Discussion Section Design#
About This Section
Design guide and session plans for the weekly 50-minute discussion section that accompanies the 10-week introduction to geophysics. Structured to build curiosity, provide mentoring, connect foundational methods to urgent global problems, and inspire independent learning — without becoming a fourth lecture.
3 of 10
Near-peer · industry · boundary-crosser
2 of 10
Weeks 4 (concept) + 10 (capstone pitch)
Every week
Hazard · climate/energy · basic science
10 total
1 per session · never assigned
Design Principles#
The 50-minute slot sits alongside 3 lectures and a lab. It earns its place only if it does something the other formats structurally cannot: put students in the role of generating ideas, asking questions, and making connections — not receiving information.
Warning
The core constraint: If the discussion section feels like a fourth lecture, it has failed — and students will quietly stop preparing for it. Every session must require that students already know the week’s content to participate meaningfully, and must reward curiosity over correct answers.
What this slot must NOT be#
A homework help session
A re-lecture of the week’s content by the instructor
A quiz-style review where correct answers are the goal
A passive listening session with Q&A at the end
Four design pillars#
Build curiosity — end each session with more questions than it started with; the “go deeper” pointer is never assigned, always optional
Provide mentoring — three guest visits per quarter give students direct access to practitioners; mentoring happens in unscripted conversation, not in lectures
Connect methods to problems — every session links the week’s geophysical method to a real global problem (hazard, climate/energy, or basic science frontier)
Inspire independent learning — students leave each session with a name, a paper, or a dataset they want to explore on their own
Standard 50-minute anatomy#
Time |
Activity |
|---|---|
0 – 5 min |
Hook — a visual, a dataset, or a question; no explanation given |
5 – 10 min |
Pair-share — students exchange initial reactions |
10 – 40 min |
Core activity (format-dependent: discussion, guest Q&A, group work, or sci-comm) |
40 – 48 min |
Full-group synthesis — what did we learn? what questions remain? |
48 – 50 min |
Go-deeper pointer — one resource, one name, one rabbit hole |
Note
On timing within the week: The discussion section works best after at least 2 of the 3 weekly lectures, so students have enough conceptual grounding to engage with applications. If scheduling forces it earlier, reframe it as a forward-looking “why does this week’s content matter?” session rather than a backward-looking review.
Mentoring & Guest Design#
Mentoring does not happen in a lecture. It happens in unscripted conversation when a student realizes a practicing scientist is a person who was once where they are now.
Note
Design principle for guests: The three guest visits are not talks with Q&A appended. They are conversations with a brief context-setting opening. The guest’s job is to be honest, not impressive. Students’ job is to ask questions they actually want to know the answers to.
Week 3 — UW ESS PhD student (near-peer)#
Before the guest, students write one anonymous question they wish they could ask a grad student but feel awkward asking. The instructor reads 3 aloud as the opening; the guest answers them first, unfiltered.
The guest brings one figure from their research and tells the story of making it: what failed first, what the raw data looked like, how long it took. The guest should share their GitHub and one open-source dataset. The near-peer conversation is the most effective format for normalizing a research career path — the psychological distance is small enough that honest questions get honest answers.
Week 6 — Pacific Northwest industry geophysicist#
Project a real PNW junior geophysicist job posting before the guest arrives. Ask students: “What on this list do you already know how to do?” Mark the unfamiliar items. The guest spends 10 minutes on one project they’re proud of, one early-career mistake, and one skill they use weekly that undergrad didn’t prepare them for. Students leave with a concrete mental model of early-career work — one of the most anxiety-reducing things a course can provide.
Week 8 — Science communicator or policy analyst (boundary-crosser)#
The guest who crosses the science-society boundary: a science communicator, journalist, policy analyst, or hazard manager. The guest shares one translation success and one failure — moments when science crossed (or failed to cross) into public understanding. Core question: “How do you explain probabilistic hazard to a mayor who needs a yes/no answer?”
Sustaining curiosity between visits#
Each session’s “go deeper” pointer names one person (researcher, communicator, practitioner) the student could email or follow
A shared class document collects “questions we couldn’t answer” from each session and carries them forward
Encourage students to visit ESS department seminars — the weekly colloquium is free and open
REU application deadlines fall in January; mention them at the right moment (Week 6 guest session)
Sessions#
See the individual session pages for full detail on hook, discussion plan, relevance, and go-deeper pointer.
Session 1 — Why Does the Earth Make Noise? — Why does the Earth make noise?
Session 2 — Reading the Subsurface — Reading the subsurface
Session 3 — Guest: A PhD Student’s First Year — Guest: PhD student’s first year
Session 4 — Explaining Geophysics to Someone Who Doesn’t Care (Yet) — Explaining geophysics to someone who doesn’t care (yet)
Session 5 — Weighing the Earth: Gravity, Ice Sheets, and CO₂ — Weighing the Earth: gravity, ice sheets, and CO₂
Session 6 — Guest: A Pacific Northwest Industry Geophysicist — Guest: PNW industry geophysicist
Session 7 — Inside the Planet: What We Know, What We Don’t — Inside the planet
Session 8 — Guest: Translating Geophysics Across the Science-Society Boundary — Guest: translating geophysics across the science-society boundary
Session 9 — The Inversion Problem and the Climate Problem — The inversion problem and the climate problem
Session 10 — What Have We Learned? What’s Next? — What have we learned? What’s next?