Alert button

"Image": models, code, and papers
Alert button

Compositional Video Prediction

Aug 22, 2019
Yufei Ye, Maneesh Singh, Abhinav Gupta, Shubham Tulsiani

Figure 1 for Compositional Video Prediction
Figure 2 for Compositional Video Prediction
Figure 3 for Compositional Video Prediction
Figure 4 for Compositional Video Prediction
Viaarxiv icon

Regularization by architecture: A deep prior approach for inverse problems

Dec 10, 2018
Sören Dittmer, Tobias Kluth, Peter Maass, Daniel Otero Baguer

Figure 1 for Regularization by architecture: A deep prior approach for inverse problems
Figure 2 for Regularization by architecture: A deep prior approach for inverse problems
Figure 3 for Regularization by architecture: A deep prior approach for inverse problems
Figure 4 for Regularization by architecture: A deep prior approach for inverse problems
Viaarxiv icon

An Approximate Shading Model with Detail Decomposition for Object Relighting

Apr 20, 2018
Zicheng Liao, Kevin Karsch, Hongyi Zhang, David Forsyth

Figure 1 for An Approximate Shading Model with Detail Decomposition for Object Relighting
Figure 2 for An Approximate Shading Model with Detail Decomposition for Object Relighting
Figure 3 for An Approximate Shading Model with Detail Decomposition for Object Relighting
Figure 4 for An Approximate Shading Model with Detail Decomposition for Object Relighting
Viaarxiv icon

Towards Flops-constrained Face Recognition

Sep 02, 2019
Yu Liu, Guanglu Song, Manyuan Zhang, Jihao Liu, Yucong Zhou, Junjie Yan

Figure 1 for Towards Flops-constrained Face Recognition
Figure 2 for Towards Flops-constrained Face Recognition
Figure 3 for Towards Flops-constrained Face Recognition
Figure 4 for Towards Flops-constrained Face Recognition
Viaarxiv icon

Adaptive Gradient Refinement for Adversarial Perturbation Generation

Feb 01, 2019
Yatie Xiao, Chi-Man Pun, Xia Du, Jizhe Zhou

Figure 1 for Adaptive Gradient Refinement for Adversarial Perturbation Generation
Figure 2 for Adaptive Gradient Refinement for Adversarial Perturbation Generation
Figure 3 for Adaptive Gradient Refinement for Adversarial Perturbation Generation
Figure 4 for Adaptive Gradient Refinement for Adversarial Perturbation Generation
Viaarxiv icon

GPU-based Image Analysis on Mobile Devices

Dec 14, 2011
Andrew Ensor, Seth Hall

Figure 1 for GPU-based Image Analysis on Mobile Devices
Figure 2 for GPU-based Image Analysis on Mobile Devices
Viaarxiv icon

Learning a Probabilistic Model for Diffeomorphic Registration

Dec 18, 2018
Julian Krebs, Hervé Delingette, Boris Mailhé, Nicholas Ayache, Tommaso Mansi

Figure 1 for Learning a Probabilistic Model for Diffeomorphic Registration
Figure 2 for Learning a Probabilistic Model for Diffeomorphic Registration
Figure 3 for Learning a Probabilistic Model for Diffeomorphic Registration
Figure 4 for Learning a Probabilistic Model for Diffeomorphic Registration
Viaarxiv icon

PT-MMD: A Novel Statistical Framework for the Evaluation of Generative Systems

Oct 28, 2019
Alexander Potapov, Ian Colbert, Ken Kreutz-Delgado, Alexander Cloninger, Srinjoy Das

Figure 1 for PT-MMD: A Novel Statistical Framework for the Evaluation of Generative Systems
Figure 2 for PT-MMD: A Novel Statistical Framework for the Evaluation of Generative Systems
Figure 3 for PT-MMD: A Novel Statistical Framework for the Evaluation of Generative Systems
Figure 4 for PT-MMD: A Novel Statistical Framework for the Evaluation of Generative Systems
Viaarxiv icon

AdvCodec: Towards A Unified Framework for Adversarial Text Generation

Dec 22, 2019
Boxin Wang, Hengzhi Pei, Han Liu, Bo Li

Figure 1 for AdvCodec: Towards A Unified Framework for Adversarial Text Generation
Figure 2 for AdvCodec: Towards A Unified Framework for Adversarial Text Generation
Figure 3 for AdvCodec: Towards A Unified Framework for Adversarial Text Generation
Figure 4 for AdvCodec: Towards A Unified Framework for Adversarial Text Generation
Viaarxiv icon

Reconstruction-Aware Imaging System Ranking by use of a Sparsity-Driven Numerical Observer Enabled by Variational Bayesian Inference

May 14, 2019
Yujia Chen, Yang Lou, Kun Wang, Matthew A. Kupinski, Mark A. Anastasio

Figure 1 for Reconstruction-Aware Imaging System Ranking by use of a Sparsity-Driven Numerical Observer Enabled by Variational Bayesian Inference
Figure 2 for Reconstruction-Aware Imaging System Ranking by use of a Sparsity-Driven Numerical Observer Enabled by Variational Bayesian Inference
Figure 3 for Reconstruction-Aware Imaging System Ranking by use of a Sparsity-Driven Numerical Observer Enabled by Variational Bayesian Inference
Figure 4 for Reconstruction-Aware Imaging System Ranking by use of a Sparsity-Driven Numerical Observer Enabled by Variational Bayesian Inference
Viaarxiv icon