Teaching and learning moments: understanding our experiences in the gross lab

How the Integration of Pathology in the Gross Anatomy Laboratory Affects Medical Students

PROBLEM

The main objective of this project was to integrate pathologists into the gross anatomy laboratory setting to increase the exposure that early medical students receive to pathologists as clinicians.

INTERVENTION

Pathologists visited the gross anatomy laboratory 3 times throughout the 15-week course to assist medical students in determining the cause of death of the cadaver being dissected.

CONTEXT

This intervention was implemented with 1st-semester medical students for 2 consecutive years (a total of 100 dissection teams consisting of 4 students in each team).

OUTCOME

A quantitative content analysis was performed on the students' end of the course assignments to determine whether the students learned a greater percentage of pathologic information by having interactions with pathologists in the gross lab and to identify trends in the way medical students diagnosed their "first patient" (i.e., the cadaver). The students who had interactions with pathologists in the laboratory had significantly more pathology in their narrative than the students who did not receive pathologist interaction. They were also more likely to conclude that the cadaver they dissected actually died from a cause other than the one listed on the death certificate (18.3%; n = 15) compared to the students who had no pathologist interaction (1.8%; n = 2). A postintervention survey indicated that 65% of students felt that interaction with pathologists helped them understand the clinical application of gross anatomy, more than 40% become more interested in pathology, and 74% would have liked to have had more pathologist interaction.

LESSONS LEARNED

This intervention demonstrated a way to increase pathologist interaction within the undergraduate medical curriculum and enhance the educational environment of the gross anatomy laboratory.

The integration of brain dissection within the medical neuroscience laboratory enhances learning

The purpose of this study was to design a one-hour brain dissection protocol for a medical neuroscience course and evaluate the short and long-term effects of its implementation on medical students. First-year medical students (n = 166) participated in a brain dissection activity that included dissection of the basal nuclei and associated deep brain structures. Short-term retention was assessed by administering identical pre- and post-activity tests involving identification of brain structures. Following the brain dissection, the students' posttest scores were significantly higher (68.8% ± 17.8%; mean percent score ± SD) than their pretest scores (35.8% ± 20.0%) (P ≤ 0.0001). Long-term retention was evaluated by conducting an identical assessment five months after completion of the course. Students who participated in the dissection activity (n = 80) had significantly higher scores (46.6% ± 23.8%) than the students who did not participate in the dissection activity (n = 85) (38.1% ± 23.9%) (P ≤ 0.05). In addition to the long-term retention assessment, the NBME^® Subject Examination scores of students who participated in the dissection activity were significantly higher than the students who did not participate in the dissection activity (P ≤ 0.01). Results suggest that this succinct brain dissection activity may be a practical addition to an undergraduate medical neuroscience course for increasing the effectiveness of neuroanatomy training. This effect may have long-term benefits on knowledge retention and may be correlated with higher performance levels on standardized subject examinations. Anat Sci Educ 9: 565-574. © 2016 American Association of Anatomists.

Cadaver treasure hunt: introducing geriatrics concepts in the anatomy class

The objective of this study was to develop an educational program introducing geriatrics to medical students during anatomy. Observational study of an educational intervention in medical school was the design utilized. First-year medical students in an anatomy laboratory were participants. The program consists of a lecture and a workshop. First, a geriatrics lecture early in the course presents demographic data on the cadavers, followed by comparison with national data on leading causes of death. Second, there is a "treasure hunt" in the anatomy laboratory conducted by geriatricians. Each geriatrician spends 45 minutes with one-four-student cadaver group at a time, reviewing anatomical findings and facilitating a discussion of clinical correlations and implications. A list of common anatomical findings, aging- and disease-related, is distributed to the students as an aid in identifying findings of interest. Students have been surprised to learn that the mean age of the 24 cadavers exceeded 80 years (mean 81, median 85 for 2 years), and that causes of death mirrored national data. The students begin understanding aging and appreciate the valuable resource of cadavers. The students acquire a new holistic perspective regarding their cadavers that is not apparent during the dissections. Students and faculty find the experience valuable in understanding the interplay of disease and aging. Evaluations have been mostly positive (82-87% positive responses). The anatomy lecture and "treasure hunt" experience are unique strategies for using cadavers to introduce geriatrics principles into the medical school.

Keeping dissection alive for medical students

Traditional dissection teaching is being reduced in a number of medical schools, particularly in the United Kingdom. In response to this, 12 medical students from Warwick University, UK, traveled to the Island of Grenada for an intensive extracurricular dissection course at St. George's University. This course not only benefited the host university through the creation of prosections for teaching but also allowed the participants to completely immerse themselves in anatomical study, by developing their dissection skills and consolidating anatomical knowledge. We believe that similar courses could be easily implemented by other medical schools, thereby allowing future students to keep traditional dissection alive.