Jincheng Zhang
This paper explores the novel concept of leveraging biological magnetic fields, specifically those generated by the human brain, for quantum bit (qubit) error correction. Traditional qubit error correction methods rely on precisely controlled electromagnetic fields, often requiring significant infrastructure and energy. This research proposes a fundamentally different approach utilizing the inherent, albeit weak, magnetic fields produced by biological systems. The core idea centers around designing control pulses modulated by these biological magnetic fields to directly influence qubit states and facilitate error correction. The theoretical framework outlines a method for encoding error correction information within these biological magnetic field variations. This approach offers potential advantages in terms of biocompatibility, reduced energy requirements, and a fundamentally new paradigm for quantum error correction, potentially opening avenues for more accessible and biologically integrated quantum computing. The presented model demonstrates the feasibility of utilizing biological magnetic fields as a control mechanism for quantum bits, offering a promising direction for future research in quantum computation. ---
•Aug 28, 2026•0 citations