Tidal Turbine & Floating Housing Array (3D)
A harmonic tide drives channel flow through a real turbine power curve (P = 0.5·ρ·A·v³·Cp, Betz-limited) while floating housing platforms bob on spring-damper buoyancy tied to the same tide — orbit the camera to watch turbines spin and homes rise and fall together.
Tidal-stream power is one of the most predictable forms of renewable energy: unlike wind or solar, the tide's harmonic cycle is known years in advance, which makes it possible to size a turbine array against a real power curve. This 3D simulation drives a seabed-mounted turbine array from a harmonic tide h(t) = A·sin(ωt); the channel current that spins the rotors is modeled as the tidal-gradient flow v(t) = k·A·ω·cos(ωt), and each turbine's instantaneous output follows the standard tidal-turbine power equation P = ½·ρ·Aswept·v³·Cp, capped below the Betz limit and gated by a realistic cut-in speed. Floating housing platforms moored nearby respond to the same tide through a spring-damper buoyancy model, so the homes visibly lag and settle exactly as a real floating structure would.
A real 3D tidal-stream simulation: a harmonic tide drives channel flow past a turbine array (P = 0.5·ρ·A·v³·Cp, Betz-limited) while floating housing platforms bob on spring-damper buoyancy tied to the same tide.
3D · Three.js / WebGL renderer · 60 FPS target · runs fully client-side, no install