Why physics is taught this way.
Six short essays for parents and guides. The first two explain the core of the method; the next three address the questions families actually ask; the sixth answers the one everyone is thinking about — what happens to a course like this in the age of AI.
The method
Why physics is taught at the bench.
Physics is abstract until you measure it. What a track, a stopwatch, and a cart that accelerates teach that no textbook can — and why "lab-led, not textbook-led" is the whole game.
Cram, pass, forget — in physics.
Why plug-and-chug problem sets decay especially fast without mastery, and what "Learn → Master → Retain" replaces the memorize-the-equation model with.
The demonstrations
The apparatus defense.
The single moment that captures the whole course: a student at a self-built rig, a measured value they trust, and a guide asking "defend your design, your data, and your error."
Measurement under uncertainty.
Significant figures, precision versus accuracy, reading an instrument, error that propagates — and why a measured number without its uncertainty is meaningless.
Integration & AI
Integration: Galileo’s inclined plane.
How one experiment — a ball rolling down a grooved ramp — overturned Aristotle, invented the controlled experiment, and pulls in history, writing, and the philosophy of science.
AI-proof by design.
We teach students to use AI well — and we assess them in ways AI cannot touch. Why those two facts fit together.