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Notion Office Hours: Managing Academic Studies 📚

Notion·
6 min read

Based on Notion's video on YouTube. If you like this content, support the original creators by watching, liking and subscribing to their content.

TL;DR

Build an academic workflow around connected databases: tasks/events, notes, lectures, flashcards, and review queues should share relations rather than live in separate silos.

Briefing

A Notion setup built for academic life hinges on one idea: treat everything—tasks, lectures, readings, flashcards, and even review reminders—as connected databases, then use filters and self-referencing logic to surface only what matters right now. The payoff is a system that turns scattered study inputs into an always-current workflow for planning, writing, and spaced repetition, without relying on a separate calendar or a pile of disconnected notes.

The academic use case comes through via a master’s dissertation in strength and conditioning. With lab access blocked during the pandemic, the dissertation shifted to a qualitative study based on nine interviews with coaches. That change became a forcing function for better organization: the system had to support capturing notes from readings and meetings, processing them into structured “resources,” and linking them to modules/areas and to the dissertation project itself. Notion’s role isn’t just storage; it’s the engine that keeps study materials traceable—so a flashcard can point back to the note, the note can point back to the lecture or article, and the whole chain can be reviewed on schedule.

The core workflow starts with a “dashboard” that uses a global navigation bar made from a Notion global block. Instead of a sidebar, the navigation is an emoji-based row of linked pages, and the same block appears everywhere through global-block reuse. From there, a master task database is surfaced through linked views with filters such as “tasks today,” “tasks before today,” and recurring-task logic. Tasks also function as “events” (lectures, publishing deadlines, streams, assessments), letting the same database power both study scheduling and content/production planning.

For notes, the system uses a master notes database where every captured note is immediately related to “areas” (modules/topics) and optionally to “people” (for meeting notes) and “lectures” (for lecture-linked context). A processing step follows capture: notes are moved into templates that add default properties and relations, then enriched with metadata like review frequency and review status. Review isn’t an afterthought; it’s built into the data model. Separate review dashboards use formulas and rollups to compute when items are due again, including flashcards and area-level review queues.

Flashcards are handled with a dedicated flashcards database and a spaced-repetition mechanism driven by a “stage” field and a “date wrong” property. A formula schedules the next review date by adding different day offsets based on the stage, effectively turning repeated correctness into longer intervals. The system also supports “decks” by filtering flashcards by area, so a student can review physiology or any other module without seeing everything.

The setup evolves over time. Early versions were simple to-do lists; later iterations added databases, relations, self-referencing filters, and templates. The guiding principle is incremental building: start with a skeleton (tasks + notes + reminders), then add complexity only when a friction point appears. The result is a study workflow that can pre-build reading lists for an assignment, pre-plan lecture notes, and keep dissertation writing moving by ensuring that research inputs already land in the right place before drafting begins.

Cornell Notes

The system treats academic studying as a network of linked Notion databases rather than separate pages: tasks/events, lectures, readings/notes, flashcards, and review reminders all connect through shared relations (especially “areas” as module/topic tags). Capture happens first (notes from lectures or articles go into a master notes database), then processing moves items into templates that automatically attach metadata and relations. Review is computed from properties and formulas, producing dashboards that show what’s due today for notes, flashcards, and area-level review. Flashcards use a spaced-repetition schedule driven by a “stage” field and a “date wrong” property, so correctness changes the next review date. The approach matters because it keeps study materials traceable and ensures planning and review stay synchronized as the workload changes.

How does the system connect lectures, readings, and flashcards so that review stays contextual?

Notes captured from lectures or articles go into a master notes database. Each note is related to “areas” (modules/topics) and can also be related to “lectures” and “people” (for meeting notes). Flashcards are stored in a separate flashcards database, and each flashcard can reference the note it came from. That relation means a student can start from a flashcard, jump back to the underlying note, then move upward to the lecture or article context—so review isn’t just memorization in isolation.

