HomeQuantum PhysicsBiological Decoherence Timescale Lab

Biological Decoherence Timescale Lab

Interactive 3D decoherence-rate simulator: set temperature, superposition size and environment coupling to see how fast a quantum superposition survives — from an isolated cryogenic qubit to a warm, wet biological cell — with live τ_dec, λ_dB and coherence readouts.

Quantum Physics3DAdvanced60 FPS📱 Mobile-adapted⇄ 2D version
quantum-healing ↗ Open standalone

How long can a quantum superposition actually survive inside a warm, wet living cell — versus inside an isolated cryogenic qubit? This simulator computes the real scattering-based decoherence rate (the Joos–Zeh estimate Max Tegmark applied to neurons in 2000) from three sliders — temperature, superposition size Δx, and environment collision rate — and renders it live: a pair of "which-path" branches around a central quantum system get struck by orbiting environment particles, and the coherence bridge between the branches fades exactly on the computed timescale. Two one-click presets contrast an isolated 4K qubit against 37°C cytoplasm, with live τ, Γ and λ_dB readouts throughout — the same calculation used to evaluate quantum-mind and "quantum healing" claims about macroscopic biological coherence.

⚙ Under the hood

Interactive decoherence-rate simulator: tune temperature, superposition size and environment coupling to see, with real physics, how fast a quantum superposition survives — from an isolated cryogenic qubit to warm, wet cytoplasm — the same calculation used to test claims about biological quantum coherence and 'quantum healing'.

quantum decoherencequantum biologyTegmarkBloch spherethermal physicsquantum measurement

3D · Three.js / WebGL renderer · 60 FPS target · runs fully client-side, no install

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