Curricula »Guided group work for graduate core courses
Guided group work for graduate core courses
developed by Christopher D. Porter, Taylor Murphy, Humberto Gilmer, and Andrew Heckler
The PER team at The Ohio State University (OSU) developed guided group material for common graduate-level core courses: Classical Mechanics, Statistical Mechanics, Quantum Mechanics, and Electricity and Magnetism. The development process began with classroom observations, both at OSU and at collaborating institutions. We then used a combination of open-ended interviews, and think-aloud interviews with draft material to identify key areas of student difficulty. These materials were implemented in group work sessions for OSU physics graduate students and materials were iterated for 3-6 years (depending on the OSU course). Questions, short keys for students, and full worked solutions for instructors are available.
In some cases, materials take the form of scaffolded, single-topic lessons that might rightly be called a tutorial. This is particularly true of most of the materials in statistical mechanics. In other cases, we have needed to work to accommodate multiple topics presented by a lecturer in a given week, such that "tutorial" is not quite appropriate. We have general implementation notes, but not individual item notes.
The quantum mechanics materials and their effectiveness at increasing students' performance on a conceptual assessment of quantum mechanics were the subject of a peer-reviewed paper here.
All guided group work sessions housed here are intended for graduate-level physics courses.
Students should work in groups of 3-4.
All group work includes instructor solutions, which are not distributed to students. In the case of quantum mechanics, short answer keys are also provided, which can be given to students to check final results without showing the problem-solving process.
The guided group work sessions in classical mechanics were created by Dr. Taylor Murphy, working with Dr. Chris Porter..
The classical mechanics course at OSU blends into statistical mechanics near the end of the 1-semester course. Thus, slightly less than one semester of material exists for classical mechanics.
The format is pdf with all necessary tex files.
-
Download the Grad_CM_Group_Work:
Guided group work session in graduate classical mechanics
The guided group work sessions in electricity and magnetism were created by Dr. Humberto Gilmer, working with Dr. Chris Porter..
The graduate E&M course at OSU is a two-semester sequence. Two semesters of material are included.
The format is pdf with all necessary tex files.
-
Download the Grad_EM_Group_Work_Sem_1:
Guided group work for the first semester of graduate E&M courses.
-
Download the Grad_EM_Group_Work_Sem_2:
Guided group work for the second semester of graduate E&M courses.
The guided group work sessions in quantum mechanics were created by Dr. Chris Porter.
The quantum mechanics course at OSU is a two-semester sequence. Two semesters of material are included.
The format is word documents, and also pdf.
-
Download the Grad_QM_Group_Work_Sem_1:
Guided group work for the first semester of graduate quantum mechanics courses.
-
Download the Grad_QM_Group_Work_Sem_2:
Guided group work for the second semester of graduate quantum mechanics courses.
The guided group work sessions in statistical mechanics were created by Dr. Taylor Murphy, working with Dr. Chris Porter.
Statistical mechanics is introduced near the end of a first-semester classical mechanics course, at OSU. There are thus a few group work sessions from that first semester, in addition to the second semester, which is entirely devoted to statistical mechanics.
The format is pdf, with all necessary tex files.
-
Download the Grad_SM_Group_Work_Intro_half-sem:
Guided group work used at the end of a graduate classical mechanics course, as it blended into statistical mechanics.
These materials arose as part of OSU's APS Bridge Program with support from the departmental teaching funds. Early work was partially supported by OSU's Center for Emergent Materials, an NSF MRSEC (award number DMR-2011876). The bulk of this development was supported by the NSF Innovations in Graduate Education NRT award (award number 1735027).