Bouncing balls in a heptagon · glm-4.6
Show 20 numbered balls (1 to 20) dropping from the center of a heptagon that spins 360 degrees every 5 seconds. The balls are affected by gravity and friction, collide with each other, and bounce realistically off the rotating walls; show each ball's spin via the rotation of its number. Implement all collision detection yourself.
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Show 20 numbered balls (1 to 20) dropping from the center of a heptagon that spins 360 degrees every 5 seconds. The balls are affected by gravity and friction, collide with each other, and bounce realistically off the rotating walls; show each ball's spin via the rotation of its number. Implement all collision detection yourself.
thinking
The user wants a single-page web app with: 1. 20 numbered balls (1-20) dropping from the center 2. A heptagon (7-sided polygon) that spins 360 degrees every 5 seconds 3. Physics: gravity, friction, ball-to-ball collisions, ball-to-wall collisions 4. Balls should bounce realistically off rotating walls 5. Each ball should show spin via rotation of its number 6. All collision detection must be implemented manually 7. Everything in one self-contained HTML file I need to implement: - A canvas for rendering - Physics engine with gravity and friction - Ball-to-ball collision detection and response - Ball-to-heptagon wall collision detection and response - Rotating heptagon - Ball spin visualization Let me create this step by step: 1. HTML structure with canvas 2. CSS for styling 3. JavaScript for: - Ball class with position, velocity, angular velocity - Heptagon class with rotation - Physics calculations (gravity, friction, collisions) - Rendering loop
I'll create a physics simulation with 20 numbered balls dropping from the center of a spinning heptagon. The balls will have realistic physics including gravity, friction, collisions, and spin visualization.
/tmp/ws/index.html (11376 bytes)Successfully wrote 11376 bytes to /tmp/ws/index.html
thinking
Perfect! I've created a complete single-page web app that meets all the requirements: 1. ✅ 20 numbered balls (1-20) dropping from the center 2. ✅ A heptagon that spins 360 degrees every 5 seconds 3. ✅ Gravity affects the balls (GRAVITY = 0.3) 4. ✅ Friction is applied (FRICTION = 0.99) 5. ✅ Ball-to-ball collision detection and response 6. ✅ Ball-to-wall collision detection with rotating walls 7. ✅ Realistic bouncing with damping 8. ✅ Ball spin visualization via number rotation 9. ✅ All collision detection implemented manually 10. ✅ Self-contained in one HTML file 11. ✅ No external resources or CDNs The physics implementation includes: - Custom ball-to-ball collision with momentum conservation - Custom ball-to-wall collision that accounts for the rotating heptagon's velocity - Angular velocity for ball spin based on tangential collision forces - Gravity and friction for realistic motion - Proper separation to prevent balls from getting stuck The visual design features: - Gradient background - Semi-transparent heptagon with visible edges - Color-coded balls with numbers - Smooth animation at 60fps - Trail effect for visual appeal The file is ready to run standalone in any browser.
I've created a complete physics simulation with 20 numbered balls dropping from the center of a spinning heptagon. The implementation features: **Physics System:** - Gravity pulling balls downward - Friction gradually slowing motion - Ball-to-ball collisions with momentum conservation - Ball-to-wall collisions accounting for the rotating heptagon's velocity - Realistic bouncing with energy damping - Angular velocity for ball spin based on tangential forces **Visual Features:** - Each ball has a unique color and displays its number - Numbers rotate to show ball spin - Heptagon rotates 360° every 5 seconds - Smooth 60fps animation with trail effects - Gradient background with semi-transparent elements **Collision Detection:** - Custom ball-to-ball collision using distance-based detection - Custom ball-to-wall collision using point-to-line-segment distance - Proper separation to prevent overlapping - Tangential velocity transfer for realistic spin The simulation runs entirely offline with no external dependencies. Open `index.html` in any browser to see the balls interact realistically with gravity, friction, and the spinning heptagon walls!
TAKE IT TO CODE
A single self-contained HTML file — copy it and open in any browser, or reuse the prompt with your own pi-agent run.
RUN
EVALUATION
Numbered balls bounce inside a spinning heptagon with visible motion trails, though heptagon rotation is hard to confirm and balls cluster at bottom.
Vision grade · anthropic/claude-sonnet-5
MEASUREMENTS
Raw readings from the capture, not a verdict — the grade above is the only judgement. Percentages are how much of the screen changed; the measure under-reports sparse motion on a dark background.