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π Abstract
Abstract: Motion blur caused by camera shake, particularly under large or rotational
movements, remains a major challenge in image restoration. We propose a deep
learning framework that jointly estimates the latent sharp image and the
underlying camera motion trajectory from a single blurry image. Our method
leverages the Projective Motion Blur Model (PMBM), implemented efficiently
using a differentiable blur creation module compatible with modern networks. A
neural network predicts a full 3D rotation trajectory, which guides a
model-based restoration network trained end-to-end. This modular architecture
provides interpretability by revealing the camera motion that produced the
blur. Moreover, this trajectory enables the reconstruction of the sequence of
sharp images that generated the observed blurry image. To further refine
results, we optimize the trajectory post-inference via a reblur loss, improving
consistency between the blurry input and the restored output. Extensive
experiments show that our method achieves state-of-the-art performance on both
synthetic and real datasets, particularly in cases with severe or spatially
variant blur, where end-to-end deblurring networks struggle.
Code and trained models are available at
https://github.com/GuillermoCarbajal/Blur2Seq/
Authors (3)
Guillermo Carbajal
AndrΓ©s Almansa
Pablo MusΓ©
Submitted
October 23, 2025
Key Contributions
Proposes a deep learning framework that jointly estimates the latent sharp image and camera motion trajectory from a single motion-blurred image using the Projective Motion Blur Model (PMBM). The modular architecture, featuring a differentiable blur module and end-to-end training, allows for interpretability of camera motion and reconstruction of the original sharp image sequence, further refined by a post-inference reblur loss.
Business Value
Enables recovery of high-quality images and videos from challenging capture conditions, improving content creation, forensic analysis, and data acquisition for autonomous systems.