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摘要: 边界框回归分支是深度目标跟踪器的关键模块, 其性能直接影响跟踪器的精度. 评价精度的指标之一是交并比(Intersection over union, IoU). 基于IoU的损失函数取代了
$ \ell_n $ -norm损失成为目前主流的边界框回归损失函数, 然而IoU损失函数存在2个固有缺陷: 1)当预测框与真值框不相交时IoU为常量 0, 无法梯度下降更新边界框的参数; 2)在IoU取得最优值时其梯度不存在, 边界框很难收敛到 IoU 最优处. 揭示了在回归过程中IoU最优的边界框各参数之间蕴含的定量关系, 指出在边界框中心处于特定位置时存在多种尺寸不同的边界框使IoU损失最优的情况, 这增加了边界框尺寸回归的不确定性. 从优化两个统计分布之间散度的视角看待边界框回归问题, 提出了光滑IoU (Smooth-IoU, SIoU)损失, 即构造了在全局上光滑(即连续可微)且极值唯一的损失函数, 该损失函数自然蕴含边界框各参数之间特定的最优关系, 其唯一取极值的边界框可使IoU达到最优. 光滑性确保了在全局上梯度存在使得边界框更容易回归到极值处, 而极值唯一确保了在全局上可梯度下降更新参数, 从而避开了IoU损失的固有缺陷. 提出的光滑损失可以很容易取代IoU损失集成到现有的深度目标跟踪器上训练边界框回归, 在 LaSOT、GOT-10k、TrackingNet、OTB2015和VOT2018测试基准上所取得的结果, 验证了光滑IoU损失的易用性和有效性.-
关键词:
- 光滑IoU损失 /
- $ \ell_n $ -norm损失 /
- 边界框回归 /
- 目标跟踪
Abstract: The branch of bounding box regression is a critical module in visual object trackers, and its performance directly affects accuracy of a tracker. One of evaluation metrics used to measure accuracy is intersection over union (IoU). The IoU loss which was proposed to replace$ \ell_n $ -norm loss for bounding box regression is increasingly popular. However, there are two inherent issues in IoU loss: One is that the parameters of bounding box can not be updated via gradient descent if the predicted box does not intersect with ground-truth box; the other is the gradient of the optimal IoU does not exist, so it is difficult to make the predicted box regressed to the IoU optimum. We reveal the explicit relationship among the parameters of IoU optimal bounding box in regression process, and point out that the size of a predicted box which makes IoU loss optimal is not unique when its center is in specific areas, increasing the uncertainty of bounding box regression. From the perspective of optimizing divergence between two distributions, we propose a smooth-IoU (SIoU) loss, which is a globally smooth (continuously differentiable) loss function with unique extremum. The smooth-IoU loss naturally implicates a specific optimal relationship among the parameters of bounding box, and its gradient over the global domain exists, making it easier to regress the predicted box to the extremal bounding box, and the unique extremum ensures that the parameters can be updated via gradient descent. In addition, the proposed smooth-IoU loss can be easily incorporated into existing trackers by replacing the IoU-based loss to train bounding box regression. Extensive experiments on visual tracking benchmarks including LaSOT, GOT-10k, TrackingNet, OTB2015, and VOT2018 demonstrate that smooth-IoU loss achieves state-of-the-art performance, confirming its effectiveness and efficiency.-
