水下目标检测的空间残差

Jingchun Zhou;Zongxin He;Dehuan Zhang;Siyuan Liu;Xianping Fu;Xuelong Li
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引用次数: 0

摘要

特征漂移是由目标特征与退化因素的动态耦合引起的,会降低水下探测器的性能。我们将特征漂移定义为求解偏微分方程时目标特征在边界约束下的不稳定性。基于这一见解,我们提出了空间残差(SR)块,该块使用SkipCut在求解偏微分方程的网络宽度上建立有效的约束,并优化了解空间。它被实现为具有5空间残差(BSR5)的通用骨干网,用于复杂的特征场景。具体来说,BSR5通过SkipCut提取离散通道切片,其中每个切片特征在适当的数据容量内被解析。在梯度反向传播中,SkipCut作为一种捷径,优化信息流和梯度分配,以提高性能和加速训练。在RUOD数据集上的实验表明,bsr5集成的DETRs和yolo在传统和端到端探测器上取得了最先进的结果。具体来说,我们的BSR5-DETR比使用ResNet-101的RT-DETR提高了1.3%和2.7%的AP,同时分别减少了41.6%和6.6%的参数。进一步的验证突出了BSR5强大的收敛性和鲁棒性,特别是在从头开始的训练场景中,使其非常适合数据稀缺,资源受限和实时任务。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Spatial Residual for Underwater Object Detection
Feature drift is caused by the dynamic coupling of target features and degradation factors, which reduce underwater detector performance. We redefine feature drift as the instability of target features within boundary constraints while solving partial differential equations (PDEs). From this insight, we propose the Spatial Residual (SR) block, which uses SkipCut to establish effective constraints across the network width for solving PDEs and optimizes the solution space. It is implemented as a general-purpose backbone with 5 Spatial Residuals (BSR5) for complex feature scenarios. Specifically, BSR5 extracts discrete channel slices through SkipCut, where each sliced feature is parsed within the appropriate data capacity. In gradient backpropagation, SkipCut functions as a ShortCut, optimizing information flow and gradient allocation to enhance performance and accelerate training. Experiments on the RUOD dataset show that BSR5-integrated DETRs and YOLOs achieve state-of-the-art results for conventional and end-to-end detectors. Specifically, our BSR5-DETR improves 1.3% and 2.7% AP than RT-DETR with ResNet-101, while reducing parameters by 41.6% and 6.6%, respectively. Further validation highlights BSR5's strong convergence and robustness, especially in training from scratch scenarios, making it well suited for data-scarce, resource-constrained, and real-time tasks.
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