This repository contains the code used to quantitatively evaluate counterfactual examples in the associated paper.

Overview

On Quantitative Evaluations of Counterfactuals

Install

To install required packages with conda, run the following command:

> conda env create -f requirements.yml

Code

The code contains all the evaluation metrics used in the paper as well as the models and the data.

To evaluate methods, you need to choose a config from the configs directory and to choose which metric to apply. The code will then evaluate the chosen metrics on counterfactuals from all three methods (GB, GL, GEN) and store the results in an appropriate subdirectory in outputs. If you, e.g., want to run all metrics on the MNIST dataset, use the following command:

(cfeval) > python main.py --eval -c configs/mnist/mnist.ini -a

Afterwards you can enumerate the directory by

(cfeval) > python main.py --list

to get an output like the following:

> Listing dirs
000: ./output/celeba_makeup_[0]
001: ./output/fake_mnist_[0]
002: ./output/mnist_0_1_[0]
003: ./output/mnist_[0]

Now, results can be printed for the MNIST dataset (idx 3 above) by

(cfeval) > python main.py --print -c 3 

To get a result like

# # # # # # # # # # # # # # # # # # # # 
# MNIST
# # # # # # # # # # # # # # # # # # # # 
Method \ Metric    TargetClassValidity    ElasticNet    IM1          IM2             FID  Oracle
-----------------  ---------------------  ------------  -----------  -----------  ------  ------------
GB                 99.59 (0.13)           16.07 (0.18)  0.99 (0.00)  0.55 (0.01)   50.23  73.38 (0.87)
GL                 100.00 (0.00)          42.76 (0.31)  0.99 (0.00)  0.53 (0.00)  308.43  37.71 (0.95)
GEN                99.97 (0.03)           99.17 (0.58)  0.88 (0.00)  0.17 (0.00)   90.73  93.13 (0.50)

Directory overview:

File Description
ckpts Contains all the (Keras) models used by the various metrics.
data Contains the data used, both counterfactual examples from GB, GL, and GEN, and original input data.
configs Contains config files specifying experimental details like dataset, normalization, etc.
data Contains the data in numpy arrays.
dataset Code for loading data.
evaluate Implementations of all the metrics.
output Directory to hold computed results. Directory already contains results from paper.
config.py Reads config files from configs
constants.py Method and metric names.
listing.py Utility for indexing output dirs (see description below)
main.py Main file to run all code through.
print_results.py Utillity function for printing results from json files in the output directory.
Owner
Frederik Hvilshøj
PhD Student. Finishing PhD in Machine Learning Fall 2021.
Frederik Hvilshøj
[CVPR 2022] CoTTA Code for our CVPR 2022 paper Continual Test-Time Domain Adaptation

CoTTA Code for our CVPR 2022 paper Continual Test-Time Domain Adaptation Prerequisite Please create and activate the following conda envrionment. To r

Qin Wang 87 Jan 08, 2023
Learning Time-Critical Responses for Interactive Character Control

Learning Time-Critical Responses for Interactive Character Control Abstract This code implements the paper Learning Time-Critical Responses for Intera

Movement Research Lab 227 Dec 31, 2022
Repositório para arquivos sobre o Módulo 1 do curso Top Coders da Let's Code + Safra

850-Safra-DS-ModuloI Repositório para arquivos sobre o Módulo 1 do curso Top Coders da Let's Code + Safra Para aprender mais Git https://learngitbranc

Brian Nunes 7 Dec 10, 2022
Unified Pre-training for Self-Supervised Learning and Supervised Learning for ASR

UniSpeech The family of UniSpeech: UniSpeech (ICML 2021): Unified Pre-training for Self-Supervised Learning and Supervised Learning for ASR UniSpeech-

Microsoft 282 Jan 09, 2023
LiDAR Distillation: Bridging the Beam-Induced Domain Gap for 3D Object Detection

LiDAR Distillation Paper | Model LiDAR Distillation: Bridging the Beam-Induced Domain Gap for 3D Object Detection Yi Wei, Zibu Wei, Yongming Rao, Jiax

Yi Wei 75 Dec 22, 2022
Official PyTorch implemention of our paper "Learning to Rectify for Robust Learning with Noisy Labels".