Key words:
- Smooth-IoU loss /
- $ \ell_n $-norm loss /
- bounding box regression /
- visual tracking
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图 1 深度目标跟踪模型的边界框回归示意图
Fig. 1 The schematic of bounding box regression in deep tracking model
图 2 边界框类比为正态分布的示意图
Fig. 2 The schematic of bounding box analogized as Gaussian distribution
图 3
${\cal{L}}_{{\rm{IoU}}}$ 和${\cal{L}}_{{\rm{SIoU}}}$ 在对数坐标下的可视化图像示例Fig. 3 A visualized example of
${\cal{L}}_{{\rm{SIoU}}}$ and${\cal{L}}_{{\rm{IoU}}}$ viewed in the logarithmic scale of horizontal axis
图 4 当
$ d_{\cal{H}}>2 $ 时最优化${\cal{L}}_{{\rm{SIoU}}}$ 和${\cal{L}}_{{\rm{IoU}}}$ 的边界框示例Fig. 4 Illustration of predicted box that minimizes
${\cal{L}}_{{\rm{SIoU}}}$ and${\cal{L}}_{{\rm{IoU}}}$ if$ d_{\cal{H}}>2 $ 
图 5 正则项
${\cal{R}}_{{S}}$ 的图像示例Fig. 5 Illustration of regularization
${\cal{R}}_{{S}}$ 
图 6 不同参数
$ \lambda $ 下$ |x| $ 的光滑代理函数${\cal A}_\lambda(x)$ Fig. 6 Plot of smooth surrogate function
${\cal A}_\lambda(x)$ for$ |x| $ with different$ \lambda $ controlling its shape
图 7 梯度截断后的
${\cal{L}}_{{\rm{SIoU}}}$ 可视化示例Fig. 7 A visualized example of
${\cal{L}}_{{\rm{SIoU}}}$ with truncated gradient
图 8 从两种分布中采样近距离和远距离的初始预测框位置
Fig. 8 Sample the initial predicted boxes subject to normal distribution with short and longmean-variance
图 9 各种边界框回归损失比较
Fig. 9 Comparison among the convergence performance of different bounding box regression losses
图 10 不同迭代次数的
$ {\cal{L}}_{{\rm{GIoU}}} $ 、$ {\cal{L}}_{{\rm{CIoU}}} $ 和$ {\cal{L}}_{{\rm{SIoU}}} $ 的回归示例Fig. 10 Illustration of predicted boxes via
$ {\cal{L}}_{{\rm{GIoU}}} $ ,$ {\cal{L}}_{{\rm{CIoU}}} $ and$ {\cal{L}}_{{\rm{SIoU}}} $ regressing in different iterations
图 11 在LaSOT测试集上, 分别以
$ {\cal{L}}_{{\rm{IoU}}} $ (点线框标出)和$ {\cal{L}}_{{\rm{SIoU}}} $ (虚线框标出)训练的模型 SiamFC++ 的可视化结果示例 (实线框为真值标签)Fig. 11 Visualized tracking results of SiamFC++trained using
$ {\cal{L}}_{{\rm{IoU}}} $ (marked in dotted box) and$ {\cal{L}}_{{\rm{SIoU}}} $ (marked in dashed box) on LaSOT(solid box denotes groundtruth)
图 12 在LaSOT上评估成功率、精确率和标准化精确率结果
Fig. 12 Success plot with area under the curve, precision plot and normalized precision plot on LaSOT
表 1 在基准 LaSOT 上, 分别以
$ {\cal{L}}_{{\rm{IoU}}} $ (原本的)和$ {\cal{L}}_{{\rm{SIoU}}} $ 训练的模型 SiamFC++的测试结果(%)Table 1 Comparison between the performance of SiamFC++ trained using
$ {\cal{L}}_{{\rm{IoU}}} $ (original),$ {\cal{L}}_{{\rm{SIoU}}} $ on the test set of LaSOT (%)评价指标 成功率 精确度 标准化精确度 ${\cal{L} }_{{\rm{IoU}}}$ 55.6 55.5 64.8 ${\cal{L} }_{{\rm{SIoU}}}$ 57.6 58.3 66.9 相对增益 3.60 5.05 3.24 
