training that addresses all nine evidence-based core topics for PC education. Students' feedback from their key PC learning experiences and on their responses on the AAMC survey suggests that they find that their PC education meets their perceived educational needs. Our longitudinal approach to integration of PC content into the curriculum and our innovative in-depth PC experiences could serve as a model for other medical schools, but need a more comprehensive evaluation process in the future.
Footnotes
Acknowledgments
Thank you to David Lambert, Christopher Mooney, Andria Mutrie, and all the course directors of the UR Medical School for help in accessing curricular data for this article.
Author Disclosure Statement
No competing financial interests exist.
