Honors Thesis in Physics
The capstone of the physics program, in which students learn how physics research is actually done by following a complete model project, the eddy-current braking of a magnet falling through copper and aluminum pipes, from first question to oral defense: how an honors thesis differs from coursework, the experimental, computational and theoretical kinds of project and the research cycle with its inner loops; choosing a project and a supervisor, sizing a question with floor, target and stretch goals, weighted decision matrices and writing a proposal; reading physics through textbooks, reviews, pedagogical articles and arXiv preprints with a three-pass method and critical checks; systematic literature searches with INSPIRE, ADS and SciX and citation databases, synthesis by theme and accurate citation with BibTeX; turning questions into hypotheses with quantitative predictions, designing measurements and controls, planning backward from deadlines with a critical path and managing risk; building and calibrating apparatus, finding a systematic error from residual patterns, four-point conductivity measurements and the laboratory notebook; deriving the drag from Faraday's law, the point-dipole result and a finite-magnet model built from current loops and elliptic integrals, with verification against exact cases and reproducible code; uncertainty budgets, Monte Carlo propagation, shared and independent errors and chi-squared tests of three models; research integrity, authorship, data management and Canadian and US open-science policies; writing the thesis, figures and LaTeX; talks, posters and the oral defense; and a capstone that completes the project with an independent cold-pipe test, with runnable Python examples throughout.
PHYS-499 Year 4 3 credits 12 lessons · 4 h 48 min ▶ Video lessons coming soon
Offered by HSM University · Physics
This is the American version of this course. See the Canadian version.
What you'll learn
- Explain how an honors thesis differs from coursework, describe the research cycle and its inner loops, and use an order-of-magnitude estimate to identify the quantities a project must measure.
- Choose and size a project with floor, target and stretch goals, compare options with a weighted decision matrix and sensitivity check, work effectively with a supervisor, and write a research proposal.
- Find and read physics literature efficiently using textbooks, reviews, pedagogical articles and arXiv preprints, applying a three-pass reading method and critical checks of units, limits, uncertainties and fitted versus predicted curves.
- Search the literature systematically with INSPIRE, ADS and SciX and general citation databases, synthesize it by theme to identify a research gap, and cite every source accurately with BibTeX.
- Turn a research question into hypotheses with quantitative predictions, design measurements and controls, schedule work backward from deadlines with a critical path, and manage risks with a register.
- Design and calibrate apparatus against independent references, detect and correct systematic errors from residual patterns, use four-point and other precision methods, and keep a laboratory notebook to research standards.
- Derive the eddy-current drag on a magnet in a conducting pipe from Faraday's law, verify numerical models against exact special cases, limits and convergence tests, and distinguish verification from validation.
- Build an uncertainty budget with logarithmic sensitivities and Monte Carlo propagation, separate shared from independent errors, and test models against data with shape and scale tests using chi-squared.
- Apply the principles of research integrity, including avoiding fabrication, falsification, plagiarism and questionable practices, fair authorship and acknowledgment, responsible use of tools, and data management under Canadian and US policies.
- Write a physics thesis with a clear structure, a quantitative abstract, figures that carry the argument and consistent scientific style, using LaTeX, BibTeX and a reproducible workflow, and plan the writing to finish on time.
- Plan and deliver a short research talk and a poster with one main message, and prepare for an oral defense by anticipating questions on physics, methods, choices and limitations.
- Carry a complete project from question to defense, including an independent test of the main result, and evaluate what made a research project succeed.
Course content
12 lessons · 4 h 48 min total · final exam
- 1 What an honors thesis in physics is: from coursework to research 25 min · quiz
- 2 Choosing a project and a supervisor 21 min · quiz
- 3 Reading physics: papers, the arXiv and review articles 21 min · quiz
- 4 The literature review: searching, synthesizing and citing 21 min · quiz
- 5 Planning research: questions, hypotheses, timelines and risk 21 min · quiz
- 6 Experimental research: apparatus, calibration and the lab notebook 25 min · quiz
- 7 Computational research: models, validation and reproducible code 29 min · quiz
- 8 Data analysis: fitting, uncertainty and comparing with theory 31 min · quiz
- 9 Research ethics, integrity and collaboration 23 min · quiz
- 10 Writing the thesis: structure, figures and scientific style 22 min · quiz
- 11 Presenting physics: talks, posters and the oral defense 21 min · quiz
- 12 Capstone: a model honors thesis from question to defense 28 min · quiz
- E Final exam 20 questions
Requirements
Recommended background. You can start any course at any time.
Description
The capstone of the physics program, in which students learn how physics research is actually done by following a complete model project, the eddy-current braking of a magnet falling through copper and aluminum pipes, from first question to oral defense: how an honors thesis differs from coursework, the experimental, computational and theoretical kinds of project and the research cycle with its inner loops; choosing a project and a supervisor, sizing a question with floor, target and stretch goals, weighted decision matrices and writing a proposal; reading physics through textbooks, reviews, pedagogical articles and arXiv preprints with a three-pass method and critical checks; systematic literature searches with INSPIRE, ADS and SciX and citation databases, synthesis by theme and accurate citation with BibTeX; turning questions into hypotheses with quantitative predictions, designing measurements and controls, planning backward from deadlines with a critical path and managing risk; building and calibrating apparatus, finding a systematic error from residual patterns, four-point conductivity measurements and the laboratory notebook; deriving the drag from Faraday's law, the point-dipole result and a finite-magnet model built from current loops and elliptic integrals, with verification against exact cases and reproducible code; uncertainty budgets, Monte Carlo propagation, shared and independent errors and chi-squared tests of three models; research integrity, authorship, data management and Canadian and US open-science policies; writing the thesis, figures and LaTeX; talks, posters and the oral defense; and a capstone that completes the project with an independent cold-pipe test, with runnable Python examples throughout.
Part of the Science stream, typically taken in year 4.