# Deep Online Video Stabilization

**Authors:** Miao Wang, Guo-Ye Yang, Jin-Kun Lin, Ariel Shamir, Song-Hai Zhang,, Shao-Ping Lu, Shi-Min Hu

arXiv: 1802.08091 · 2018-02-23

## TL;DR

This paper introduces StabNet, a deep neural network for real-time video stabilization that learns frame transformations without explicit camera path modeling, outperforming traditional methods in speed and robustness.

## Contribution

The paper presents the first deep learning-based online video stabilization method capable of real-time performance and robustness to challenging conditions.

## Key findings

- Runs approximately 30 times faster than traditional offline methods.
- Effectively stabilizes night-time and blurry videos.
- Achieves comparable stabilization quality to offline methods.

## Abstract

Video stabilization technique is essential for most hand-held captured videos due to high-frequency shakes. Several 2D-, 2.5D- and 3D-based stabilization techniques are well studied, but to our knowledge, no solutions based on deep neural networks had been proposed. The reason for this is mostly the shortage of training data, as well as the challenge of modeling the problem using neural networks. In this paper, we solve the video stabilization problem using a convolutional neural network (ConvNet). Instead of dealing with offline holistic camera path smoothing based on feature matching, we focus on low-latency real-time camera path smoothing without explicitly representing the camera path. Our network, called StabNet, learns a transformation for each input unsteady frame progressively along the time-line, while creating a more stable latent camera path. To train the network, we create a dataset of synchronized steady/unsteady video pairs via a well designed hand-held hardware. Experimental results shows that the proposed online method (without using future frames) performs comparatively to traditional offline video stabilization methods, while running about 30 times faster. Further, the proposed StabNet is able to handle night-time and blurry videos, where existing methods fail in robust feature matching.

## Full text

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## Figures

8 figures with captions in the complete paper: https://tomesphere.com/paper/1802.08091/full.md

## References

40 references — full list in the complete paper: https://tomesphere.com/paper/1802.08091/full.md

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Source: https://tomesphere.com/paper/1802.08091