AI Safety - Irreversible Operations and Tempo Mismatch in AI Learning Systems: Definitions, Thresholds, and a Minimal Governance Interface

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Authors: Qien Huang
Cited by: 0

Abstract

AI systems increasingly operate as tightly-coupled pipelines where training, evaluation, and deployment occur under accelerating update tempo. In such settings, safety failures often arise not from isolated model errors but from loss of corrective capacity: evaluation closes after changes take effect, rollback becomes infeasible, and governance feedback lags behind system evolution. This paper formalizes two concepts that capture this failure mode: tempo mismatch, defined as the sustained ratio between governance feedback latency and system update tempo, and Irreversible Operations (IOs), defined as actions that materially reduce feasible future correction under bounded cost and time. We provide a minimal dynamical setup in which sustained tempo mismatch increases the probability of entering irreversible regimes (e.g., absorption into states with prohibitively high recovery cost). We then show how an IO-only gate—a lightweight governance interface that slows only IO-class changes—can bound this risk while preserving routine iteration. We operationalize the theory via three auditable indicators: Validation Lag (VL), Rollback Drill Pass Rate (RDPR), and Gate Bypass Rate (GBR), and we provide an implementation-oriented control standard for self-evaluating / tool-using agents. A runnable toy demo illustrates how self-confirmation loops amplify constraint accumulation and collapse option space unless multi-estimator coherence gates are enforced. [Chinese/中文] AI学习系统中的不可逆操作与节拍失配:定义、阈值与最小治理接口 AI系统越来越多地作为紧密耦合的流水线运行,其中训练、评估和部署在加速的更新节拍下进行。在这种环境下,安全故障通常不是源于孤立的模型错误,而是源于纠正能力的丧失:评估在变更生效后才关闭,回滚变得不可行,治理反馈滞后于系统演化。 本文形式化了两个捕捉这种故障模式的概念:节拍失配,定义为治理反馈延迟与系统更新节拍之间的持续比率;以及不可逆操作(IO),定义为在有限成本和时间下实质性降低可行未来纠正的操作。我们提供一个最小动力学设置,其中持续的节拍失配增加进入不可逆状态的概率(例如,吸收到恢复成本过高的状态)。然后我们展示仅IO门控——一种仅减慢IO类变更的轻量级治理接口——如何在保持常规迭代的同时限制这种风险。 我们通过三个可审计指标将理论操作化:验证滞后(VL)、回滚演练通过率(RDPR) 和 门控绕过率(GBR),并为自评估/工具使用的智能体提供面向实现的控制标准。一个可运行的玩具演示说明了自确认循环如何在没有多估计量一致性门控的情况下放大约束累积并压缩选项空间。

Fields of Study & Subjects

Adversarial Robustness in Machine Learning Reinforcement Learning in Robotics Explainable Artificial Intelligence (XAI)

Publication details

Journal / source
Zenodo (CERN European Organization for Nuclear Research)
Publication date
3 January 2026
Language
EN
Document type
Preprint