What role do “areas” play, and why does the system avoid a separate tags database?

“Areas” function as the module/topic taxonomy. Instead of maintaining a separate tags database, the system uses the areas relation as the tag mechanism. Notes relate to areas, and dashboards filter by area to show the relevant lectures, resources, tasks, and flashcards. This design also supports self-referencing filters for review: the review dashboards can compute due items per area without manually tagging every review queue.

How does the spaced-repetition schedule work for flashcards?

Flashcards include a “stage” dropdown (a 1–10 scale via a rollup in another place) and a “date wrong” property. A formula uses the stage to determine how many days to add to the “date wrong” baseline. When a card is marked correct, the stage increases (moving to longer intervals); when marked wrong, the stage resets back to 1 and updates “date wrong,” pulling the next review sooner. The system’s logic is built so long gaps can occur after repeated correct answers, because the date wrong is treated as day zero.

Why does the system treat tasks as “events,” and what does that enable?

Tasks are stored in a task database where items can represent lectures, publishing deadlines, streams, and assignments—anything with a time-based workflow. By using the same database for both study and scheduling, linked calendar-like views can show upcoming lectures and deadlines together. Templates can also auto-attach the right relations (e.g., an “event template” can create an event-tagged task and inject a notes relation filtered to that event).

How does review automation work without manually tracking due dates for everything?

Review dashboards rely on formulas, rollups, and properties that indicate review frequency. For notes and resources, review uses date-based logic (items appear in review views when on or before today). For areas, review uses a tick-box approach so rollups can count how many areas are due. The dashboard then surfaces counts like “how many areas need review today” and “how many flashcards need review today,” reducing the need to navigate into each database to check status.

What’s the navigation strategy, and why does it matter for daily use?

Navigation is built around a global block: an emoji-based text row where each emoji links to a page. The global block appears across the workspace, so the same navigation bar is always available and stays consistent. The system avoids a traditional sidebar for day-to-day movement, using keyboard shortcuts (e.g., Control + 1 on Windows) to jump back to the dashboard quickly. This keeps the workflow fast enough to support frequent capture and processing.

Review Questions

  1. Which relations in the system are used to make notes traceable back to lectures and readings during review?
  2. How do the flashcard “stage” and “date wrong” properties interact to schedule the next review date?
  3. What’s the difference between the system’s approach to task due dates and project due dates, and why does it matter for planning?

Key Points

  1. 1

    Build an academic workflow around connected databases: tasks/events, notes, lectures, flashcards, and review queues should share relations rather than live in separate silos.

  2. 2

    Use “areas” as the central taxonomy (module/topic tags) so dashboards and review logic can filter everything consistently.

  3. 3

    Separate capture from processing: capture notes immediately, then run them through templates that attach metadata and relations automatically.

  4. 4

    Make review data-driven with formulas and rollups so dashboards can compute what’s due today without manual tracking.

  5. 5

    Implement spaced repetition for flashcards using a stage-based schedule tied to a “date wrong” baseline, so correctness changes future review timing.

  6. 6

    Use linked views and filtered dashboards to keep daily work focused on “today” and “before today,” while still retaining a master list for recovery.

  7. 7

    Iterate gradually: start with a simple skeleton (task list + notes + reminders) and add complexity only when friction appears.

Highlights

The system’s navigation is a global block: an emoji-linked navbar that appears everywhere, keeping daily movement fast without relying on a sidebar.
Flashcards use a stage + “date wrong” formula to drive spaced repetition, with correctness pushing the next review further out and wrong answers resetting the schedule.
Notes aren’t just stored—they’re processed through templates that attach relations to areas, lectures, and projects so assignments can start with pre-built reading context.
Review dashboards are computed via formulas and rollups, including tick-box rollups for area-level review counts.
Tasks double as events (lectures, publishing, assessments), letting one database power both academic scheduling and production deadlines.