Dynamically Reconfigurable Quantum Memories using Topological Qubits

Jincheng Zhang

Published Aug 29, 2026• 0 citations

Abstract

Quantum memory remains a critical bottleneck in the development of practical quantum computing and quantum communication. Current approaches to quantum memory, primarily based on superconducting or trapped ion technologies, struggle to maintain qubit coherence for extended periods and face significant challenges in scaling to large numbers of qubits. This research proposes a novel approach utilizing topological qubits, specifically Majorana fermions, to realize a dynamically reconfigurable quantum memory. The core concept involves harnessing the robust topological protection inherent in Majorana qubits to drastically reduce decoherence. By applying external magnetic fields, we can manipulate and control the entanglement state of these qubits, enabling rapid data access, retrieval, and erasure. This architecture represents a fundamental shift in quantum memory design, potentially circumventing the limitations of existing technologies and paving the way for scalable and long-lived quantum information storage. The proposed system utilizes a carefully engineered topological substrate to ensure high fidelity operations and minimal sensitivity to environmental noise. This paper details the theoretical framework, the proposed architecture, and explores the key considerations for implementing this dynamically reconfigurable quantum memory.

DOI: 10.5281/zenodo.22152665

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