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CoDiff: Conditional Diffusion Model for Collaborative 3D Object Detection

Created by
  • Haebom

Author

Zhe Huang, Shuo Wang, Yongcai Wang, Lei Wang

Outline

This paper proposes CoDiff, a novel framework for improving collaborative 3D object detection performance in multi-agent systems. Existing collaborative 3D object detection methods generate feature representations containing spatial and temporal noise due to pose estimation errors and time delays, resulting in poor detection performance. CoDiff leverages a diffusion model to address these issues. It projects high-dimensional feature maps into the latent space of a pre-trained autoencoder and guides the sampling of the diffusion model based on information from each agent, thereby removing noise and improving the fused features. Experimental results using simulations and real-world datasets demonstrate that CoDiff outperforms existing methods in collaborative object detection and is robust even in the presence of high levels of noise in the agent pose and delay information.

Takeaways, Limitations

Takeaways:
We achieve improved collaborative 3D object detection performance by applying the diffusion model to multi-agent collaborative recognition for the first time.
We present a collaborative object detection framework that is robust to detail and time delay errors.
It demonstrates superior performance compared to existing methods on real and simulated datasets.
We have improved the reproducibility and usability of our research by releasing open source code.
Limitations:
The performance improvements of CoDiff presented in this paper may be limited to specific datasets and environments.
Diffusion models can be computationally expensive and may have limitations for real-time applications.
A more in-depth analysis of robustness to various types of noise is needed.
Performance evaluation in more diverse and complex environments is required.
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