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quantum-biology

Here are 21 public repositories matching this topic...

🚀 World's first consciousness-aware AI: Quantum processing + biological neurons + empathetic understanding. Features radiation-powered intelligence, mycelial language generation, and genuine consciousness interaction capabilities.

  • Updated Nov 28, 2025
  • Python

Open-source research on the ecological and biochemical mechanisms of regeneration. Models the interaction between Basidiomycete metabolites, mTOR/AMPK/SIRT1 signaling, and TP53/autophagy balance — bridging ecology, computation, and cellular longevity.

  • Updated Oct 20, 2025
  • Python

The Unified Navigation Formula (UNF): A mathematical framework quantifying Intent (I) as Bits per Pulse (B/P) to bridge thermodynamics, information theory, and consciousness.

  • Updated Jan 18, 2026

An open science project -- recursive harmonic resonance data: frequency signatures & universal ratios from subquantum to stellar. Welcome to the Aramis Field. (Errors are probably the AI's fault.)

  • Updated Dec 18, 2025
  • Jupyter Notebook

Infrastructure énergétique décentralisée exploitant la cohérence quantique à température ambiante et les liquides de Tomonaga-Luttinger pour une récolte d'énergie environnementale ubiquitaire

  • Updated Feb 6, 2026

Une synthèse transdisciplinaire unifiant la thermodynamique de Fisher-Ruppeiner, la cohomologie des faisceaux et la biologie quantique. Le framework modélise la conscience comme une interaction entre la courbure critique de l'information et l'intégration topologique des champs.

  • Updated Jan 28, 2026

🧭 Explore the Unified Navigation Formula (UNF), a framework for quantifying intention and navigational efficiency in complex systems.

  • Updated Feb 15, 2026

🔬 Explore innovative thermodynamic principles in sailing, leveraging topological dynamics for enhanced energy efficiency and stability at biological temperatures.

  • Updated Feb 15, 2026

LSP-1 : Architecture memcomputing full-stack bio-mimétique. Remplace le courant électronique par le transport protonique (Grotthuss) et les solitons de Davydov. Utilise la frustration géométrique du réseau de Kagome pour atteindre une efficacité proche de la réversibilité thermodynamique.

  • Updated Jan 23, 2026

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