CDTrans: Cross-domain Transformer for Unsupervised Domain Adaptation

Related tags

Deep LearningCDTrans
Overview

CDTrans: Cross-domain Transformer for Unsupervised Domain Adaptation [arxiv]

This is the official repository for CDTrans: Cross-domain Transformer for Unsupervised Domain Adaptation

Introduction

Unsupervised domain adaptation (UDA) aims to transfer knowledge learned from a labeled source domain to a different unlabeled target domain. Most existing UDA methods focus on learning domain-invariant feature representation, either from the domain level or category level, using convolution neural networks (CNNs)-based frameworks. With the success of Transformer in various tasks, we find that the cross-attention in Transformer is robust to the noisy input pairs for better feature alignment, thus in this paper Transformer is adopted for the challenging UDA task. Specifically, to generate accurate input pairs, we design a two-way center-aware labeling algorithm to produce pseudo labels for target samples. Along with the pseudo labels, a weight-sharing triple-branch transformer framework is proposed to apply self-attention and cross-attention for source/target feature learning and source-target domain alignment, respectively. Such design explicitly enforces the framework to learn discriminative domain-specific and domain-invariant representations simultaneously. The proposed method is dubbed CDTrans (cross-domain transformer), and it provides one of the first attempts to solve UDA tasks with a pure transformer solution. Extensive experiments show that our proposed method achieves the best performance on all public UDA datasets including Office-Home, Office-31, VisDA-2017, and DomainNet.

framework

Results

Table 1 [UDA results on Office-31]

Methods Avg. A->D A->W D->A D->W W->A W->D
Baseline(DeiT-S) 86.7 87.6 86.9 74.9 97.7 73.5 99.6
model model model
CDTrans(DeiT-S) 90.4 94.6 93.5 78.4 98.2 78 99.6
model model model model model model
Baseline(DeiT-B) 88.8 90.8 90.4 76.8 98.2 76.4 100
model model model
CDTrans(DeiT-B) 92.6 97 96.7 81.1 99 81.9 100
model model model model model model

Table 2 [UDA results on Office-Home]

Methods Avg. Ar->Cl Ar->Pr Ar->Re Cl->Ar Cl->Pr Cl->Re Pr->Ar Pr->Cl Pr->Re Re->Ar Re->Cl Re->Pr
Baseline(DeiT-S) 69.8 55.6 73 79.4 70.6 72.9 76.3 67.5 51 81 74.5 53.2 82.7
model model model model
CDTrans(DeiT-S) 74.7 60.6 79.5 82.4 75.6 81.0 82.3 72.5 56.7 84.4 77.0 59.1 85.5
model model model model model model model model model model model model
Baseline(DeiT-B) 74.8 61.8 79.5 84.3 75.4 78.8 81.2 72.8 55.7 84.4 78.3 59.3 86
model model model model
CDTrans(DeiT-B) 80.5 68.8 85 86.9 81.5 87.1 87.3 79.6 63.3 88.2 82 66 90.6
model model model model model model model model model model model model

Table 3 [UDA results on VisDA-2017]

Methods Per-class plane bcycl bus car horse knife mcycl person plant sktbrd train truck
Baseline(DeiT-B) 67.3 (model) 98.1 48.1 84.6 65.2 76.3 59.4 94.5 11.8 89.5 52.2 94.5 34.1
CDTrans(DeiT-B) 88.4 (model) 97.7 86.39 86.87 83.33 97.76 97.16 95.93 84.08 97.93 83.47 94.59 55.3

Table 4 [UDA results on DomainNet]

Base-S clp info pnt qdr rel skt Avg. CDTrans-S clp info pnt qdr rel skt Avg.
clp - 21.2 44.2 15.3 59.9 46.0 37.3 clp - 25.3 52.5 23.2 68.3 53.2 44.5
model model model model model model model
info 36.8 - 39.4 5.4 52.1 32.6 33.3 info 47.6 - 48.3 9.9 62.8 41.1 41.9
model model model model model model model
pnt 47.1 21.7 - 5.7 60.2 39.9 34.9 pnt 55.4 24.5 - 11.7 67.4 48.0 41.4
model model model model model model model
qdr 25.0 3.3 10.4 - 18.8 14.0 14.3 qdr 36.6 5.3 19.3 - 33.8 22.7 23.5
model model model model model model model
rel 54.8 23.9 52.6 7.4 - 40.1 35.8 rel 61.5 28.1 56.8 12.8 - 47.2 41.3
model model model model model model model
skt 55.6 18.6 42.7 14.9 55.7 - 37.5 skt 64.3 26.1 53.2 23.9 66.2 - 46.7
model model model model model model model
Avg. 43.9 17.7 37.9 9.7 49.3 34.5 32.2 Avg. 53.08 21.86 46.02 16.3 59.7 42.44 39.9
Base-B clp info pnt qdr rel skt Avg. CDTrans-B clp info pnt qdr rel skt Avg.
clp - 24.2 48.9 15.5 63.9 50.7 40.6 clp - 29.4 57.2 26.0 72.6 58.1 48.7
model model model model model model model
info 43.5 - 44.9 6.5 58.8 37.6 38.3 info 57.0 - 54.4 12.8 69.5 48.4 48.4
model model model model model model model
pnt 52.8 23.3 - 6.6 64.6 44.5 38.4 pnt 62.9 27.4 - 15.8 72.1 53.9 46.4
model model model model model model model
qdr 31.8 6.1 15.6 - 23.4 18.9 19.2 qdr 44.6 8.9 29.0 - 42.6 28.5 30.7
model model model model model model model
rel 58.9 26.3 56.7 9.1 - 45.0 39.2 rel 66.2 31.0 61.5 16.2 - 52.9 45.6
model model model model model model model
skt 60.0 21.1 48.4 16.6 61.7 - 41.6 skt 69.0 29.6 59.0 27.2 72.5 - 51.5
model model model model model model model
Avg. 49.4 20.2 42.9 10.9 54.5 39.3 36.2 Avg. 59.9 25.3 52.2 19.6 65.9 48.4 45.2

