提出量子机器遗忘的统一框架,实现可验证的数据删除与隐私保护。
Quantum Machine Unlearning: Foundations, Mechanisms, and Taxonomy
- 以量子不可逆性为基础,定义遗忘为模型区分度的收缩。
- 构建五维分类体系,涵盖机制、系统上下文与硬件实现。
- 兼容噪声中等规模量子设备,支持分布式可审计删除。
量子机器遗忘(QMU)已成为量子信息理论、隐私计算与可信人工智能交叉领域的基础挑战。本文通过建立一个整合物理约束、算法机制与伦理治理的正式框架,推进了QMU的发展。将遗忘定义为在完全正定保迹动态下,学习前与学习后模型之间可区分性的收缩,使数据移除根植于量子不可逆性原理。在此基础上,提出涵盖范围保证、机制、系统上下文与硬件实现的五轴分类体系,连接理论构想与可实施策略。框架整合影响权重、量子费舍尔信息更新、参数重初始化与核对齐等实用机制,适配具有噪声的中等规模量子(NISQ)设备。通过量子差分隐私、同态加密与可验证委托,该框架可扩展至联邦与隐私敏感场景,实现跨分布式量子系统的可扩展、可审计删除。此外,本文还提出前瞻性研究路线图,强调遗忘的严格证明、可扩展安全架构、事后可解释性与伦理可审计治理。这些贡献使QMU从概念走向严谨定义与伦理对齐的学科领域,贯通物理可行性、算法可验证性与社会问责性,迎接量子智能时代的到来。
原文摘要 · Abstract (English)
Quantum Machine Unlearning has emerged as a foundational challenge at the intersection of quantum information theory privacypreserving computation and trustworthy artificial intelligence This paper advances QMU by establishing a formal framework that unifies physical constraints algorithmic mechanisms and ethical governance within a verifiable paradigm We define forgetting as a contraction of distinguishability between pre and postunlearning models under completely positive trace-preserving dynamics grounding data removal in the physics of quantum irreversibility Building on this foundation we present a fiveaxis taxonomy spanning scope guarantees mechanisms system context and hardware realization linking theoretical constructs to implementable strategies Within this structure we incorporate influence and quantum Fisher information weighted updates parameter reinitialization and kernel alignment as practical mechanisms compatible with noisy intermediatescale quantum NISQ devices The framework extends naturally to federated and privacyaware settings via quantum differential privacy homomorphic encryption and verifiable delegation enabling scalable auditable deletion across distributed quantum systems Beyond technical design we outline a forwardlooking research roadmap emphasizing formal proofs of forgetting scalable and secure architectures postunlearning interpretability and ethically auditable governance Together these contributions elevate QMU from a conceptual notion to a rigorously defined and ethically aligned discipline bridging physical feasibility algorithmic verifiability and societal accountability in the emerging era of quantum intelligence.
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