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The Evolving Syllabus for the Capstone Project Course at Eastern Michigan University Ernest R. Behringer and James J. Carroll Department of Physics and Astronomy, Eastern Michigan University, Ypsilanti, MI 48197 Introduction The Department of Physics and Astronomy of Eastern Michigan University has offered PHY 420 Capstone Project five times: in Winter 2002 (W02), W04, W06, W08, and W09. This course is intended to give all non-teaching physics majors an opportunity to synthesize what they have learned from previous courses in a capstone project while developing and practicing the following skills: Summary • The PHY 420 Capstone Project is a required course that provides an opportunity for students to work as part of a team to complete a research project. Students develop information literacy, laboratory, computational, and communication skills during the semester. It is now designated a “Writing Intensive” course within the EMU General Education program. • PHY 420 has evolved since its initial offering in Winter 2002 from a course in which each group pursues an independent project to one in which all groups contribute to the same project. Achieving the goals of the course therefore requires more careful selection of projects than before. •Please take a CD with our course materials. We welcome suggestions so that the course can be improved in the future. List of Projects Listed below are all of the projects that have been conducted: Winter 2002: (N = 10) Magnetic braking of a falling magnet Characterization of toy electric motors Characterization of cantilever vibrations Winter 2004: (N = 5) Characterization of a vaccum bazooka Characterization of a Langmuir probe Winter 2006: (N = 11) Designing a cosmic ray shield for a lunar base Winter 2008: (N = 7) Characterization and modeling of a Stirling Engine Winter 2009: (N = 7) Characterization of Quantum Dot Fluorescence Future Improvements • Have all students complete a simpler experimental project during the first month to renew and extend laboratory skills. Such a project would be familiar in concept (e.g., oscillators) but involve a “wrinkle” that they are unlikely to have previously considered (e.g., damping, driving, or non-linear effects). • Use the simpler experimental project as the motivation to implement a substantive computational model in order to introduce or reacquaint students with the computational tool(s) they will use for the main project, thereby extending computational skills in stages. Caution: students expect exact solutions to real-life problems and may not appreciate what can be learned from simplified (“simple”) models. • Beginning in Winter 2010, PHY 420 students will use a Wiki-based electronic lab notebook to document and communicate their activities. • Use a contract to specify minimum standards of effort and conduct, and the consequences of not meeting those minimum standards. Literature Search: Students performed one major literature search for the project, using locally available electronic databases. In the future, students should have more opportunities to develop this important skill. Laboratory Skills: Students work together to design the experiment, acquire necessary equipment and sensors, construct, conduct, and document the experiment, and analyze the data acquired. Theoretical and Computational Skills: Students work together to study existing theoretical models, adapt these models, and then implement the models computationally using VPython. Communication Skills: Approximately 90% of the total course grade depends on oral and written communications, including project notebook entries, oral presentations to non-technical and technical audiences, oral and written weekly reports, and final project report and poster presentation. Week Task, Topic, or Presentation 1 Draft abstract for Symposium; introduction to literature search 2 Project Notebook entries and Weekly Reports 3 Video analysis, data acquisition, and mechanical drawing 4 Introduction to Modeling 5 Project 6 Project 7 Project 8 Project 9 Project 10 Project, Making effective slides 11 Peer editing of slides, Practice Symposium Presentations 12 Am. J. Phys. Format, effective figures, and effective posters 13 Project 14 Peer editing of Project Report 15 Final Project Presentation and Poster Overview of the PHY 420 during Winter 2009 Lessons We Learned…and Continue to Learn • It takes great effort for one instructor to effectively guide distinct projects. To reduce this effort, we now specify the project rather than have students choose different projects. • Students must practice writing technical documents to improve their writing skills within the discipline. Students benefit from peer review and thereby become acculturated to the process of scientific research. • Students need (and want) early and detailed guidance (e.g., rubrics) when making laboratory notebook entries, preparing oral presentations, and writing technical summaries and reports. • Having students make formal presentations in front of different audiences (e.g., scientists versus physicists only) creates a useful motivation for students to adequately prepare these presentations. • Increasing attention must be paid to intragroup dynamics. Experience has shown that there is always a student or two who have ineffective habits and/or attitudes. Peak Emission Wavelength 545 nm Ridge due to sufficient excitation Rapid drop off due to insufficient excitation Overview of the PHY 420 during Winter 2009 (Winter 2002) The semester-long course consists of three main components: Homework : 10% (30%) Assignments include resume writing, literature search, summaries of technical papers, and Fermi estimation. Project : 55% (55%) Includes the Project Notebook (40%) and the Project Report (15%). The Project Notebook is a laboratory notebook that contains entries that document all activities. The necessary elements of a notebook entry are explicitly described and entries are correspondingly evaluated. Communication 35% (15%): Includes oral and written Weekly Reports (10%), an oral presentation at the EMU Undergraduate Symposium to a general audience (10%), and oral (7.5%) and poster (7.5%) presentations to a department audience at the conclusion of the course.

