arXiv:2606.16119cs.CV2026-06

轻量级零样本异常检测模型,可直接部署于边缘设备

EdgeZSAD: Practical Zero-Shot Anomaly Detection on Edge Devices

论文配图:EdgeZSAD: Practical Zero-Shot Anomaly Detection on Edge Devices
图 1 · 摘自论文原文
  • 采用2100万参数的TinyViT骨干网络,适配嵌入式硬件
  • 在MVTec-AD上达到91.6的图像AUROC,VisA达88.2
  • 支持Jetson和RB5设备直接部署,性能稳定无显著漂移

工业质检需要在边缘部署约束下实现零样本异常检测(ZSAD)。现有方法常依赖参数量约3亿的ViT-L主干网络,超出典型嵌入式硬件的内存与算力预算。本文提出EdgeZSAD,基于TinyViT-21M-512主干网络、非对称全局-局部读出机制(EdgeGLR)及可复现的源端训练方案(Real-IAD-DR),在单个源训练目标未见协议下训练一个检查点,并在六个工业基准上评估。三次独立实验中,模型在MVTec-AD上的平均图像AUROC达91.6,在VisA上为88.2;且可直接部署于Jetson Orin Nano Super(TensorRT FP16)与RB5 Gen2(QNN GPU FP16)平台。在六个设备重评分基准上,图像AUROC漂移低于0.2点,表明导出图在部署环境下保持了主机端排序行为。

原文摘要 · Abstract (English)

Industrial inspection needs zero-shot anomaly detection (ZSAD) that remains useful under edge deployment constraints. Recent methods often rely on ViT-L foundation backbones (~300M parameters), which exceed the memory and operator budget of typical embedded hardware. We study this regime through EdgeZSAD, a compact reference system built around a TinyViT-21M-512 backbone, an asymmetric global-local readout (EdgeGLR), and a reproducible source-side training recipe (Real-IAD-DR). We train a single checkpoint in a source-trained, target-unseen protocol and evaluate it across six industrial benchmarks. Across three independent runs, the resulting model reaches an average image AUROC of 91.6 on MVTec-AD and 88.2 on VisA, while remaining directly deployable on Jetson Orin Nano Super (TensorRT FP16) and RB5 Gen2 (QNN GPU FP16). Across the six device-rescored benchmarks, image-AUROC drift stays below 0.2 points, indicating that the exported graph preserves host-side ranking behavior in the evaluated deployment setting.

边缘计算异常检测零样本轻量化

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