Official PyTorch implementation of the paper: DeepSIM: Image Shape Manipulation from a Single Augmented Training Sample

Overview

DeepSIM: Image Shape Manipulation from a Single Augmented Training Sample (ICCV 2021 Oral)

Project | Paper

Official PyTorch implementation of the paper: "DeepSIM: Image Shape Manipulation from a Single Augmented Training Sample".

DeepSIM: Given a single real training image (b) and a corresponding primitive representation (a), our model learns to map between the primitive (a) to the target image (b). At inference, the original primitive (a) is manipulated by the user. Then, the manipulated primitive is passed through the network which outputs a corresponding manipulated image (e) in the real image domain.


DeepSIM was trained on a single training pair, shown to the left of each sample. First row "face" output- (left) flipping eyebrows, (right) lifting nose. Second row "dog" output- changing shape of dog's hat, removing ribbon, and making face longer. Second row "car" output- (top) adding wheel, (bottom) conversion to sports car.


DeepSIM: Image Shape Manipulation from a Single Augmented Training Sample
Yael Vinker*, Eliahu Horwitz*, Nir Zabari, Yedid Hoshen
*Equal contribution
https://arxiv.org/pdf/2007.01289

Abstract: We present DeepSIM, a generative model for conditional image manipulation based on a single image. We find that extensive augmentation is key for enabling single image training, and incorporate the use of thin-plate-spline (TPS) as an effective augmentation. Our network learns to map between a primitive representation of the image to the image itself. The choice of a primitive representation has an impact on the ease and expressiveness of the manipulations and can be automatic (e.g. edges), manual (e.g. segmentation) or hybrid such as edges on top of segmentations. At manipulation time, our generator allows for making complex image changes by modifying the primitive input representation and mapping it through the network. Our method is shown to achieve remarkable performance on image manipulation tasks.

Getting Started

Setup

  1. Clone the repo:
git clone https://github.com/eliahuhorwitz/DeepSIM.git
cd DeepSIM
  1. Create a new environment and install the libraries:
python3.7 -m venv deepsim_venv
source deepsim_venv/bin/activate
pip install -r requirements.txt


Training

The input primitive used for training should be specified using --primitive and can be one of the following:

  1. "seg" - train using segmentation only
  2. "edges" - train using edges only
  3. "seg_edges" - train using a combination of edges and segmentation
  4. "manual" - could be anything (for example, a painting)

For the chosen option, a suitable input file should be provided under /"train_" (e.g. ./datasets/car/train_seg). For automatic edges, you can leave the "train_edges" folder empty, and an edge map will be generated automatically. Note that for the segmentation primitive option, you must verify that the input at test time fits exactly the input at train time in terms of colors.

To train on CPU please specify --gpu_ids '-1'.

  • Train DeepSIM on the "face" video using both edges and segmentations (bash ./scripts/train_face_vid_seg_edges.sh):
#!./scripts/train_face_vid_seg_edges.sh
python3.7 ./train.py --dataroot ./datasets/face_video --primitive seg_edges --no_instance --tps_aug 1 --name DeepSIMFaceVideo
  • Train DeepSIM on the "car" image using segmentation only (bash ./scripts/train_car_seg.sh):
#!./scripts/train_car_seg.sh
python3.7 ./train.py --dataroot ./datasets/car --primitive seg --no_instance --tps_aug 1 --name DeepSIMCar
  • Train DeepSIM on the "face" image using edges only (bash ./scripts/train_face_edges.sh):
#!./scripts/train_face_edges.sh
python3.7 ./train.py --dataroot ./datasets/face --primitive edges --no_instance --tps_aug 1 --name DeepSIMFace