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表 2 在基准LaSOT上, 分别以
$ {\cal{L}}_{{\rm{IoU}}} $ (原本的)和$ {\cal{L}}_{{\rm{SIoU}}} $ 训练的模型SiamBAN的测试对比(%)Table 2 Comparison between the performance of SiamBAN trained using
$ {\cal{L}}_{{\rm{IoU}}} $ (original),$ {\cal{L}}_{{\rm{SIoU}}} $ on the test set of LaSOT (%)评价指标 成功率 精确度 标准化精确度 ${\cal{L} }_{{\rm{IoU}}}$ 51.4 52.1 59.8 ${\cal{L} }_{{\rm{SIoU}}}$ 54.3 53.9 63.3 相对增益 5.64 3.45 4.85
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表 3 在基准LaSOT上, 分别以
$ {\cal{L}}_{{\rm{IoU}}} $ (原本的)和$ {\cal{L}}_{{\rm{SIoU}}} $ 训练模型SiamCAR的测试对比(%)Table 3 Comparison between the performance of SiamCAR trained using
$ {\cal{L}}_{{\rm{IoU}}} $ (original),$ {\cal{L}}_{{\rm{SIoU}}} $ on the test set of LaSOT (%)评价指标 成功率 精确率 标准化精确率 ${\cal{L} }_{{\rm{IoU}}}$ 51.6 52.4 61.0 ${\cal{L} }_{{\rm{SIoU}}}$ 54.9 54.8 63.1 相对增益 6.39 4.58 3.44
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表 4 在基准LaSOT上, 与先进方法的性能评估对比
Table 4 Performance evaluation for state-of-the-artalgorithms on LaSOT
方法 成功率 精确率 标准化精确率 SiamBAN 51.4 52.1 59.8 ATOM 51.5 50.5 57.6 SiamCAR 51.6 52.4 61.0 SiamRPN++ 49.6 49.1 56.9 Ocean-online 56.0 56.6 65.1 SiamFC++ 55.6 55.5 64.8 DiMP 56.8 56.4 64.3 SiamBAN (SIoU) 54.3 53.9 63.3 SiamCAR (SIoU) 54.2 53.7 63.1 SiamFC++ (SIoU) 57.6 58.3 66.9
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表 5 在GOT-10k上, 分别以
$ {\cal{L}}_{{\rm{IoU}}} $ (原本的)和$ {\cal{L}}_{{\rm{SIoU}}} $ 训练的模型SiamFC++ 测试对比(%)Table 5 Comparison between the performance of SiamFC++ trained using
$ {\cal{L}}_{{\rm{IoU}}} $ (original),$ {\cal{L}}_{{\rm{SIoU}}} $ on the test set of GOT-10k (%)评价指标 $ {\rm{AO}} $ ${\rm{SR} }_{0.50}$ ${\rm{SR} }_{0.75}$ ${\cal{L} }_{{\rm{IoU}}}$ 59.5 69.5 47.9 ${\cal{L} }_{{\rm{SIoU}}}$ 61.7 74.7 46.8 相对增益 3.69 7.48 −2.29
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表 6 在GOT-10k上, 分别以
$ {\cal{L}}_{{\rm{IoU}}} $ (原本的)和$ {\cal{L}}_{{\rm{SIoU}}} $ 训练的模型SiamCAR测试结果(%)Table 6 Comparison between the performance of SiamCAR trained using
$ {\cal{L}}_{{\rm{IoU}}} $ (original),$ {\cal{L}}_{{\rm{SIoU}}} $ on the test set of GOT-10k (%)评价指标 $ {\rm{AO}} $ ${\rm{SR} }_{0.50}$ ${\rm{SR} }_{0.75}$ ${\cal{L} }_{{\rm{IoU}}}$ 58.1 68.3 44.1 ${\cal{L} }_{{\rm{SIoU}}}$ 60.2 72.6 46.4 相对增益 3.61 6.29 5.22
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表 7 在基准GOT-10k上, 与先进方法的性能评估对比 (%)
Table 7 Performance evaluation for state-of-the-artalgorithms on GOT-10k (%)
