[WACV21] Code for our paper: Samuel, Atzmon and Chechik, "From Generalized zero-shot learning to long-tail with class descriptors"

Related tags

Deep LearningDRAGON
Overview

DRAGON: From Generalized zero-shot learning to long-tail with class descriptors

Paper
Project Website
Video

Overview

DRAGON learns to correct the bias towards head classes on a sample-by-sample basis; and fuse information from class-descriptions to improve the tail-class accuracy, as described in our paper: Samuel, Atzmon and Chechik, "From Generalized zero-shot learning to long-tail with class descriptors".

Requirements

  • numpy 1.15.4
  • pandas 0.25.3
  • scipy 1.1.0
  • tensorflow 1.14.0
  • keras 2.2.5

Quick installation under Anaconda:

conda env create -f requirements.yml

Data Preparation

Datasets: CUB, SUN and AWA.
Download data.tar from here, untar it and place it under the project root directory.

DRAGON
| data
   |--CUB
   |--SUN
   |--AWA1
| attribute_expert
| dataset_handler
| fusion
...

Train Experts and Fusion Module

Reproduce results for DRAGON and its modules (Table 1 in our paper):
Training and evaluation should be according to the training protocol described in our paper (Section 5 - training):

  1. First, train each expert without the hold-out set (partial training set) by executing the following commands:

    • CUB:
      # Visual-Expert training
      PYTHONPATH="./" python visual_expert/main.py --base_train_dir=./checkpoints/CUB --dataset_name=CUB --transfer_task=DRAGON --train_dist=dragon --data_dir=data --batch_size=64 --max_epochs=100 --initial_learning_rate=0.0003 --l2=0.005
      # Attribute-Expert training 
      PYTHONPATH="./" python attribute_expert/main.py --base_train_dir=./checkpoints/CUB --dataset_name=CUB --transfer_task=DRAGON --data_dir=data --train_dist=dragon --batch_size=64 --max_epochs=100 --initial_learning_rate=0.001 --LG_beta=1e-7 --LG_lambda=0.0001 --SG_gain=3 --SG_psi=0.01 --SG_num_K=-1
      
    • SUN:
      # Visual-Expert training
      PYTHONPATH="./" python visual_expert/main.py --base_train_dir=./checkpoints/SUN --dataset_name=SUN --transfer_task=DRAGON --train_dist=dragon --data_dir=data --batch_size=64 --max_epochs=100 --initial_learning_rate=0.0001 --l2=0.01
      # Attribute-Expert training 
      PYTHONPATH="./" python attribute_expert/main.py --base_train_dir=./checkpoints/SUN --dataset_name=SUN --transfer_task=DRAGON --data_dir=data --train_dist=dragon --batch_size=64 --max_epochs=100 --initial_learning_rate=0.001 --LG_beta=1e-6 --LG_lambda=0.001 --SG_gain=10 --SG_psi=0.01 --SG_num_K=-1
      
    • AWA:
      # Visual-Expert training
      PYTHONPATH="./" python visual_expert/main.py --base_train_dir=./checkpoints/AWA1 --dataset_name=AWA1 --transfer_task=DRAGON --train_dist=dragon --data_dir=data --batch_size=64 --max_epochs=100 --initial_learning_rate=0.0003 --l2=0.1
      # Attribute-Expert training 
      PYTHONPATH="./" python attribute_expert/main.py --base_train_dir=./checkpoints/AWA1 --dataset_name=AWA1 --transfer_task=DRAGON --data_dir=data --train_dist=dragon --batch_size=64 --max_epochs=100 --initial_learning_rate=0.001 --LG_beta=0.001 --LG_lambda=0.001 --SG_gain=1 --SG_psi=0.01 --SG_num_K=-1
      
  2. Then, re-train each expert, with the hold-out set (full train set) by executing above commands with the --test_mode flag as a parameter.

  3. Rename Visual-lr=0.0003_l2=0.005 to Visual and LAGO-lr=0.001_beta=1e-07_lambda=0.0001_gain=3.0_psi=0.01 to LAGO (this is essential since the FusionModule finds trained experts by their names, without extensions).

  4. Train the fusion-module on partially trained experts (models from step 1) by running the following commands:

    • CUB:
      PYTHONPATH="./" python fusion/main.py --base_train_dir=./checkpoints/CUB --dataset_name=CUB --data_dir=data --initial_learning_rate=0.005 --batch_size=64 --max_epochs=50 --sort_preds=1 --freeze_experts=1 --nparams=2
      
    • SUN:
      PYTHONPATH="./" python fusion/main.py --base_train_dir=./checkpoints/SUN --dataset_name=SUN --data_dir=data --initial_learning_rate=0.0005 --batch_size=64 --max_epochs=50 --sort_preds=1 --freeze_experts=1 --nparams=4
      
    • AWA:
      PYTHONPATH="./" python fusion/main.py --base_train_dir=./checkpoints/AWA1 --dataset_name=AWA1 --data_dir=data --initial_learning_rate=0.005 --batch_size=64 --max_epochs=50 --sort_preds=1 --freeze_experts=1 --nparams=4
      
  5. Finally, evaluate the fusion-module with fully-trained experts (models from step 2), by executing step 4 commands with the --test_mode flag as a parameter.