Testing

  • Test DeepSIM on the "face" video using both edges and segmentations (bash ./scripts/test_face_vid_seg_edges.sh):
#!./scripts/test_face_vid_seg_edges.sh
python3.7 ./test.py --dataroot ./datasets/face_video --primitive seg_edges --phase "test" --no_instance --name DeepSIMFaceVideo --vid_mode 1 --test_canny_sigma 0.5
  • Test DeepSIM on the "car" image using segmentation only (bash ./scripts/test_car_seg.sh):
#!./scripts/test_car_seg.sh
python3.7 ./test.py --dataroot ./datasets/car --primitive seg --phase "test" --no_instance --name DeepSIMCar
  • Test DeepSIM on the "face" image using edges only (bash ./scripts/test_face_edges.sh):
#!./scripts/test_face_edges.sh
python3.7 ./test.py --dataroot ./datasets/face --primitive edges --phase "test" --no_instance --name DeepSIMFace

Additional Augmentations

As shown in the supplementary, adding augmentations on top of TPS may lead to better results

  • Train DeepSIM on the "face" video using both edges and segmentations with sheer, rotations, "cutmix", and canny sigma augmentations (bash ./scripts/train_face_vid_seg_edges_all_augmentations.sh):
#!./scripts/train_face_vid_seg_edges_all_augmentations.sh
python3.7 ./train.py --dataroot ./datasets/face_video --primitive seg_edges --no_instance --tps_aug 1 --name DeepSIMFaceVideoAugmentations --cutmix_aug 1 --affine_aug "shearx_sheary_rotation" --canny_aug 1
  • When using edges or seg_edges, it may be beneficial to have white edges instead of black ones, to do so add the --canny_color 1 option
  • Check ./options/base_options.py for more augmentation related settings
  • When using edges or seg_edges and adding edges manually at test time, it may be beneficial to apply "skeletonize" (e.g skimage skeletonize )on the edges in order for them to resemble the canny edges

More Results

Top row - primitive images. Left - original pair used for training. Center- switching the positions between the two rightmost cars. Right- removing the leftmost car and inpainting the background.


The leftmost column shows the source image, then each column demonstrate the result of our model when trained on the specified primitive. We manipulated the image primitives, adding a right eye, changing the point of view and shortening the beak. Our results are presented next to each manipulated primitive. The combined primitive performed best on high-level changes (e.g. the eye), and low-level changes (e.g. the background).


On the left is the training image pair, in the middle are the manipulated primitives and on the right are the manipulated outputs- left to right: dress length, strapless, wrap around the neck.

Single Image Animation

Animation to Video

Video to Animation

Citation

If you find this useful for your research, please use the following.

@InProceedings{Vinker_2021_ICCV,
    author    = {Vinker, Yael and Horwitz, Eliahu and Zabari, Nir and Hoshen, Yedid},
    title     = {Image Shape Manipulation From a Single Augmented Training Sample},
    booktitle = {Proceedings of the IEEE/CVF International Conference on Computer Vision (ICCV)},
    month     = {October},
    year      = {2021},
    pages     = {13769-13778}
}

Acknowledgments

Repository for "Improving evidential deep learning via multi-task learning," published in AAAI2022

Improving evidential deep learning via multi task learning It is a repository of AAAI2022 paper, “Improving evidential deep learning via multi-task le

deargen 11 Nov 19, 2022
A certifiable defense against adversarial examples by training neural networks to be provably robust

DiffAI v3 DiffAI is a system for training neural networks to be provably robust and for proving that they are robust. The system was developed for the

SRI Lab, ETH Zurich 202 Dec 13, 2022
GAN encoders in PyTorch that could match PGGAN, StyleGAN v1/v2, and BigGAN. Code also integrates the implementation of these GANs.

MTV-TSA: Adaptable GAN Encoders for Image Reconstruction via Multi-type Latent Vectors with Two-scale Attentions. This is the official code release fo

owl 37 Dec 24, 2022
A distributed, plug-n-play algorithm for multi-robot applications with a priori non-computable objective functions

A distributed, plug-n-play algorithm for multi-robot applications with a priori non-computable objective functions Kapoutsis, A.C., Chatzichristofis,

Athanasios Ch. Kapoutsis 5 Oct 15, 2022
PURE: End-to-End Relation Extraction

PURE: End-to-End Relation Extraction This repository contains (PyTorch) code and pre-trained models for PURE (the Princeton University Relation Extrac

Princeton Natural Language Processing 657 Jan 09, 2023
ML-Decoder: Scalable and Versatile Classification Head