Requirements

Installation

pip install -r requirements.txt
(Python version is the 3.7 and the GPU is the V100 with cuda 10.1, cudatoolkit 10.1)

Prepare Datasets

Download the UDA datasets Office-31, Office-Home, VisDA-2017, DomainNet

Then unzip them and rename them under the directory like follow: (Note that each dataset floader needs to make sure that it contains the txt file that contain the path and lable of the picture, which is already in data/the_dataset of this project.)

data
├── OfficeHomeDataset
│   │── class_name
│   │   └── images
│   └── *.txt
├── domainnet
│   │── class_name
│   │   └── images
│   └── *.txt
├── office31
│   │── class_name
│   │   └── images
│   └── *.txt
├── visda
│   │── train
│   │   │── class_name
│   │   │   └── images
│   │   └── *.txt 
│   └── validation
│       │── class_name
│       │   └── images
│       └── *.txt 

Prepare DeiT-trained Models

For fair comparison in the pre-training data set, we use the DeiT parameter init our model based on ViT. You need to download the ImageNet pretrained transformer model : DeiT-Small, DeiT-Base and move them to the ./data/pretrainModel directory.

Training

We utilize 1 GPU for pre-training and 2 GPUs for UDA, each with 16G of memory.

Scripts.

Command input paradigm

bash scripts/[pretrain/uda]/[office31/officehome/visda/domainnet]/run_*.sh [deit_base/deit_small]

For example

DeiT-Base scripts

# Office-31     Source: Amazon   ->  Target: Dslr, Webcam
bash scripts/pretrain/office31/run_office_amazon.sh deit_base
bash scripts/uda/office31/run_office_amazon.sh deit_base

#Office-Home    Source: Art      ->  Target: Clipart, Product, Real_World
bash scripts/pretrain/officehome/run_officehome_Ar.sh deit_base
bash scripts/uda/officehome/run_officehome_Ar.sh deit_base

# VisDA-2017    Source: train    ->  Target: validation
bash scripts/pretrain/visda/run_visda.sh deit_base
bash scripts/uda/visda/run_visda.sh deit_base

# DomainNet     Source: Clipart  ->  Target: painting, quickdraw, real, sketch, infograph
bash scripts/pretrain/domainnet/run_domainnet_clp.sh deit_base
bash scripts/uda/domainnet/run_domainnet_clp.sh deit_base

DeiT-Small scripts Replace deit_base with deit_small to run DeiT-Small results. An example of training on office-31 is as follows:

# Office-31     Source: Amazon   ->  Target: Dslr, Webcam
bash scripts/pretrain/office31/run_office_amazon.sh deit_small
bash scripts/uda/office31/run_office_amazon.sh deit_small

Evaluation

# For example VisDA-2017
python test.py --config_file 'configs/uda.yml' MODEL.DEVICE_ID "('0')" TEST.WEIGHT "('../logs/uda/vit_base/visda/transformer_best_model.pth')" DATASETS.NAMES 'VisDA' DATASETS.NAMES2 'VisDA' OUTPUT_DIR '../logs/uda/vit_base/visda/' DATASETS.ROOT_TRAIN_DIR './data/visda/train/train_image_list.txt' DATASETS.ROOT_TRAIN_DIR2 './data/visda/train/train_image_list.txt' DATASETS.ROOT_TEST_DIR './data/visda/validation/valid_image_list.txt'  

Acknowledgement

Codebase from TransReID

Pytorch Implementation for NeurIPS (oral) paper: Pixel Level Cycle Association: A New Perspective for Domain Adaptive Semantic Segmentation

Pixel-Level Cycle Association This is the Pytorch implementation of our NeurIPS 2020 Oral paper Pixel-Level Cycle Association: A New Perspective for D