The Evolving Syllabus for the Capstone Project Course at ...the Capstone Project Course at Eastern Michigan University Ernest R. Behringer and James J. Carroll Department of Physics

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Page 1: The Evolving Syllabus for the Capstone Project Course at ...the Capstone Project Course at Eastern Michigan University Ernest R. Behringer and James J. Carroll Department of Physics

The Evolving Syllabus for the Capstone Project Course at Eastern Michigan University

Ernest R. Behringer and James J. CarrollDepartment of Physics and Astronomy, Eastern Michigan University, Ypsilanti, MI 48197

IntroductionThe Department of Physics and Astronomy of Eastern Michigan Universityhas offered PHY 420 Capstone Project five times: in Winter 2002 (W02),W04, W06, W08, and W09. This course is intended to give all non-teachingphysics majors an opportunity to synthesize what they have learned fromprevious courses in a capstone project while developing and practicing thefollowing skills:

Summary• The PHY 420 Capstone Project is a required course that provides anopportunity for students to work as part of a team to complete a researchproject. Students develop information literacy, laboratory, computational,and communication skills during the semester. It is now designated a“Writing Intensive” course within the EMU General Education program.

• PHY 420 has evolved since its initial offering in Winter 2002 from a coursein which each group pursues an independent project to one in which allgroups contribute to the same project. Achieving the goals of the coursetherefore requires more careful selection of projects than before.

•Please take a CD with our course materials. We welcome suggestions sothat the course can be improved in the future.

List of ProjectsListed below are all of the projects that have been conducted:

Winter 2002: (N = 10)Magnetic braking of a falling magnetCharacterization of toy electric motorsCharacterization of cantilever vibrations

Winter 2004: (N = 5)Characterization of a vaccum bazookaCharacterization of a Langmuir probe

Winter 2006: (N = 11)Designing a cosmic ray shield for a lunar base

Winter 2008: (N = 7)Characterization and modeling of a Stirling Engine

Winter 2009: (N = 7)Characterization of Quantum Dot Fluorescence

Future Improvements• Have all students complete a simpler experimental project during the firstmonth to renew and extend laboratory skills. Such a project would be familiarin concept (e.g., oscillators) but involve a “wrinkle” that they are unlikely tohave previously considered (e.g., damping, driving, or non-linear effects).

• Use the simpler experimental project as the motivation to implement asubstantive computational model in order to introduce or reacquaint studentswith the computational tool(s) they will use for the main project, therebyextending computational skills in stages. Caution: students expect exactsolutions to real-life problems and may not appreciate what can be learnedfrom simplified (“simple”) models.

• Beginning in Winter 2010, PHY 420 students will use a Wiki-based electroniclab notebook to document and communicate their activities.

• Use a contract to specify minimum standards of effort and conduct, and theconsequences of not meeting those minimum standards.

•Literature Search:Students performed one major literature search for the project,using locally available electronic databases. In the future, studentsshould have more opportunities to develop this important skill.

• Laboratory Skills:Students work together to design the experiment, acquirenecessary equipment and sensors, construct, conduct, anddocument the experiment, and analyze the data acquired.

• Theoretical and Computational Skills:Students work together to study existing theoretical models, adaptthese models, and then implement the models computationallyusing VPython.

• Communication Skills:Approximately 90% of the total course grade depends on oral andwritten communications, including project notebook entries, oralpresentations to non-technical and technical audiences, oral andwritten weekly reports, and final project report and posterpresentation.

Week Task, Topic, or Presentation1 Draft abstract for Symposium; introduction to literature search2 Project Notebook entries and Weekly Reports3 Video analysis, data acquisition, and mechanical drawing4 Introduction to Modeling5 Project6 Project7 Project8 Project9 Project10 Project, Making effective slides11 Peer editing of slides, Practice Symposium Presentations12 Am. J. Phys. Format, effective figures, and effective posters13 Project14 Peer editing of Project Report15 Final Project Presentation and Poster

Overview of the PHY 420 during Winter 2009 Lessons We Learned…and Continue to Learn• It takes great effort for one instructor to effectively guide distinct projects.To reduce this effort, we now specify the project rather than have studentschoose different projects.

• Students must practice writing technical documents to improve their writingskills within the discipline. Students benefit from peer review and therebybecome acculturated to the process of scientific research.

• Students need (and want) early and detailed guidance (e.g., rubrics) whenmaking laboratory notebook entries, preparing oral presentations, andwriting technical summaries and reports.

• Having students make formal presentations in front of different audiences(e.g., scientists versus physicists only) creates a useful motivation forstudents to adequately prepare these presentations.

• Increasing attention must be paid to intragroup dynamics. Experience hasshown that there is always a student or two who have ineffective habitsand/or attitudes.

Peak Emission Wavelength 545 nm

Ridge due tosufficient excitation

Rapid drop off dueto insufficient excitation

Overview of the PHY 420 during Winter 2009 (Winter 2002)

The semester-long course consists of three maincomponents:

Homework: 10% (30%)Assignments include resume writing, literaturesearch, summaries of technical papers, and Fermiestimation.

Project: 55% (55%)Includes the Project Notebook (40%) and theProject Report (15%). The Project Notebook is alaboratory notebook that contains entries thatdocument all activities. The necessary elements ofa notebook entry are explicitly described and entriesare correspondingly evaluated.

Communication 35% (15%):Includes oral and written Weekly Reports (10%), anoral presentation at the EMU UndergraduateSymposium to a general audience (10%), and oral(7.5%) and poster (7.5%) presentations to adepartment audience at the conclusion of thecourse.