Flow-field particles · glm-5
Output generated Cost / run $0.0045 Runtime 40.6s
Prompt for this run
Using the pre-provided p5.min.js (global p5, instance or global mode), create a full-screen flow-field particle animation: thousands of particles advected by Perlin-noise vectors, leaving fading trails, with colors shifting over time.
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
METRICS
Transcript · 4 messages
Using the pre-provided p5.min.js (global p5, instance or global mode), create a full-screen flow-field particle animation: thousands of particles advected by Perlin-noise vectors, leaving fading trails, with colors shifting over time.
thinking
The user wants me to create a full-screen flow-field particle animation using p5.js. The requirements are: 1. Thousands of particles 2. Advected by Perlin-noise vectors (flow field) 3. Fading trails 4. Colors shifting over time 5. Must be self-contained in index.html 6. Use the pre-provided p5.min.js Let me create a beautiful flow field visualization with these features.
/workspace/index.html (6246 bytes)Successfully wrote 6246 bytes to /workspace/index.html
thinking
I've created the flow field particle animation. Let me verify the file was written correctly.
Created `/workspace/index.html` with a full-screen flow-field particle animation featuring: **Key Features:** - **3000 particles** advected through a Perlin noise-based vector field - **Fading trails** via semi-transparent black overlay each frame - **Dynamic colors** shifting over time using HSB color mode with hue mapped to flow angle + global offset - **3D Perlin noise** (x, y, z) for smooth temporal evolution of the flow field - **Particle wrapping** at edges for seamless infinite canvas effect **Interactions:** - **Click** - burst of particles spawns at cursor position - **Press 'R'** - reset all particles - **Window resize** - automatically adapts to new dimensions The flow field is computed on a grid using Perlin noise, creating organic swirling patterns. Particles follow the field vectors while leaving luminous fading trails, with colors smoothly cycling through the spectrum as the noise evolves.