aqora

MÖBIUS QUANTUM COMPUTATION: A NEW TOPOLOGICAL FRAMEWORK FOR QUANTUM INFORMATION PROCESSING

José Luis MAC LOUGHLIN, Norma G. Sanchez

Jul 11, 20260 citations

Introduction to Categorical Aspects of Topological Quantum Computation

Fatimah Ahmadi, Vahid Karimipour

Jan 1, 20150 citations

The Entangled Neuro-Quantum Architecture (ENQuA): A Framework for Multi-Brain Quantum-Enhanced Cognition

Nawabzada Hashim Ali khan

This paper introduces the Entangled Neuro-Quantum Architecture (ENQuA), a hypothetical framework for a network of human brains interfaced with a central quantum computer. Building upon the 2025–2026 experimental validation of robust quantum phenomena in biological systems—including room-temperature protein-based qubits and confirmed superradiance in tryptophan networks—we propose a hybrid network topology. The ENQuA leverages microtubules as local quantum processors and superradiant tryptophan networks as ultra-fast "quantum buses" for inter-neural signaling. The interface utilizes non-invasive Motif DOT XCS technology and Nitrogen-Vacancy (NV) center sensors to bridge biological and synthetic quantum states. We address decoherence through the "3-Layer Quantum Brain Hypothesis," combining long-lived nuclear-spin memory with radical-pair reservoirs and motional-narrowing stabilization. The architecture’s capabilities include unified conscious experience and hybrid neuromorphic-quantum computation. Finally, we analyze the 2026 UNESCO mandate for Quantum Neurorights. This work synthesizes the latest breakthroughs in quantum biology, neuromorphic engineering, and neuroethics to propose a scientifically grounded vision for the future of collective cognition.This paper introduces the Entangled Neuro-Quantum Architecture (ENQuA), a hypothetical framework for a network of human brains interfaced with a central quantum computer. Building upon the 2025–2026 experimental validation of robust quantum phenomena in biological systems—including room-temperature protein-based qubits and confirmed superradiance in tryptophan networks—we propose a hybrid network topology. The ENQuA leverages microtubules as local quantum processors and superradiant tryptophan networks as ultra-fast "quantum buses" for inter-neural signaling. The interface utilizes non-invasive Motif DOT XCS technology and Nitrogen-Vacancy (NV) center sensors to bridge biological and synthetic quantum states. We address decoherence through the "3-Layer Quantum Brain Hypothesis," combining long-lived nuclear-spin memory with radical-pair reservoirs and motional-narrowing stabilization. The architecture’s capabilities include unified conscious experience and hybrid neuromorphic-quantum computation. Finally, we analyze the 2026 UNESCO mandate for Quantum Neurorights. This work synthesizes the latest breakthroughs in quantum biology, neuromorphic engineering, and neuroethics to propose a scientifically grounded vision for the future of collective cognition.

May 10, 20260 citations

Neuromorphic Implementation of Quantum-Cognitive Models

Ivan S. Maksymov

Springer eBooksJan 1, 20260 citations

Unification of Universal and Non-Universal Topological Quantum Computation

Haitan Xu, Jacob M. Taylor

Physical Review LettersJan 22, 20100 citations

GRAPH THEORETIC QUANTUM FIELD SYSTEM MODELLING FOR QUANTUM INFORMATION COMPUTATION CIRCUITS AND ALGORITHMS

Dayal Pyari Srivastava

Mar 9, 20132 citations

QUANTUM-NEURO-SYMBOLIC CONTINUUM: A TOPOLOGICAL SHEAF-THEORETIC FRAMEWORK FOR CONSCIOUS COMPUTATION WITH NV-CENTER EMPIRICAL

Abstract

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QUANTUM-NEURO-SYMBOLIC CONTINUUM: A TOPOLOGICAL SHEAF-THEORETIC FRAMEWORK FOR CONSCIOUS COMPUTATION WITH NV-CENTER EMPIRICAL

Abstract

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