WarPI The official PyTorch implemention of our paper "Learning to Rectify for Robust Learning with Noisy Labels". Run python main.py --corruption_type

Haoliang Sun 3 Sep 03, 2022
Adversarial Framework for (non-) Parametric Image Stylisation Mosaics

Fully Adversarial Mosaics (FAMOS) Pytorch implementation of the paper "Copy the Old or Paint Anew? An Adversarial Framework for (non-) Parametric Imag

Zalando Research 120 Dec 24, 2022
Multi-objective gym environments for reinforcement learning.

MO-Gym: Multi-Objective Reinforcement Learning Environments Gym environments for multi-objective reinforcement learning (MORL). The environments follo

Lucas Alegre 74 Jan 03, 2023
Dense Deep Unfolding Network with 3D-CNN Prior for Snapshot Compressive Imaging, ICCV2021 [PyTorch Code]

Dense Deep Unfolding Network with 3D-CNN Prior for Snapshot Compressive Imaging, ICCV2021 [PyTorch Code]

Jian Zhang 20 Oct 24, 2022
Super-Fast-Adversarial-Training - A PyTorch Implementation code for developing super fast adversarial training

Super-Fast-Adversarial-Training This is a PyTorch Implementation code for develo

LBK 26 Dec 02, 2022
Direct Multi-view Multi-person 3D Human Pose Estimation

Implementation of NeurIPS-2021 paper: Direct Multi-view Multi-person 3D Human Pose Estimation [paper] [video-YouTube, video-Bilibili] [slides] This is

Sea AI Lab 251 Dec 30, 2022
StyleGAN - Official TensorFlow Implementation

StyleGAN — Official TensorFlow Implementation Picture: These people are not real – they were produced by our generator that allows control over differ

NVIDIA Research Projects 13.1k Jan 09, 2023
A collection of 100 Deep Learning images and visualizations

A collection of Deep Learning images and visualizations. The project has been developed by the AI Summer team and currently contains almost 100 images.

AI Summer 65 Sep 12, 2022
Neural Style and MSG-Net

PyTorch-Style-Transfer This repo provides PyTorch Implementation of MSG-Net (ours) and Neural Style (Gatys et al. CVPR 2016), which has been included

Hang Zhang 904 Dec 21, 2022
Implementations of polygamma, lgamma, and beta functions for PyTorch

lgamma Implementations of polygamma, lgamma, and beta functions for PyTorch. It's very hacky, but that's usually ok for research use. To build, run: .

Rachit Singh 24 Nov 09, 2021
Qlib is an AI-oriented quantitative investment platform

Qlib is an AI-oriented quantitative investment platform, which aims to realize the potential, empower the research, and create the value of AI technologies in quantitative investment.

Microsoft 10.1k Dec 30, 2022
Code for the paper "Reinforced Active Learning for Image Segmentation"

Reinforced Active Learning for Image Segmentation (RALIS) Code for the paper Reinforced Active Learning for Image Segmentation Dependencies python 3.6

Arantxa Casanova 79 Dec 19, 2022
Pytorch Code for "Medical Transformer: Gated Axial-Attention for Medical Image Segmentation"

Medical-Transformer Pytorch Code for the paper "Medical Transformer: Gated Axial-Attention for Medical Image Segmentation" About this repo: This repo

Jeya Maria Jose 615 Dec 25, 2022
Classification of ecg datas for disease detection

ecg_classification Classification of ecg datas for disease detection

Atacan ÖZKAN 5 Sep 09, 2022
This repository attempts to replicate the SqueezeNet architecture and implement the same on an image classification task.

SqueezeNet-Implementation This repository attempts to replicate the SqueezeNet architecture using TensorFlow discussed in the research paper: "Squeeze

Rohan Mathur 3 Dec 13, 2022