arXiv:2605.10148cs.CV2026-05

MicroViTv2优化边缘设备视觉模型,提升精度与能效。

MicroViTv2: Beyond the FLOPS for Edge Energy-Friendly Vision Transformers

论文配图:MicroViTv2: Beyond the FLOPS for Edge Energy-Friendly Vision Transformers
图 1 · 摘自论文原文
  • 采用重参数化结构,加速推理并减少冗余。
  • 在ImageNet-1K上精度提升0.5%,超越MobileViTv2等模型。
  • 适合低功耗边缘设备部署,关注真实硬件效率。

视觉变压器(ViT)在各类视觉任务中表现优异,但计算开销大,难以在边缘设备部署。本文提出轻量级的MicroViTv2,基于原始MicroViT改进,引入重参数化设计:重参数化补丁嵌入(RepEmbed)和重参数化深度卷积混合器(RepDW),实现更快推理;同时提出单深度转置注意力(SDTA),以最小冗余捕捉长程依赖。尽管浮点运算量(FLOPs)略有增加,但模型在精度上比前代提升0.5%,优于MobileViTv2、EdgeNeXt和EfficientViT。在Jetson AGX Orin上验证,兼具快速推理与高能效。图像分类(ImageNet-1K)与目标检测(COCO)实验表明,硬件感知设计与结构重参数化是实现高精度与低能耗的关键,强调评估效率需超越单纯FLOPs。代码已开源。

原文摘要 · Abstract (English)

The Vision Transformer (ViT) achieves remarkable accuracy across visual tasks but remains computationally expensive for edge deployment. This paper presents MicroViTv2, a lightweight Vision Transformer optimized for real-device efficiency. Built upon the original MicroViT, the proposed model is designed based on reparameterized design, specifically Reparameterized Patch Embedding (RepEmbed) and Reparameterized Depth-Wise convolution mixer (RepDW) for faster inference, and introduces the Single Depth-Wise Transposed Attention (SDTA) to capture long-range dependencies with minimal redundancy. Despite slightly higher FLOPs, MicroViTv2 improves accuracy up to 0.5% compared to its predecessor and surpassing MobileViTv2, EdgeNeXt, and EfficientViT while maintaining fast inference and high energy efficiency on Jetson AGX Orin. Experiments on ImageNet-1K and COCO demonstrate that hardware-aware design and structural re-parameterization are key to achieving high accuracy and low energy consumption, validating the need to evaluate efficiency beyond FLOPs. Code is available at https://github.com/novendrastywn/MicroViT.

视觉变换器边缘计算轻量化能效优化

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