CLIP-Joint-Detect: End-to-End Joint Training of Object Detectors with Contrastive Vision-Language Supervision
Behnam Raoufi, Hossein Sharify, Mohamad Mahdee Ramezanee, Khosrow Hajsadeghi, Saeed Bagheri Shouraki

TL;DR
CLIP-Joint-Detect introduces an end-to-end framework that enhances object detection by integrating contrastive vision-language supervision, improving accuracy across various architectures and datasets without sacrificing speed.
Contribution
It presents a detector-agnostic, joint training method that incorporates CLIP-style contrastive supervision into standard detection frameworks, boosting performance.
Findings
Significant accuracy improvements on Pascal VOC and MS COCO datasets.
Effective across both two-stage and one-stage detection architectures.
Maintains real-time inference speed while enhancing detection performance.
Abstract
Conventional object detectors rely on cross-entropy classification, which can be vulnerable to class imbalance and label noise. We propose CLIP-Joint-Detect, a simple and detector-agnostic framework that integrates CLIP-style contrastive vision-language supervision through end-to-end joint training. A lightweight parallel head projects region or grid features into the CLIP embedding space and aligns them with learnable class-specific text embeddings via InfoNCE contrastive loss and an auxiliary cross-entropy term, while all standard detection losses are optimized simultaneously. The approach applies seamlessly to both two-stage and one-stage architectures. We validate it on Pascal VOC 2007+2012 using Faster R-CNN and on the large-scale MS COCO 2017 benchmark using modern YOLO detectors (YOLOv11), achieving consistent and substantial improvements while preserving real-time inference…
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Taxonomy
TopicsAdvanced Neural Network Applications · Domain Adaptation and Few-Shot Learning · Adversarial Robustness in Machine Learning
