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Self-Supervised Real-time Video Stabilization
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Self-Supervised Real-time Video Stabilization
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Videos are a popular media form, where online video streaming has recently gathered much popularity. In this work, we propose a novel method of real-time video stabilization - transforming a shaky video to a stabilized video as if it were stabilized via gimbals in real-time. Our framework is trainable in a self-supervised manner, which does not require data captured with special hardware setups (i.e., two cameras on a stereo rig or additional motion sensors). Our framework consists of a transformation estimator between given frames for global stability adjustments, followed by scene parallax reduction module via spatially smoothed optical flow for further stability. Then, a margin inpainting module fills in the missing margin regions created during stabilization to reduce the amount of post-cropping. These sequential steps reduce distortion and margin cropping to a minimum while enhancing stability. Hence, our approach outperforms state-of-the-art real-time video stabilization methods as well as offline methods that require camera trajectory optimization. Our method procedure takes approximately 24.3 ms yielding 41 fps regardless of resolution (e.g., 480p or 1080p).
Forward citations
Cited by 2 Pith papers
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Doctoral Thesis: Geometric Deep Learning For Camera Pose Prediction, Registration, Depth Estimation, and 3D Reconstruction
A PhD thesis showing that adding geometric priors (skyline, normals, focus cues, wavelet depth) to deep networks improves pose estimation, registration, depth prediction, and reconstruction.
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Harnessing Meta-Learning for Controllable Full-Frame Video Stabilization
Meta-learned test-time adaptation, focused on the shakiest parts of a video, improves the stability and quality of full-frame neural video stabilizers.
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