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Exploring the Temporal Consistency of Arbitrary Style Transfer: A Channelwise Perspective
Summary
Neural networks for video stylization often flicker. This study introduces a multichannel correlation network (MCCNet) to align frames, reducing flickering and improving temporal consistency in style transfer.
Area of Science:
- Computer Vision
- Artificial Intelligence
- Machine Learning
Background:
- Neural style transfer is popular for images, but extending it to videos causes flickering.
- Existing methods struggle with temporal consistency, leading to artifacts like flickering in stylized videos.
Purpose of the Study:
- To analyze the cause of flickering in neural video stylization.
- To propose a novel method that ensures temporal consistency and reduces flickering.
Main Methods:
- Analyzed feature migration modules in state-of-the-art (SOTA) systems, identifying channelwise misalignment as a cause of flickering.
- Developed a multichannel correlation network (MCCNet) for direct frame alignment in feature space.
- Introduced an inner channel similarity loss and an illumination loss to enhance alignment and performance.
Main Results:
- MCCNet effectively aligns output frames with input frames in the hidden feature space.
- The proposed losses mitigate side effects and improve performance under varying light conditions.
- Evaluations show MCCNet achieves high performance in arbitrary video and image style transfer.
Conclusions:
- MCCNet successfully addresses the temporal inconsistency and flickering issues in neural video stylization.
- The method offers a simple yet efficient solution for high-quality arbitrary video style transfer.
- This work provides a robust approach for generating temporally consistent stylized videos.
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