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Brain and Neurological Disorders

Electron-Positron Spin Entangled Qubit Pairs Embedded in DNA Bases as a Platform for Hybrid Quantum–Biological Computation

Chur Chin

Published Jun 20, 2025• 0 citations
Publisher

Abstract

We propose a novel theoretical framework for a hybrid DNA–quantum computing system based on electron–positron spin-entangled pairs embedded within the chiral architecture of DNA molecules. Utilizing the spin-1/2 nature of both particles, this two-qubit entanglement structure interfaces with the quantum chiral environment of DNA, enabling controlled spin interactions, photonic readout via annihilation, and logic gate operations induced by chirality shifts (e.g., B–Z DNA transitions). This model integrates concepts from chiral-induced spin selectivity (CISS), quantum entanglement, and DNA computing, offering a pathway toward bio-quantum logic gates, memory, and information transmission. We discuss potential mechanisms for initialization, operation, and measurement, supported by over twenty relevant studies across quantum physics, spintronics, and molecular biology.

DOI
10.31579/2642-973x/142

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