Mask focal loss: a unifying framework for dense crowd counting with canonical object detection networks

As a fundamental computer vision task, crowd counting plays an important role in public safety. Currently, deep learning based head detection is a promising method for crowd counting. However, the highly concerned object detection networks cannot be well applied to this problem for three reasons: (1...

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Veröffentlicht in:Multimedia tools and applications 2024-01, Vol.83 (27), p.70571-70593
Hauptverfasser: Zhong, Xiaopin, Wang, Guankun, Liu, Weixiang, Wu, Zongze, Deng, Yuanlong
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container_issue 27
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container_title Multimedia tools and applications
container_volume 83
creator Zhong, Xiaopin
Wang, Guankun
Liu, Weixiang
Wu, Zongze
Deng, Yuanlong
description As a fundamental computer vision task, crowd counting plays an important role in public safety. Currently, deep learning based head detection is a promising method for crowd counting. However, the highly concerned object detection networks cannot be well applied to this problem for three reasons: (1) Existing loss functions fail to address sample imbalance in highly dense and complex scenes; (2) Canonical object detectors lack spatial coherence in loss calculation, disregarding the relationship between object location and background region; (3) Most of the head detection datasets are only annotated with the center points, i.e. without bounding boxes. To overcome these issues, we propose a novel Mask Focal Loss (MFL) based on heatmap via the Gaussian kernel. MFL provides a unifying framework for the loss functions based on both heatmap and binary feature map ground truths. Additionally, we introduce GTA_Head, a synthetic dataset with comprehensive annotations, for evaluation and comparison. Extensive experimental results demonstrate the superior performance of our MFL across various detectors and datasets, and it can reduce MAE and RMSE by up to 47.03% and 61.99%, respectively. Therefore, our work presents a strong foundation for advancing crowd counting methods based on density estimation.
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subjects Annotations
Computer Communication Networks
Computer Science
Computer vision
Data Structures and Information Theory
Datasets
Deep learning
Detectors
Feature maps
Multimedia
Multimedia Information Systems
Object recognition
Pedestrians
Public safety
Sensors
Special Purpose and Application-Based Systems
Statistical analysis
Synthetic data
Track 6: Computer Vision for Multimedia Applications
title Mask focal loss: a unifying framework for dense crowd counting with canonical object detection networks
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