ML-Decoder: Scalable and Versatile Classification Head Paper Official PyTorch Implementation Tal Ridnik, Gilad Sharir, Avi Ben-Cohen, Emanuel Ben-Baru

189 Jan 04, 2023
This is the pytorch implementation of the paper - Axiomatic Attribution for Deep Networks.

Integrated Gradients This is the pytorch implementation of "Axiomatic Attribution for Deep Networks". The original tensorflow version could be found h

Tianhong Dai 150 Dec 23, 2022
Model Zoo for MindSpore

Welcome to the Model Zoo for MindSpore In order to facilitate developers to enjoy the benefits of MindSpore framework, we will continue to add typical

MindSpore 226 Jan 07, 2023
[ICLR 2022] DAB-DETR: Dynamic Anchor Boxes are Better Queries for DETR

DAB-DETR This is the official pytorch implementation of our ICLR 2022 paper DAB-DETR. Authors: Shilong Liu, Feng Li, Hao Zhang, Xiao Yang, Xianbiao Qi

336 Dec 25, 2022
An attempt at the implementation of Glom, Geoffrey Hinton's new idea that integrates neural fields, predictive coding, top-down-bottom-up, and attention (consensus between columns)

GLOM - Pytorch (wip) An attempt at the implementation of Glom, Geoffrey Hinton's new idea that integrates neural fields, predictive coding,

Phil Wang 173 Dec 14, 2022
Read Like Humans: Autonomous, Bidirectional and Iterative Language Modeling for Scene Text Recognition

Read Like Humans: Autonomous, Bidirectional and Iterative Language Modeling for Scene Text Recognition The official code of ABINet (CVPR 2021, Oral).

334 Dec 31, 2022
Library of deep learning models and datasets designed to make deep learning more accessible and accelerate ML research.

Tensor2Tensor Tensor2Tensor, or T2T for short, is a library of deep learning models and datasets designed to make deep learning more accessible and ac

12.9k Jan 09, 2023
Pytorch implementation of MaskGIT: Masked Generative Image Transformer

Pytorch implementation of MaskGIT: Masked Generative Image Transformer

Dominic Rampas 247 Dec 16, 2022
The implementation for paper Joint t-SNE for Comparable Projections of Multiple High-Dimensional Datasets.

Joint t-sne This is the implementation for paper Joint t-SNE for Comparable Projections of Multiple High-Dimensional Datasets. abstract: We present Jo

IDEAS Lab 7 Dec 18, 2022
HDMapNet: A Local Semantic Map Learning and Evaluation Framework

HDMapNet_devkit Devkit for HDMapNet. HDMapNet: A Local Semantic Map Learning and Evaluation Framework Qi Li, Yue Wang, Yilun Wang, Hang Zhao [Paper] [

Tsinghua MARS Lab 421 Jan 04, 2023
Notes taking website build with Docker + Django + React.

Notes website. Try it in browser! / But how to run? Description. This is monorepository with notes website. Website provides web interface for creatin

Kirill Zhosul 2 Jul 27, 2022
A curated list of awesome resources related to Semantic Search🔎 and Semantic Similarity tasks.

A curated list of awesome resources related to Semantic Search🔎 and Semantic Similarity tasks.

224 Jan 04, 2023
Trash Sorter Extraordinaire is a software which efficiently detects the different types of waste in a pile of random trash through feeding it pictures or videos.

Trash-Sorter-Extraordinaire Trash Sorter Extraordinaire is a software which efficiently detects the different types of waste in a pile of random trash

Rameen Mahmood 1 Nov 07, 2021
The code for replicating the experiments from the LFI in SSMs with Unknown Dynamics paper.

Likelihood-Free Inference in State-Space Models with Unknown Dynamics This package contains the codes required to run the experiments in the paper. Th

Alex Aushev 0 Dec 27, 2021
Official repository of my book: "Deep Learning with PyTorch Step-by-Step: A Beginner's Guide"

This is the official repository of my book "Deep Learning with PyTorch Step-by-Step". Here you will find one Jupyter notebook for every chapter in the book.

Daniel Voigt Godoy 340 Jan 01, 2023