Motion Estimation via Scale-Space in Unsupervised Deep Learning

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초록

We present a potential application of the conventional scale-space theory to the estimation of optical flow in the deep learning framework. An unsupervised learning scheme for the computation of optical flow is integrated with a Gaussian scale space. The hierarchical propagation of intermediate estimations via a consecutive scales demonstrates a potential in the course of optimization leading to a better local minimum. The landscape of loss function associated with an optical flow problem in a neural network framework is highly complex and non-convex, which requires to guild the optimization path in such a way that a solution at a plateau region. The qualitative comparison of the optical flow solutions via a Gaussian scale-space provides the characteristics of solutions at different scales, thus provides a way to take into consideration of scales in further improving accuracy. © 2021 IEEE.

키워드

learning via scale space; unsupervised optical flow estimation; Backpropagation; Computation theory; Motion estimation; Optical flows; Gaussian scale space; Learning frameworks; Local minimums; Loss functions; Network frameworks; Plateau region; Scale spaces; Scale-space theory; Deep learning
제목
Motion Estimation via Scale-Space in Unsupervised Deep Learning
저자
Kim, J.; Derbel, B.; Hong, B.-W.
DOI
10.1109/ICOIN50884.2021.9334004
발행일
2021-01
유형
Conference Paper
저널명
International Conference on Information Networking
권
2021-January
페이지
730 ~ 731