CDFI: Compression-Driven Network Design for Frame Interpolation

被引:47
|
作者
Ding, Tianyu [1 ,4 ]
Liang, Luming [2 ]
Zhu, Zhihui [3 ]
Zharkov, Ilya [2 ]
机构
[1] Johns Hopkins Univ, Baltimore, MD 21218 USA
[2] Microsoft, Redmond, WA 98052 USA
[3] Univ Denver, Denver, CO 80208 USA
[4] Microsoft, Appl Sci Grp, Redmond, WA 98052 USA
关键词
D O I
10.1109/CVPR46437.2021.00791
中图分类号
TP18 [人工智能理论];
学科分类号
081104 ; 0812 ; 0835 ; 1405 ;
摘要
DNN-based frame interpolation-that generates the intermediate frames given two consecutive frames-typically relies on heavy model architectures with a huge number of features, preventing them from being deployed on systems with limited resources, e.g., mobile devices. We propose a compression-driven network design for frame interpolation (CDFI), that leverages model pruning through sparsity-inducing optimization to significantly reduce the model size while achieving superior performance. Concretely, we first compress the recently proposed AdaCoF model and show that a 10x compressed AdaCoF performs similarly as its original counterpart; then we further improve this compressed model by introducing a multi-resolution warping module, which boosts visual consistencies with multi-level details. As a consequence, we achieve a significant performance gain with only a quarter in size compared with the original AdaCoE Moreover, our model performs favorably against other state-of-the-arts in a broad range of datasets. Finally, the proposed compression-driven framework is generic and can be easily transferred to other DNN-based frame interpolation algorithm.
引用
收藏
页码:7997 / 8007
页数:11
相关论文
共 50 条
  • [1] A compression-driven test access mechanism design approach
    Gonciari, PT
    Al-Hashimi, BM
    [J]. ETS 2004: NINTH IEEE EUROPEAN TEST SYMPOSIUM, PROCEEDINGS, 2004, : 100 - 105
  • [2] Compression-Driven Progress in Science
    Pape, Leo
    [J]. ARTRIFICIAL GENERAL INTELLIGENCE, AGI 2010, 2010, 10 : 192 - 193
  • [3] Compression-driven collapse of nanotubes
    Li, Hao
    Li, Ming
    Li, Fengwei
    Kang, Zhan
    [J]. NANOTECHNOLOGY, 2020, 31 (02)
  • [4] An analytical model for turbulent compression-driven heat transfer
    Cantelmi, FJ
    Gedeon, D
    Kornhauser, AA
    [J]. JOURNAL OF HEAT TRANSFER-TRANSACTIONS OF THE ASME, 1998, 120 (03): : 617 - 623
  • [5] Examination of the performance of a compression-driven adsorption cooling cycle
    Sward, BK
    LeVan, MD
    [J]. APPLIED THERMAL ENGINEERING, 1999, 19 (01) : 1 - 20
  • [6] IBVC: Interpolation-driven B-frame video compression
    Xu, Chenming
    Liu, Meiqin
    Yao, Chao
    Lin, Weisi
    Zhao, Yao
    [J]. Pattern Recognition, 2024, 153
  • [7] Compression-driven migration of nanoparticles in semiflexible polymer brushes
    Hua, Yunfeng
    Zhang, Dong
    Zhang, Linxi
    [J]. POLYMER, 2016, 83 : 67 - 76
  • [8] Compression-Driven Internanocluster Reaction for Synthesis of Unconventional Gold Nanoclusters
    Gan, Zibao
    Xia, Nan
    Yan, Nan
    Zhuang, Shengli
    Dong, Jingwu
    Zhao, Yan
    Jiang, Shuqing
    Tao, Qiang
    Wu, Zhikun
    [J]. ANGEWANDTE CHEMIE-INTERNATIONAL EDITION, 2021, 60 (22) : 12253 - 12257
  • [9] Compression-driven jamming of athermal frictionless spherocylinders in two dimensions
    Marschall, Theodore
    Teitel, S.
    [J]. PHYSICAL REVIEW E, 2018, 97 (01)
  • [10] Compression-driven viscous fingering in a radial Hele-Shaw cell
    Cuttle, Callum
    Morrow, Liam C.
    Macminn, Christopher W.
    [J]. PHYSICAL REVIEW FLUIDS, 2023, 8 (11)