Crowd occlusion and background noise in crowd images from different scenes negatively affect the training and prediction of crowd counting network. We design a novel network structure (SABCrowd), based on scale aggregation and background suppression, which uses VGG19 and Transformer as the base framework. To address the crowd occlusion problem, we design a scale aggregation block to capture and fuse feature information from different scales, enabling more comprehensive detection of occluded regions. To tackle background interference, we design a background weakening block that generates a background attention mask to help remove background noise. Additionally, we design a multichannel attention block to enhance the dependency between different channels. By conducting experiments on several current mainstream and complex datasets, namely ShanghaiTech, UCF-QNRF, JHU++, and NWPU, the final result demonstrate that our proposed method achieves Excellent prediction accuracy.

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SABCrowd: Scale Aggregation and Background Weakening in Crowd Counting

  • Lingling Zi,
  • Mingchao Jia,
  • Wei Liang,
  • Zhenhui Li,
  • Zhang Cheng

摘要

Crowd occlusion and background noise in crowd images from different scenes negatively affect the training and prediction of crowd counting network. We design a novel network structure (SABCrowd), based on scale aggregation and background suppression, which uses VGG19 and Transformer as the base framework. To address the crowd occlusion problem, we design a scale aggregation block to capture and fuse feature information from different scales, enabling more comprehensive detection of occluded regions. To tackle background interference, we design a background weakening block that generates a background attention mask to help remove background noise. Additionally, we design a multichannel attention block to enhance the dependency between different channels. By conducting experiments on several current mainstream and complex datasets, namely ShanghaiTech, UCF-QNRF, JHU++, and NWPU, the final result demonstrate that our proposed method achieves Excellent prediction accuracy.