87 Oct 19, 2022
Rainbow DQN implementation that outperforms the paper's results on 40% of games using 20x less data 🌈

Rainbow 🌈 An implementation of Rainbow DQN which outperforms the paper's (Hessel et al. 2017) results on 40% of tested games while using 20x less dat

Dominik Schmidt 31 Dec 21, 2022
Mixed Neural Likelihood Estimation for models of decision-making

Mixed neural likelihood estimation for models of decision-making Mixed neural likelihood estimation (MNLE) enables Bayesian parameter inference for mo

mackelab 9 Dec 22, 2022
Unofficial Implement PU-Transformer

PU-Transformer-pytorch Pytorch unofficial implementation of PU-Transformer (PU-Transformer: Point Cloud Upsampling Transformer) https://arxiv.org/abs/

Lee Hyung Jun 7 Sep 21, 2022
Official PyTorch implementation of Learning Intra-Batch Connections for Deep Metric Learning (ICML 2021) published at International Conference on Machine Learning

About This repository the official PyTorch implementation of Learning Intra-Batch Connections for Deep Metric Learning. The config files contain the s

Dynamic Vision and Learning Group 41 Dec 10, 2022
Real-time analysis of intracranial neurophysiology recordings.

py_neuromodulation Click this button to run the "Tutorial ML with py_neuro" notebooks: The py_neuromodulation toolbox allows for real time capable pro

Interventional Cognitive Neuromodulation - Neumann Lab Berlin 15 Nov 03, 2022
The official repo for CVPR2021——ViPNAS: Efficient Video Pose Estimation via Neural Architecture Search.

ViPNAS: Efficient Video Pose Estimation via Neural Architecture Search [paper] Introduction This is the official implementation of ViPNAS: Efficient V

Lumin 42 Sep 26, 2022
Mae segmentation - Reproduction of semantic segmentation using masked autoencoder (mae)

ADE20k Semantic segmentation with MAE Getting started Install the mmsegmentation

97 Dec 17, 2022
A simple version for graphfpn

GraphFPN: Graph Feature Pyramid Network for Object Detection Download graph-FPN-main.zip For training , run: python train.py For test with Graph_fpn

WorldGame 67 Dec 25, 2022
Code for "NeuralRecon: Real-Time Coherent 3D Reconstruction from Monocular Video", CVPR 2021 oral

NeuralRecon: Real-Time Coherent 3D Reconstruction from Monocular Video Project Page | Paper NeuralRecon: Real-Time Coherent 3D Reconstruction from Mon

ZJU3DV 1.4k Dec 30, 2022
Revisting Open World Object Detection

Revisting Open World Object Detection Installation See INSTALL.md. Dataset Our new data division is based on COCO2017. We divide the training set into

58 Dec 23, 2022
Public scripts, services, and configuration for running a smart home K3S network cluster

makerhouse_network Public scripts, services, and configuration for running MakerHouse's home network. This network supports: TODO features here For mo

Scott Martin 1 Jan 15, 2022
Evaluating saliency methods on artificial data with different background types

Evaluating saliency methods on artificial data with different background types This repository contains the relevant code for the MedNeurips 2021 subm

2 Jul 05, 2022
The code for "Deep Level Set for Box-supervised Instance Segmentation in Aerial Images".

Deep Levelset for Box-supervised Instance Segmentation in Aerial Images Wentong Li, Yijie Chen, Wenyu Liu, Jianke Zhu* Any questions or discussions ar

sunshine.lwt 112 Jan 05, 2023
Code release for Hu et al. Segmentation from Natural Language Expressions. in ECCV, 2016

Segmentation from Natural Language Expressions This repository contains the code for the following paper: R. Hu, M. Rohrbach, T. Darrell, Segmentation

Ronghang Hu 88 May 24, 2022
This is the code for HOI Transformer

HOI Transformer Code for CVPR 2021 accepted paper End-to-End Human Object Interaction Detection with HOI Transformer. Reproduction We recomend you to

BigBangEpoch 124 Dec 29, 2022
An implementation of "Learning human behaviors from motion capture by adversarial imitation"

Merel-MoCap-GAIL An implementation of Merel et al.'s paper on generative adversarial imitation learning (GAIL) using motion capture (MoCap) data: Lear

Yu-Wei Chao 34 Nov 12, 2022
Privacy-Preserving Machine Learning (PPML) Tutorial Presented at PyConDE 2022

PPML: Machine Learning on Data you cannot see Repository for the tutorial on Privacy-Preserving Machine Learning (PPML) presented at PyConDE 2022 Abst

Valerio Maggio 10 Aug 16, 2022
Download and preprocess popular sequential recommendation datasets

Sequential Recommendation Datasets This repository collects some commonly used sequential recommendation datasets in recent research papers and provid

125 Dec 06, 2022