Chemistry Professor Tyler Meldrum teaches Chemistry 341, Physical Chemistry for Life Sciences, one of the last courses that students pursuing a chemistry or biochemistry minor will take. Students learn how principles in physical chemistry can be developed for and applied to examples from the biological sciences. Instead of a final exam, students create an infographic explaining a biophysical technique to synthesize what they have learned, both in the class and through their chemistry education overall.
In this course, students learn apply the principles of physical chemistry directly to biological systems. The course covers topics like thermodynamics, nucleic acids and proteins, and spectroscopy. With approximately 15 to 20 students, the course acts as a capstone for their chemistry education with lots of discussion, literature, and teaching of technique. Although primarily taught as a lecture, students are encouraged to participate, especially when discussing assigned articles in biophysical literature. Similar to a typical chemistry course, Physical Chemistry for Life Sciences includes two midterms and regular homework; different than most chemistry courses, in place of a final exam, students create an infographic related to a technique, topic, or process that relates in some way to the course material.
After completing this course and its assignments, students should be able to:
The infographic final project was worth 20 percent of the total course grade, with an additional five percent for feedback to other students. A homework assignment due several weeks before the infographic draft’s due date encouraged students to think about what makes a good infographic and to find possible issues with the rubric created by the class.
Homework 5
Final infographic project (25%)
Below are resources developed by Dr. Meldrum for his course. If these are useful to you, he would be glad to hear how you’re using them or incorporating them into your own teaching.
Professor Meldrum's areas of specialization include Physical chemistry, NMR methodologies, portable instrumentation and cultural heritage. His research focuses on understanding material properties and chemical processes in cultural heritage applications such as curing of paint, effects of coatings on porous materials, conservation treatments as well as non-destructive profiling of objects of cultural heritage for characterization and preservation.
Copyright 2019 W&M eLearning | Creative Commons Share & Share Alike, No Commercial Use