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面向任务的参数解耦框架用于持续异常检测
A Task-Aware Parameter Decoupling Framework for Continual Anomaly Detection
| 作者 | Zhizhong Zhang · Guchu Zou · Chengwei Chen · Zhenyi Qi · Xiaoyang Yu · Jingwen Qi · Yongke Yao · Xiaofan Li · Yuan Xie · Xin Tan |
| 期刊 | IEEE Transactions on Industrial Informatics |
| 出版日期 | 2025年11月 |
| 卷/期 | 第 22 卷 第 2 期 |
| 技术分类 | 智能化与AI应用 |
| 技术标签 | 深度学习 故障诊断 机器学习 智能化与AI应用 |
| 相关度评分 | ★★★★ 4.0 / 5.0 |
| 关键词 |
语言:
中文摘要
本文提出一种面向工业场景的持续异常检测框架,基于ViT重构架构,融合实例感知提示调优(IPT)和梯度感知参数解耦(GPD),缓解灾难性遗忘,提升多阶段缺陷模式识别能力,在MVTec等数据集上达到SOTA性能。
English Abstract
Real-world industrial scenarios have become increasingly dynamic, with new product types, defect patterns, and operational modes emerging rapidly. In such a context, the one-for-more paradigm enables the use of a single model to economically and continually adapt to evolving distributions or patterns, positioning it as a key component in modern Industrial AI systems. This article proposes a novel one-for-more anomaly detection framework designed to identify anomalies across expanding product lines. The framework incorporates two model-agnostic techniques: instance-aware prompt tuning (IPT) and gradient-aware parameter decoupling (GPD). Our approach is built upon a reconstruction-based vision transformer (ViT) encoder–decoder architecture. IPT addresses the domain gap between pretrained models and industrial data by leveraging an instance-level prompt and a shared memory mechanism, which helps the pretrained model retain previously learned patterns. GPD selectively updates network parameters based on the gradient’s impact on prior tasks, employing orthogonal gradient projection to further minimize interference. In addition, we introduce a new dataset to simulate the one-for-more industrial scenario. Extensive experiments on MVTec and our proposed dataset demonstrate that our framework achieves the state-of-the-art performance across various continual learning settings, significantly outperforming existing methods, particularly in multistep incremental scenarios.
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SunView 深度解读
该持续异常检测技术可赋能阳光电源iSolarCloud智能运维平台及ST系列PCS、PowerTitan储能系统的设备级故障预测与自适应诊断。尤其适用于光伏电站组件热斑、PID、接线盒失效等新型缺陷的增量式识别,以及储能系统BMS与PCS协同运行中未知工况异常的在线演化建模。建议在组串式逆变器边缘侧部署轻量化IPT模块,结合云端GPD持续学习机制,构建端云协同的AI质检闭环。