[CVPR2022] Representation Compensation Networks for Continual Semantic Segmentation

Overview

RCIL

[CVPR2022] Representation Compensation Networks for Continual Semantic Segmentation
Chang-Bin Zhang1, Jia-Wen Xiao1, Xialei Liu1, Ying-Cong Chen2, Ming-Ming Cheng1
1 College of Computer Science, Nankai University
2 The Hong Kong University of Science and Technology

Conference Paper

PWC PWC PWC PWC PWC PWC PWC PWC PWC PWC PWC PWC PWC

Method

截屏2022-04-09 上午1 02 44

Update

  • Coming Soon add data folder
  • Coming Soon init code for Classification
  • Coming Soon add training scripts for ADE20K and cityscapes
  • 09/04/2022 init code for segmentation
  • 09/04/2022 init readme

Benchmark and Setting

There are two commonly used settings, disjoint and overlapped. In the disjoint setting, assuming we know all classes in the future, the images in the current training step do not contain any classes in the future. The overlapped setting allows potential classes in the future to appear in the current training images. We call each training on the newly added dataset as a step. Formally, X-Y denotes the continual setting in our experiments, where X denotes the number of classes that we need to train in the first step. In each subsequent learning step, the newly added dataset contains Y classes.

There are some settings reported in our paper. You can also try it on other any custom settings.

  • Continual Class Segmentation:

    1. PASCAL VOC 2012 dataset:
      • 15-5 overlapped
      • 15-5 disjoint
      • 15-1 overlapped
      • 15-1 disjoint
      • 10-1 overlapped
      • 10-1 disjoint
    2. ADE20K dataset:
      • 100-50 overlapped
      • 100-10 overlapped
      • 50-50 overlapped
      • 100-5 overlapped
  • Continual Domain Segmentation:

    1. Cityscapes:
      • 11-5
      • 11-1
      • 1-1
  • Extension Experiments on Continual Classification

    1. ImageNet-100
      • 50-10

Performance

  • Continual Class Segmentation on PASCAL VOC 2012
Method Pub. 15-5 disjoint 15-5 overlapped 15-1 disjoint 15-1 overlapped 10-1 disjoint 10-1 overlapped
LWF TPAMI 2017 54.9 55.0 5.3 5.5 4.3 4.8
ILT ICCVW 2019 58.9 61.3 7.9 9.2 5.4 5.5
MiB CVPR 2020 65.9 70.0 39.9 32.2 6.9 20.1
SDR CVPR 2021 67.3 70.1 48.7 39.5 14.3 25.1
PLOP CVPR 2021 64.3 70.1 46.5 54.6 8.4 30.5
Ours CVPR 2022 67.3 72.4 54.7 59.4 18.2 34.3
  • Continual Class Segmentation on ADE20K
Method Pub. 100-50 overlapped 100-10 overlapped 50-50 overlapped 100-5 overlapped
ILT ICCVW 2019 17.0 1.1 9.7 0.5
MiB CVPR 2020 32.8 29.2 29.3 25.9
PLOP CVPR 2021 32.9 31.6 30.4 28.7
Ours CVPR 2022 34.5 32.1 32.5 29.6
  • Continual Domain Segmentation on Cityscapes
Method Pub. 11-5 11-1 1-1
LWF TPAMI 2017 59.7 57.3 33.0
LWF-MC CVPR 2017 58.7 57.0 31.4
ILT ICCVW 2019 59.1 57.8 30.1
MiB CVPR 2020 61.5 60.0 42.2
PLOP CVPR 2021 63.5 62.1 45.2
Ours CVPR 2022 64.3 63.0 48.9

Dataset Prepare

  • PASCVAL VOC 2012
    sh data/download_voc.sh
  • ADE20K
    sh data/download_ade.sh
  • Cityscapes
    sh data/download_cityscapes.sh

Environment

  1. conda install --yes --file requirements.txt
  2. Install inplace-abn

Training

  1. Dowload pretrained model from ResNet-101_iabn to pretrained/
  2. We have prepared some training scripts in scripts/. You can train the model by
sh scripts/voc/rcil_10-1-overlap.sh

Inference

You can simply modify the bash file by add --test, like

CUDA_VISIBLE_DEVICES=${GPU} python3 -m torch.distributed.launch --master_port ${PORT} --nproc_per_node=${NB_GPU} run.py --data xxx ... --test

Reference

If this work is useful for you, please cite us by:

@inproceedings{zhangCvpr22ContinuSSeg,
  title={Representation Compensation Networks for Continual Semantic Segmentation},
  author={Chang-Bin Zhang and Jiawen Xiao and Xialei Liu and Yingcong Chen and Ming-Ming Cheng},
  booktitle={IEEE Conference on Computer Vision and Pattern Recognition},
  year={2022}
}

Connect

If you have any questions about this work, please feel easy to connect with us (zhangchbin ^ gmail.com).

