The Role of Stochastic Landscape in Quantum State Preservation

Jincheng Zhang

Published Aug 31, 2026• 0 citations

Abstract

Quantum information is notoriously vulnerable to decoherence, threatening the integrity of quantum computations. Long-term preservation of quantum states requires minimizing these decoherence effects, a challenge that stems from the inherent randomness of quantum systems. This paper investigates the role of the stochastic landscape – a dynamic representation of the system's possible states – in safeguarding quantum information. We propose a novel approach utilizing a stochastic matrix to model quantum state evolution, incorporating a mechanism for dynamically adjusting the state to counteract decoherence. The core claim is that quantifying and predicting the impact of random fluctuations in the quantum state on long-term preservation of information is crucial for developing robust quantum computing architectures. This work offers a new framework for mitigating decoherence through a controlled stochasticity, potentially leading to significantly enhanced quantum state fidelity.

DOI: 10.5281/zenodo.22188682

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