方法 $ {\rm{AO}} $ ${\rm{SR} }_{0.50}$ MDNet 29.9 30.3 SPM 51.3 59.3 ATOM 55.6 63.4 SiamCAR 56.9 67.0 SiamRPN++ 51.7 61.8 Ocean-online 61.1 72.1 D3S 59.7 67.6 SiamFC++ 59.5 69.5 DiMP-50 61.1 71.2 SiamCAR (SIoU) 60.2 72.6 SiamFC++ (SIoU) 61.7 74.7
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表 8 在TrackingNet上, 分别以
$ {\cal{L}}_{{\rm{IoU}}} $ (原本的)和$ {\cal{L}}_{{\rm{SIoU}}} $ 训练的模型SiamFC++的测试结果(%)Table 8 Comparison between the performance of SiamFC++ trained using
$ {\cal{L}}_{{\rm{IoU}}} $ (original),$ {\cal{L}}_{{\rm{SIoU}}} $ on the test of TrackingNet (%)评价指标 精确率 标准化精确率 成功率 ${\cal{L} }_{\rm{{IoU}}}$ 70.5 80.0 75.4 ${\cal{L} }_{{\rm{SIoU}}}$ 72.1 81.9 76.2 相对增益 2.27 2.37 1.06
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表 9 在基准TrackingNet上, 与先进方法的性能评估对比 (%)
Table 9 Performance evaluation for state-of-the-artalgorithms on TrackingNet (%)
方法 成功率 标准化精确率 MDNet 60.6 70.5 ATOM 70.3 77.1 DaSiamRPN 63.8 73.3 SiamRPN++ 73.3 80.0 UpdateNet 67.7 75.2 SPM 71.2 77.8 SiamFC++ 75.4 80.0 DiMP 74.0 80.1 SiamFC++ (SIoU) 76.2 81.9
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表 10 在OTB2015上, 分别以
$ {\cal{L}}_{{\rm{IoU}}} $ (原本的)和$ {\cal{L}}_{{\rm{SIoU}}} $ 训练的模型SiamFC++ 的测试结果 (%)Table 10 Comparison between the performance of SiamFC++ trained using
$ {\cal{L}}_{{\rm{IoU}}} $ (original),$ {\cal{L}}_{{\rm{SIoU}}} $ on the test of OTB2015 (%)评价指标 成功率 标准化精确率 ${\cal{L} }_{ {\rm{IoU} } }$ 68.2 89.5 ${\cal{L} }_{{\rm{SIoU}}}$ 68.7 89.8 相对增益 0.74 0.34
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表 11 在OTB2015上, 分别以
$ {\cal{L}}_{{\rm{IoU}}} $ (原本的)和$ {\cal{L}}_{{\rm{SIoU}}} $ 训练的模型SiamBAN测试结果 (%)Table 11 Comparison between the performance of SiamBAN trained using
$ {\cal{L}}_{{\rm{IoU}}} $ (original),$ {\cal{L}}_{{\rm{SIoU}}} $ on on the test of OTB2015 (%)评价指标 成功率 标准化精确率 ${\cal{L} }_{ {\rm{IoU} } }$ 69.6 91.0 ${\cal{L} }_{{\rm{SIoU}}}$ 69.9 91.5 相对增益 0.43 0.55
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表 12 在VOT2018上, 分别以
$ {\cal{L}}_{{\rm{IoU}}} $ (原本的)和$ {\cal{L}}_{{\rm{SIoU}}} $ 训练的模型SiamFC++ 测试结果(%)Table 12 Comparison between the performance of SiamFC++ trained using
$ {\cal{L}}_{{\rm{IoU}}} $ (original),$ {\cal{L}}_{{\rm{SIoU}}} $ on on the test of VOT2018 (%)评价指标 ${\rm{准确率} }$ ${\rm{鲁棒性} }$ ${ {\rm{EAO} } }$ ${\cal{L} }_{{\rm{IoU}}}$ 0.586 0.201 0.427 ${\cal{L} }_{{\rm{SIoU}}}$ 0.582 0.196 0.400
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表 13 在基准LaSOT 上, 与其他基于IoU损失训练得到的满足不同IoU阈值的测试集图像帧数占比的对比结果 (%)
Table 13 Comparison results with other IoU-based loss for the ratio of frames exceeding different IoU thresholdson the test set of LaSOT (%)