Thanks

This code is heavily borrowed from [MiB] and [PLOP].

Awesome Continual Segmentation

There is a collection of AWESOME things about continual semantic segmentation, including papers, code, demos, etc. Feel free to pull request and star.

2022

  • Representation Compensation Networks for Continual Semantic Segmentation [CVPR 2022] [PyTorch]
  • Self-training for Class-incremental Semantic Segmentation [TNNLS 2022] [PyTorch]
  • Uncertainty-aware Contrastive Distillation for Incremental Semantic Segmentation [TPAMI 2022] [[PyTorch]]

2021

  • PLOP: Learning without Forgetting for Continual Semantic Segmentation [CVPR 2021] [PyTorch]
  • Continual Semantic Segmentation via Repulsion-Attraction of Sparse and Disentangled Latent Representations [CVPR2021] [PyTorch]
  • An EM Framework for Online Incremental Learning of Semantic Segmentation [ACM MM 2021] [PyTorch]
  • SSUL: Semantic Segmentation with Unknown Label for Exemplar-based Class-Incremental Learning [NeurIPS 2021] [PyTorch]

2020

2019

You might also like...
PyTorch implementation of our Adam-NSCL algorithm from our CVPR2021 (oral) paper "Training Networks in Null Space for Continual Learning"

Adam-NSCL This is a PyTorch implementation of Adam-NSCL algorithm for continual learning from our CVPR2021 (oral) paper: Title: Training Networks in N

Learning Pixel-level Semantic Affinity with Image-level Supervision for Weakly Supervised Semantic Segmentation, CVPR 2018
Learning Pixel-level Semantic Affinity with Image-level Supervision for Weakly Supervised Semantic Segmentation, CVPR 2018

Learning Pixel-level Semantic Affinity with Image-level Supervision This code is deprecated. Please see https://github.com/jiwoon-ahn/irn instead. Int

Siamese-nn-semantic-text-similarity - A repository containing comprehensive Neural Networks based PyTorch implementations for the semantic text similarity task
This is an official implementation of the CVPR2022 paper "Blind2Unblind: Self-Supervised Image Denoising with Visible Blind Spots".

Blind2Unblind: Self-Supervised Image Denoising with Visible Blind Spots Blind2Unblind Citing Blind2Unblind @inproceedings{wang2022blind2unblind, tit

PSTR: End-to-End One-Step Person Search With Transformers (CVPR2022)
PSTR: End-to-End One-Step Person Search With Transformers (CVPR2022)

PSTR (CVPR2022) This code is an official implementation of "PSTR: End-to-End One-Step Person Search With Transformers (CVPR2022)". End-to-end one-step

CVPR2022 paper
CVPR2022 paper "Dense Learning based Semi-Supervised Object Detection"

[CVPR2022] DSL: Dense Learning based Semi-Supervised Object Detection DSL is the first work on Anchor-Free detector for Semi-Supervised Object Detecti

[CVPR2022] Bridge-Prompt: Towards Ordinal Action Understanding in Instructional Videos
[CVPR2022] Bridge-Prompt: Towards Ordinal Action Understanding in Instructional Videos

Bridge-Prompt: Towards Ordinal Action Understanding in Instructional Videos Created by Muheng Li, Lei Chen, Yueqi Duan, Zhilan Hu, Jianjiang Feng, Jie

The official codes of our CVPR2022 paper: A Differentiable Two-stage Alignment Scheme for Burst Image Reconstruction with Large Shift
The official codes of our CVPR2022 paper: A Differentiable Two-stage Alignment Scheme for Burst Image Reconstruction with Large Shift

TwoStageAlign The official codes of our CVPR2022 paper: A Differentiable Two-stage Alignment Scheme for Burst Image Reconstruction with Large Shift Pa

Official code for
Official code for "Eigenlanes: Data-Driven Lane Descriptors for Structurally Diverse Lanes", CVPR2022

[CVPR 2022] Eigenlanes: Data-Driven Lane Descriptors for Structurally Diverse Lanes Dongkwon Jin, Wonhui Park, Seong-Gyun Jeong, Heeyeon Kwon, and Cha

Comments
  • Reproduce ADE20k

    Reproduce ADE20k

    Hi, thanks for sharing the code.

