Covariant quantum error correction can sustain coherence in Cryptochrome-like proteins for 200 ms, satisfying the timing requirements for quantum-biological decision models.
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Magnetic field on 3D active Brownian particles produces long-time drift plus enhanced diffusion, non-Gaussian statistics at intermediate times, and field-sensitive first-passage behavior.
Simulations across four organic qubit platforms show Petz recovery yields maximum fidelity gain at the entanglement-breaking threshold gamma_c, with Delta F max of 0.303 at dimension 64 and log2 d scaling.
citing papers explorer
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Covariant quantum error correction in a three-layer quantum brain model: computational analysis of layer-specific coherence dynamics
Covariant quantum error correction can sustain coherence in Cryptochrome-like proteins for 200 ms, satisfying the timing requirements for quantum-biological decision models.
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Drift-diffusion interplay in active Brownian particles under orienting field
Magnetic field on 3D active Brownian particles produces long-time drift plus enhanced diffusion, non-Gaussian statistics at intermediate times, and field-sensitive first-passage behavior.
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The $\gamma_c$-Peak: Covariant Recovery on Four Organic Qubit Platforms
Simulations across four organic qubit platforms show Petz recovery yields maximum fidelity gain at the entanglement-breaking threshold gamma_c, with Delta F max of 0.303 at dimension 64 and log2 d scaling.