Pre-trained Models and Checkpoints

Download checkpoints.tar from here, untar it and place it under the project root directory.

checkpoints
  |--CUB
      |--Visual
      |--LAGO
      |--Dual2ParametricRescale-lr=0.005_freeze=1_sort=1_topk=-1_f=2_s=(2, 2)
  |--SUN
      |--Visual
      |--LAGO
      |--Dual4ParametricRescale-lr=0.0005_freeze=1_sort=1_topk=-1_f=2_s=(2, 2)
  |--AWA1
      |--Visual
      |--LAGO
      |--Dual4ParametricRescale-lr=0.005_freeze=1_sort=1_topk=-1_f=2_s=(2, 2)

Cite Our Paper

If you find our paper and repo useful, please cite:

@InProceedings{samuel2020longtail,
  author    = {Samuel, Dvir and Atzmon, Yuval and Chechik, Gal},
  title     = {From Generalized Zero-Shot Learning to Long-Tail With Class Descriptors},
  booktitle = {Proceedings of the IEEE/CVF Winter Conference on Applications of Computer Vision (WACV)},
  year      = {2021}}
Owner
Dvir Samuel
Dvir Samuel
Tensor-Based Quantum Machine Learning

TensorLy_Quantum TensorLy-Quantum is a Python library for Tensor-Based Quantum Machine Learning that builds on top of TensorLy and PyTorch. Website: h

TensorLy 85 Dec 03, 2022
My published benchmark for a Kaggle Simulations Competition

Lux AI Working Title Bot Please refer to the Kaggle notebook for the comment section. The comment section contains my explanation on my code structure

Tong Hui Kang 29 Aug 22, 2022
CT-Net: Channel Tensorization Network for Video Classification

[ICLR2021] CT-Net: Channel Tensorization Network for Video Classification @inproceedings{ li2021ctnet, title={{\{}CT{\}}-Net: Channel Tensorization Ne

33 Nov 15, 2022
A library that allows for inference on probabilistic models

Bean Machine Overview Bean Machine is a probabilistic programming language for inference over statistical models written in the Python language using

Meta Research 234 Dec 29, 2022
DeepMind Alchemy task environment: a meta-reinforcement learning benchmark

The DeepMind Alchemy environment is a meta-reinforcement learning benchmark that presents tasks sampled from a task distribution with deep underlying structure.

DeepMind 188 Dec 25, 2022
Disentangled Face Attribute Editing via Instance-Aware Latent Space Search, accepted by IJCAI 2021.

Instance-Aware Latent-Space Search This is a PyTorch implementation of the following paper: Disentangled Face Attribute Editing via Instance-Aware Lat

67 Dec 21, 2022
Theory-inspired Parameter Control Benchmarks for Dynamic Algorithm Configuration

This repo is for the paper: Theory-inspired Parameter Control Benchmarks for Dynamic Algorithm Configuration The DAC environment is based on the Dynam

Carola Doerr 1 Aug 19, 2022
Codes for TS-CAM: Token Semantic Coupled Attention Map for Weakly Supervised Object Localization.

TS-CAM: Token Semantic Coupled Attention Map for Weakly SupervisedObject Localization This is the official implementaion of paper TS-CAM: Token Semant

vasgaowei 112 Jan 02, 2023
Pytorch implementation of the paper "Optimization as a Model for Few-Shot Learning"

Optimization as a Model for Few-Shot Learning This repo provides a Pytorch implementation for the Optimization as a Model for Few-Shot Learning paper.

Albert Berenguel Centeno 238 Jan 04, 2023
PyTorch Implementation of Backbone of PicoDet

PicoDet-Backbone PyTorch Implementation of Backbone of PicoDet Original Implementation is implemented on PaddlePaddle. Example picodet_l_backbone = ES

Yonghye Kwon 7 Jul 12, 2022
This repository contains the code used for Predicting Patient Outcomes with Graph Representation Learning (https://arxiv.org/abs/2101.03940).

Predicting Patient Outcomes with Graph Representation Learning This repository contains the code used for Predicting Patient Outcomes with Graph Repre

Emma Rocheteau 76 Dec 22, 2022
End-To-End Optimization of LiDAR Beam Configuration

End-To-End Optimization of LiDAR Beam Configuration arXiv | IEEE Xplore This repository is the official implementation of the paper: End-To-End Optimi

Niclas 30 Nov 28, 2022
ML course - EPFL Machine Learning Course, Fall 2021

EPFL Machine Learning Course CS-433 Machine Learning Course, Fall 2021 Repository for all lecture notes, labs and projects - resources, code templates

EPFL Machine Learning and Optimization Laboratory 1k Jan 04, 2023
a Pytorch easy re-implement of "YOLOX: Exceeding YOLO Series in 2021"

A pytorch easy re-implement of "YOLOX: Exceeding YOLO Series in 2021" 1. Notes This is a pytorch easy re-implement of "YOLOX: Exceeding YOLO Series in

91 Dec 26, 2022
PyTorch version of Stable Baselines, reliable implementations of reinforcement learning algorithms.

PyTorch version of Stable Baselines, reliable implementations of reinforcement learning algorithms.

DLR-RM 4.7k Jan 01, 2023
Video-face-extractor - Video face extractor with Python

Python face extractor Setup Create the srcvideos and faces directories Put your

2 Feb 03, 2022
Yolo Traffic Light Detection With Python

Yolo-Traffic-Light-Detection This project is based on detecting the Traffic light. Pretained data is used. This application entertained both real time

Ananta Raj Pant 2 Aug 08, 2022
A Comparative Framework for Multimodal Recommender Systems

Cornac Cornac is a comparative framework for multimodal recommender systems. It focuses on making it convenient to work with models leveraging auxilia

Preferred.AI 671 Jan 03, 2023
Unofficial implementation of Pix2SEQ

Unofficial-Pix2seq: A Language Modeling Framework for Object Detection Unofficial implementation of Pix2SEQ. Please use this code with causion. Many i

159 Dec 12, 2022
Official code for the CVPR 2021 paper "How Well Do Self-Supervised Models Transfer?"

How Well Do Self-Supervised Models Transfer? This repository hosts the code for the experiments in the CVPR 2021 paper How Well Do Self-Supervised Mod

Linus Ericsson 157 Dec 16, 2022