Investigate an Intelligent Vehicle Domain Adaptation Object Detection Algorithm Based on Self-Training and Adversarial Training

There are evident data distribution differences between the source domain and the target domain, posing challenges such as domain shift and label space shift in domain adaptive object detection. Currently, mainstream methods employ differential and adversarial strategies to achieve domain alignment. Differential strategies suffer from issues like high computational complexity and sensitivity to hyperparameters, while adversarial strategies are prone to interference from background noise and object position variations.Furthermore, some approaches attempt domain adaptation based on these strategies, such as using pseudo-labels for self-training. However, self-training methods often rely on high-confidence predictions as pseudo-labels in unlabeled domains. Due to potential calibration issues during domain transfer, the accuracy of these high-confidence predictions cannot be guaranteed. This paper proposes a collaborative framework based on self-training and adversarial training, guided by uncertainty, achieving a balance between adversarial feature alignment and self-training. Extensive experimental validation across various domain adaptation scenarios demonstrates the effectiveness of our framework on anchor-free FCOS detectors with different backbone networks compared to existing algorithms.

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Publication Details

Published
2024-10-25
DOI
https://doi.org/10.1109/cvci63518.2024.10830263
Primary Topic
Advanced Neural Network Applications
Type
article
Field-Weighted Citation Impact
0.00

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article

Investigate an Intelligent Vehicle Domain Adaptation Object Detection Algorithm Based on Self-Training and Adversarial Training

Gang He, Qi Ma, Ke Wang, C. N. Shen
Advanced Neural Network Applications
article

Investigate an Intelligent Vehicle Domain Adaptation Object Detection Algorithm Based on Self-Training and Adversarial Training

Gang He, Qi Ma, Ke Wang, C. N. Shen
article en

Abstract

There are evident data distribution differences between the source domain and the target domain, posing challenges such as domain shift and label space shift in domain adaptive object detection. Currently, mainstream methods employ differential and adversarial strategies to achieve domain alignment. Differential strategies suffer from issues like high computational complexity and sensitivity to hyperparameters, while adversarial strategies are prone to interference from background noise and object position variations.Furthermore, some approaches attempt domain adaptation based on these strategies, such as using pseudo-labels for self-training. However, self-training methods often rely on high-confidence predictions as pseudo-labels in unlabeled domains. Due to potential calibration issues during domain transfer, the accuracy of these high-confidence predictions cannot be guaranteed. This paper proposes a collaborative framework based on self-training and adversarial training, guided by uncertainty, achieving a balance between adversarial feature alignment and self-training. Extensive experimental validation across various domain adaptation scenarios demonstrates the effectiveness of our framework on anchor-free FCOS detectors with different backbone networks compared to existing algorithms.

Chongqing University (CN), State Key Laboratory of Vehicle NVH and Safety Technology (CN)
National Key Research and Development Program of China
Openalex Percentile: Top 74%
Advanced Neural Network Applications
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