Enhancing video frame interpolation with region of motion loss and self-attention mechanisms: A dual approach to address large, nonlinear motions

Video frame interpolation is particularly challenging when dealing with large and non-linear object motions, often resulting in poor frame quality and motion artifacts. In this study, we introduce a novel dual-approach methodology for video frame interpolation that effectively addresses these complexities. Our method consists of two key components: a Region of Motion (RoM) loss and self-attention mechanisms. The RoM loss is designed to spotlight significant movements within frames. This is achieved by employing feature-matching techniques that assign tailored weights during the training process, ensuring that areas of intense motion are given priority. This is facilitated by the computation of optical flow, which identifies crucial feature points and highlights regions of significant motion for targeted enhancement. Our method incorporates self-attention mechanisms to maintain inter-frame continuity while emphasizing the unique attributes of individual frames. The self-attention scores reduce motion discrepancies and enhance the distinctiveness and texture quality of each frame. We validate the efficacy of our approach through extensive evaluations on benchmark datasets, including Vimeo-90K, Middlebury, UCF101, and SNU-Film. • We present an innovative approach to video frame interpolation for large, nonlinear object motions. • A RoM loss mechanism is proposed to enhance model focus on regions of significant motion intensity. • Self-attention scores enhance the model’s understanding of frame area interrelationships. • Our method is efficient and optimized for single-GPU use, ensuring broad accessibility.

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Publication Details

Journal
Neurocomputing
Published
2024-11-07
DOI
https://doi.org/10.1016/j.neucom.2024.128728
Citations
3
Primary Topic
Advanced Vision and Imaging
Type
article
Field-Weighted Citation Impact
0.75
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article

Enhancing video frame interpolation with region of motion loss and self-attention mechanisms: A dual approach to address large, nonlinear motions

Joonki Paik, Yeongjoon Kim, Sunkyu Kwon, Donggoo Kang et al.
3 citations
Neurocomputing
Advanced Vision and Imaging
0.75
article

Enhancing video frame interpolation with region of motion loss and self-attention mechanisms: A dual approach to address large, nonlinear motions

Joonki Paik, Yeongjoon Kim, Sunkyu Kwon, Donggoo Kang, Hyunmin Lee
article en
3 citations

Abstract

Video frame interpolation is particularly challenging when dealing with large and non-linear object motions, often resulting in poor frame quality and motion artifacts. In this study, we introduce a novel dual-approach methodology for video frame interpolation that effectively addresses these complexities. Our method consists of two key components: a Region of Motion (RoM) loss and self-attention mechanisms. The RoM loss is designed to spotlight significant movements within frames. This is achieved by employing feature-matching techniques that assign tailored weights during the training process, ensuring that areas of intense motion are given priority. This is facilitated by the computation of optical flow, which identifies crucial feature points and highlights regions of significant motion for targeted enhancement. Our method incorporates self-attention mechanisms to maintain inter-frame continuity while emphasizing the unique attributes of individual frames. The self-attention scores reduce motion discrepancies and enhance the distinctiveness and texture quality of each frame. We validate the efficacy of our approach through extensive evaluations on benchmark datasets, including Vimeo-90K, Middlebury, UCF101, and SNU-Film. • We present an innovative approach to video frame interpolation for large, nonlinear object motions. • A RoM loss mechanism is proposed to enhance model focus on regions of significant motion intensity. • Self-attention scores enhance the model’s understanding of frame area interrelationships. • Our method is efficient and optimized for single-GPU use, ensuring broad accessibility.

NeurocomputingVol. 614
Chung-Ang University (KR)
Openalex Percentile: Top 27%
Advanced Vision and Imaging
0.75
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