IoU阈值 ≥ 0.95 ≥ 0.90 ≥ 0.85 ≥ 0.80 ≥ 0.75 ≥ 0.70 ≥ 0.65 ≥ 0.60 ≥ 0.55 ≥ 0.50 SiamFC++ (SIoU) 2.75 15.93 31.83 44.05 52.33 57.71 61.71 64.41 66.52 68.14 SiamFC++ (DIoU) 1.60 13.19 29.72 42.84 51.48 57.09 61.28 64.17 66.31 67.95 SiamFC++ (GIoU) 2.45 16.18 31.10 42.26 50.39 55.81 59.56 62.37 64.58 66.34 SiamFC++ 1.52 12.73 29.10 41.90 50.20 55.63 59.72 62.51 64.68 66.31 SiamBAN (SIoU) 1.18 10.79 24.86 36.64 45.50 51.87 56.45 60.03 62.77 64.84 SiamBAN (GIoU) 1.49 11.77 24.71 35.15 44.77 50.79 54.93 57.76 60.70 63.98 SiamBAN 1.98 12.89 25.40 35.57 43.46 49.29 53.38 56.53 58.92 60.78 SiamCAR (SIoU) 1.20 10.80 24.81 36.74 45.75 52.29 56.97 60.71 63.53 65.66 SiamCAR (DIoU) 1.20 10.91 25.10 36.62 45.04 51.47 56.18 59.89 62.70 64.83 SiamCAR 1.27 10.62 23.90 35.98 44.93 50.87 55.08 57.86 59.94 61.61
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表 14 在基准GOT-10k上, 与其他基于IoU损失训练得到的满足不同IoU阈值的测试集图像帧数占比的对比结果 (%)
Table 14 Comparison results with other IoU-based loss for the ratio of frames exceeding different IoU thresholdson the test set of GOT-10k (%)
IoU阈值 ≥ 0.95 ≥ 0.90 ≥ 0.85 ≥ 0.80 ≥ 0.75 ≥ 0.70 ≥ 0.65 ≥ 0.60 ≥ 0.55 ≥ 0.50 SiamFC++ (SIoU) 0.94 8.18 22.01 35.76 46.83 55.71 62.16 67.40 71.39 74.68 SiamFC++ (DIoU) 0.72 7.56 21.10 35.11 46.86 55.45 61.68 66.82 70.74 73.86 SiamFC++ (GIoU) 0.97 7.20 21.80 34.19 45.85 54.50 59.24 63.48 66.02 69.49 SiamCAR (SIoU) 0.94 8.58 22.20 35.83 46.46 54.74 60.66 65.49 69.30 72.62 SiamCAR (GIoU) 1.13 6.72 19.23 34.78 45.37 53.73 59.98 64.96 68.95 71.96 SiamCAR (DIoU) 0.92 6.19 18.85 32.54 43.73 52.51 58.86 64.04 68.09 71.33 SiamCAR 0.81 8.02 20.76 33.88 44.07 51.87 57.21 61.35 64.99 68.31
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表 15 在GOT-10k上, 对
${\cal{L}}_{{\rm{SIoU}}}$ 的正则项和代理函数的消融实验(%)Table 15 Ablation studies about the regulariztion and surrogate function on GOT-10k (%)
评价指标 $ {\rm{AO}} $ ${\rm{SR} }_{0.50}$ ${\rm{SR} }_{0.75}$ ${\cal{L} }_{ {\rm{SIoU} } }\;({\rm{w/o} } \, {\cal {AR} })$ 59.9 72.1 46.3 ${\cal{L} }_{ {\rm{SIoU} } }\; ({\rm{w/} } \;{ \cal{AR} })$ 61.7 74.7 46.8 相对增益 3.01 3.61 1.08 ${\cal{L} }_{ {\rm{SIoU} } }\;({\rm{w/} } \;{\cal {R} })$ 61.4 74.5 46.7 相对增益 2.51 3.33 0.86 ${\cal{L} }_{ {\rm{SIoU} } } \;({\rm{w/} } \;{ {\cal A} }_2)$ 60.3 72.6 46.5 相对增益 0.67 0.69 0.43 ${\cal{L} }_{ {\rm{SIoU} } }\; ({\rm{w/} } \;{ {\cal A} }_4)$ 60.6 73.4 46.3 相对增益 1.17 1.80 0 ${\cal{L} }_{ {\rm{SIoU} } }\; ({\rm{w/} } \;{ {\cal A} }_8)$ 60.4 73.4 46.0 相对增益 0.83 1.80 −0.65 ${\cal{L} }_{ {\rm{SIoU} } }\; ({\rm{w/} } \;{ {\cal A} }_1)$ 58.9 71.3 43.7 相对增益 −1.17 −1.11 −5.62
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