Teaching & Mentoring

From equations to evidence

Across mechanics, laboratory physics, molecular biophysics, and cancer biology, students learn to move between physical models, computation, data, and scientific argument.

Python, simulation, machine learning, and generative AI enter the classroom where they sharpen a question or expose an assumption. The standard remains the same: students must understand the physics, test the output, and communicate what the evidence supports.

  1. 01Model

    Translate a physical or biological question into assumptions, variables, and equations.

  2. 02Compute

    Use Python, numerical methods, simulation, or AI to explore what the model predicts.

  3. 03Test

    Compare results with data, limiting cases, uncertainty, and established scientific knowledge.

  4. 04Communicate

    Explain the method, evidence, limitations, and next question clearly.

Current and regularly taught courses

The courses below reflect active, upcoming, and regularly taught work. Assignments change by term; the undergraduate and graduate Physics bulletins remain the authoritative sources for course descriptions.

FYS 100First-year seminar · Fall 2026

AI and the Physics of Life: AlphaFold and Why Molecular Shape Matters

Students use protein structure prediction as a route into the relationship between molecular shape and biological function. AlphaFold becomes both a scientific tool and a case study in what an AI prediction can—and cannot—explain.

  • AlphaFold
  • molecular structure
  • AI evaluation
PHY 262Undergraduate physics

Mechanics

Students turn equations of motion into computational models, use Python to study systems that resist simple solutions, and visualize how assumptions shape predictions. A generative-AI exercise asks students to reproduce a difficult modeling task, diagnose the output, and explain the physics needed to judge it.

  • Python
  • numerical modeling
  • visualization
  • AI critique
PHY 266Team-taught laboratory

Intermediate Laboratory II

The course connects experiments in mechanics with computer simulation. Its computational work emphasizes Python, data analysis, and machine learning, asking students to move carefully between measured data, models, uncertainty, and scientific presentation.

  • experiments
  • Python
  • data analysis
  • machine learning
PHY 361/661Undergraduate and graduate seminar

Generative AI in Biophysics

Students read, present, and discuss current work in AI, deep learning, molecular biophysics, and drug discovery. Source-grounded research tools support literature exploration, while presentations and reflection keep scientific judgment and responsible research practice at the center.

  • primary literature
  • deep learning
  • drug discovery
  • research reflection

Interdisciplinary and special-topic teaching

CABI 705Team-taught

Cell Biology of Cancer

Connects molecular mechanisms with the evidence used to reason about cancer biology, including structural and computational perspectives.

SCB 710Discussion-group organizer

Research Topics in Structural & Computational Biophysics

Builds interdisciplinary discussion around current research in molecular structure, simulation, experiment, and quantitative interpretation.

MCB 723Team-taught

Topics in Cancer Biology

Uses student presentations, discussion, and review writing to connect cancer mechanisms with emerging methods, including generative AI in drug discovery.

Mentoring from coursework into research

Increasing independence

Students begin by learning a physical system and a computational workflow, then take ownership of the question, validation, interpretation, and communication.

Research-ready habits

Reproducible analysis, careful figures, critical reading, and constructive discussion are treated as scientific practices—not finishing touches.

AI as a tool—and a subject of study

Generative AI is useful when it supports learning rather than bypassing it. Students compare generated answers with equations, data, and primary sources; identify failure modes; and remain responsible for the scientific claims they make.

Read the Wake Forest Center for the Advancement of Teaching profile, “Fred Salsbury: AI as a Tool, Not a Shortcut”.

Current and prospective students

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