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An interdisciplinary course in the basic sciences for senior medical and PhD students.

A Rudich1, N Bashan

  • 1The S. Daniel Abraham Center for Health and Nutrition and the Department of Clinical Biochemistry, Faculty of Health Sciences, Ben-Gurion University of the Negev, Beer-Sheva, Israel. rudich@bgumail.bgu.ac.il

Academic Medicine : Journal of the Association of American Medical Colleges
|October 13, 2001
PubMed
Summary

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This study explored an interdisciplinary course for senior medical students that connected clinical and basic science topics. The course involved students investigating clinical subjects in depth, guided by teams of clinicians and basic scientists. Teaching methods included group learning and critical readings of research papers. Graduate students also participated in some programs. Evaluations showed that the course met its goals to a moderate or good extent. The authors suggest this model could be useful in other educational settings.

Area of Science:

  • Medical education curriculum design
  • Interdisciplinary science instruction
  • Clinical-basic science integration

Background:

Medical education has increasingly emphasized blending clinical and basic science content to improve student understanding. Early clinical exposure has proven effective in preclinical years, but maintaining this integration during clinical rotations remains challenging. Prior research has shown that students benefit from structured interdisciplinary learning, yet gaps persist in how to implement such models during later training. No prior work had resolved how to sustain interdisciplinary teaching in senior medical years. This gap motivated the authors to explore a new approach. The study addresses the need for structured interdisciplinary learning in clinical years. The authors aim to bridge the divide between clinical and basic science education. Their approach focuses on sixth-year students, who are transitioning into clinical practice. The study evaluates whether this model can meet educational goals effectively.

Purpose Of The Study:

The study aimed to assess an interdisciplinary course designed to connect clinical and basic science knowledge for senior medical students. The authors sought to determine if such a course could meet educational objectives during clinical years. They wanted to evaluate student achievement in a structured interdisciplinary setting. The course required students to investigate clinical topics in depth. The authors also aimed to test the effectiveness of interdisciplinary team coordination. They included graduate students to explore collaborative learning benefits. The study focused on whether this model could be implemented successfully. The goal was to provide a framework for integrating clinical and basic science education.

Keywords:
interdisciplinary medical educationclinical-basic science integrationmedical curriculum designstudent learning outcomes

Frequently Asked Questions

The course achieved moderate to good progress in connecting clinical and basic science knowledge for sixth-year medical students.

Programs were coordinated by clinician-basic scientist teams, emphasizing tutored group learning and critical readings of original papers.

Graduate students participated in two of the programs, contributing to collaborative learning and interdisciplinary discussions.

Evaluation included debriefing discussions and short written assessments to measure achievement of course objectives.

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Main Methods:

The course involved sixth-year medical students selecting one of three to four one-week programs. Each program required an in-depth investigation of a clinical topic. Program coordinators worked in clinician-basic scientist teams. Teaching methods emphasized tutored individual and group learning. Students engaged in critical readings of original research papers. Graduate students were encouraged to participate in two of the programs. From 1998 to 2000, nine programs were conducted, seven led by interdisciplinary teams. Evaluation included debriefing discussions and short written assessments.

Main Results:

Nine programs were conducted between 1998 and 2000, with seven led by interdisciplinary teams. Students engaged in critical readings and group learning activities. Graduate students participated in two of the programs. Evaluation methods included debriefing discussions and written assessments. Results showed moderate to good achievement of course objectives. Students demonstrated improved understanding of clinical-basic science connections. The interdisciplinary approach was effective in most programs. The authors reported positive feedback from participants.

Conclusions:

The interdisciplinary course successfully demonstrated the connection between clinical and basic science topics. Students achieved moderate to good progress toward course goals. The use of interdisciplinary teams and critical readings proved effective. Graduate student participation added value to the learning experience. The authors suggest this model could be replicated in other settings. The study supports the feasibility of integrating clinical and basic science education. The findings indicate that structured interdisciplinary learning is beneficial. The authors recommend further evaluation of long-term outcomes.

Nine programs were conducted, with seven led by interdisciplinary teams.

The authors proposed that the model could be replicated in other settings and supports structured interdisciplinary learning.