Flow Guidance Deformable Compensation Network for Video Frame Interpolation
被引:2
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作者:
Lei, Pengcheng
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East China Normal Univ, Sch Comp Sci & Technol, Shanghai 200062, Peoples R China
East China Normal Univ, KLATASDS MOE, Shanghai 200062, Peoples R ChinaEast China Normal Univ, Sch Comp Sci & Technol, Shanghai 200062, Peoples R China
Lei, Pengcheng
[1
,2
]
Fang, Faming
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机构:
East China Normal Univ, Sch Comp Sci & Technol, Shanghai 200062, Peoples R China
East China Normal Univ, KLATASDS MOE, Shanghai 200062, Peoples R ChinaEast China Normal Univ, Sch Comp Sci & Technol, Shanghai 200062, Peoples R China
Fang, Faming
[1
,2
]
Zeng, Tieyong
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Chinese Univ Hong Kong, Dept Math, Shenzhen 518172, Peoples R ChinaEast China Normal Univ, Sch Comp Sci & Technol, Shanghai 200062, Peoples R China
Zeng, Tieyong
[3
]
Zhang, Guixu
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East China Normal Univ, Sch Comp Sci & Technol, Shanghai 200062, Peoples R China
East China Normal Univ, KLATASDS MOE, Shanghai 200062, Peoples R ChinaEast China Normal Univ, Sch Comp Sci & Technol, Shanghai 200062, Peoples R China
Zhang, Guixu
[1
,2
]
机构:
[1] East China Normal Univ, Sch Comp Sci & Technol, Shanghai 200062, Peoples R China
[2] East China Normal Univ, KLATASDS MOE, Shanghai 200062, Peoples R China
[3] Chinese Univ Hong Kong, Dept Math, Shenzhen 518172, Peoples R China
Flow-based and deformable convolution (DConv)-based methods are two mainstream approaches for solving the video frame interpolation (VFI) problem, which have made remarkable progress with the development of deep convolutional networks over the past years. However, flow-based VFI methods often suffer from the inaccuracy of flow map estimation, especially in dealing with complex and irregular real-world motions. DConv-based VFI methods have advantages in handling complex motions, while the increased degree of freedom makes the training of the DConv model difficult. To address these problems, in this article, we propose a flow guidance deformable compensation network (FGDCN) for the VFI task. FGDCN decomposes the frame sampling process into two steps: a flow step and a deformation step. Specifically, the flow step utilizes a coarse-to-fine flow estimation network to directly estimate the intermediate flows and synthesizes an anchor frame simultaneously. To ensure the accuracy of the estimated flow, a distillation loss and a task-oriented loss are jointly employed in this step. Under the guidance of the flow priors learned in step one, the deformation step designs a new pyramid deformable compensation network to compensate for the missing details of the flow step. In addition, a pyramid loss is proposed to supervise the model in both the image and frequency domains. Experimental results show that the proposed algorithm achieves excellent performance on various datasets with fewer parameters.