CLIP-ViT Detector: Side Adapter with Prompt for Vision Transformer Object Detection

Object detection represents a fundamental and pivotal task within the domain of computer vision, which has attracted considerable interest in approaches that directly utilize Vision Transformer (ViT) to perform region-level recognition. However, despite the efforts of early pioneers in exploring vanilla ViT detectors, a significant performance disparity remains. Addressing this limitation, in this work, we propose an ViT-based detector to further enhance the ability of plain ViT in object detection by incorporating a frozen vision-language large model. Specifically, to boost the ViT detector with the frozen CLIP model, we construct ViT-based Side Prompt-Adapter Tuning, which align and fine-tune CLIP features without requiring gradients to flow through CLIP to provide additional rich semantic information for the ViT detector. Furthermore, a CLIP-based visual token selection module is proposed to leverage fine-tuned CLIP features to filter out irrelevant background visual tokens, resulting in decreased computational complexity and memory usage of the ViT-based detector. Additionally, we introduce query denoising training and adapt the position embeddings to further enhance training efficiency. Compared to the latest ViT-based detector, experimental results show that our method converges 3× faster and achieves promising performance.

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Publication Details

Published
2024-12-20
DOI
https://doi.org/10.1109/acai63924.2024.10899669
Primary Topic
CCD and CMOS Imaging Sensors
Type
article
Field-Weighted Citation Impact
0.00

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article

CLIP-ViT Detector: Side Adapter with Prompt for Vision Transformer Object Detection

Erkang Cheng, Bo Song, Minxia Xu, Zhiyong Sun et al.
CCD and CMOS Imaging Sensors
article

CLIP-ViT Detector: Side Adapter with Prompt for Vision Transformer Object Detection

Erkang Cheng, Bo Song, Minxia Xu, Zhiyong Sun, Han Yang
article en

Abstract

Object detection represents a fundamental and pivotal task within the domain of computer vision, which has attracted considerable interest in approaches that directly utilize Vision Transformer (ViT) to perform region-level recognition. However, despite the efforts of early pioneers in exploring vanilla ViT detectors, a significant performance disparity remains. Addressing this limitation, in this work, we propose an ViT-based detector to further enhance the ability of plain ViT in object detection by incorporating a frozen vision-language large model. Specifically, to boost the ViT detector with the frozen CLIP model, we construct ViT-based Side Prompt-Adapter Tuning, which align and fine-tune CLIP features without requiring gradients to flow through CLIP to provide additional rich semantic information for the ViT detector. Furthermore, a CLIP-based visual token selection module is proposed to leverage fine-tuned CLIP features to filter out irrelevant background visual tokens, resulting in decreased computational complexity and memory usage of the ViT-based detector. Additionally, we introduce query denoising training and adapt the position embeddings to further enhance training efficiency. Compared to the latest ViT-based detector, experimental results show that our method converges 3× faster and achieves promising performance.

Chinese Academy of Sciences (CN), Institute of Intelligent Machines (CN), University of Chinese Academy of Sciences (CN)
National Natural Science Foundation of China
Affordable and clean energy
Openalex Percentile: Top 74%
CCD and CMOS Imaging Sensors
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