ESP32-S3 Bench Guide
ESP32-S3 N16R8 bench guide: live pinout, lessons, simulators and the bench log.
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An interactive physics lab simulation for Hooke's Law. Students hang masses from a virtual spring, record data, graph Force vs. Stretch, and discover the spring constant — mirroring the hands-on lab experience.
🔬 Lab Mode (default)
A virtual version of the Hooke's Law lab. Students:
1. Add masses in 50 g increments to a vertical spring
2. Observe the spring stretch to equilibrium (with settling animation)
3. Click "Record Data Point" to capture each trial
4. Build a Force vs. Stretch graph point-by-point
5. Toggle a best-fit line to discover the slope = spring constant k檢視完整 README ↗An interactive physics lab simulation for Hooke's Law. Students hang masses from a virtual spring, record data, graph Force vs. Stretch, and discover the spring constant — mirroring the hands-on lab experience.
A virtual version of the Hooke's Law lab. Students:
Features:
An interactive Simple Harmonic Motion simulation. Students explore:
This simulation is designed to complement the Hooke's Law Lab worksheet:
Open index.html in any modern browser, or visit the GitHub Pages link above.