    I'm trying to reproduce the results for 100-50 ADE20k. Here are the hyper-parameters I used: --pod local --pod_factor 0.001 --pod_logits --classif_adaptive_factor --init_balanced --unce --unkd

    I get the all-mIoU=29.4%, which is much lower than the reported mIoU (34.5%). Could you please share with me the parameters you used to get the reported mIoU?

    opened by HieuPhan33 10
  • 15-1 Pascal-VOC Reproduce

    15-1 Pascal-VOC Reproduce

    Hi, I couldn't reproduce the results for 15-1 Pascal-VOC. I'm running the script voc/plop_15-1-overlap.sh. Since I have two GPUs with 24GB, I adjust the batch size to 12 and trained on 2 GPUs. This ensures the total batch size is 24 like your settings.

    Here are the results | | 0-15 | 16-20 | all | | ---- | ---- | --- | ---- | | Reproduce | 63.41 | 19.25 | 52.90 | | Reported | 70.60 | 23.70 | 59.40 |

    The results are far lower than the results reported in the paper. Could you please advise?

    opened by HieuPhan33 6
  • Reproduced results lower than the reported ones

    Reproduced results lower than the reported ones

    Hi, I directly ran the released codes without any modification. However, I found that the obtained results are lower than the reported ones by >1 percent point, especially the 10-1 setting with a large gap on the base (0-10) classes.

    Relevant log files are provided for your reference. Could you advise the possible reasons that may cause such a problem? Thanks a lot.

    | | 15-5 | | | 15-1 | | | 10-1 | | | |------------|------|-------|------|------|-------|------|------|-------|------| | | 0-15 | 16-20 | all | 0-15 | 16-20 | all | 0-10 | 11-20 | all | | Reported | 78.8 | 52.0 | 72.4 | 70.6 | 23.7 | 59.4 | 55.4 | 15.1 | 34.3 | | Reproduced | 76.7 | 48.4 | 70.0 | 69.0 | 20.5 | 57.4 | 38.0 | 13.4 | 26.3 |

    opened by Ze-Yang 3
  • Full results on Cityscapes

    Full results on Cityscapes

    Nice work! Could you publish the scripts and the corresponding results on Cityscapes? I failed to reproduce the experimental results reported in the paper. I set the batch size as 24. The initial learning rate is 0.02 for the first training step and 0.001 for the next continual learning steps. I train the model for each step with 50 epochs as the paper suggested.

    opened by XiaorongLi-95 4
Owner
Chang-Bin Zhang
Master student at Nankai University.
Chang-Bin Zhang
Deploy optimized transformer based models on Nvidia Triton server

🤗 Hugging Face Transformer submillisecond inference 🤯 and deployment on Nvidia Triton server Yes, you can perfom inference with transformer based mo

Lefebvre Sarrut Services 1.2k Jan 05, 2023
A Dynamic Residual Self-Attention Network for Lightweight Single Image Super-Resolution

DRSAN A Dynamic Residual Self-Attention Network for Lightweight Single Image Super-Resolution Karam Park, Jae Woong Soh, and Nam Ik Cho Environments U

4 May 10, 2022
Aggragrating Nested Transformer Official Jax Implementation

NesT is a simple method, which aggragrates nested local transformers on image blocks. The idea makes vision transformers attain better accuracy, data efficiency, and convergence on the ImageNet bench

Google Research 169 Dec 20, 2022
aka "Bayesian Methods for Hackers": An introduction to Bayesian methods + probabilistic programming with a computation/understanding-first, mathematics-second point of view. All in pure Python ;)

Bayesian Methods for Hackers Using Python and PyMC The Bayesian method is the natural approach to inference, yet it is hidden from readers behind chap

Cameron Davidson-Pilon 25.1k Jan 02, 2023
Empower Sequence Labeling with Task-Aware Language Model

LM-LSTM-CRF Check Our New NER Toolkit 🚀 🚀 🚀 Inference: LightNER: inference w. models pre-trained / trained w. any following tools, efficiently. Tra

Liyuan Liu 838 Jan 05, 2023
This repository contains the code for the ICCV 2019 paper "Occupancy Flow - 4D Reconstruction by Learning Particle Dynamics"

Occupancy Flow This repository contains the code for the project Occupancy Flow - 4D Reconstruction by Learning Particle Dynamics. You can find detail

189 Dec 29, 2022
Ego4d dataset repository. Download the dataset, visualize, extract features & example usage of the dataset

Ego4D EGO4D is the world's largest egocentric (first person) video ML dataset and benchmark suite, with 3,600 hrs (and counting) of densely narrated v

Meta Research 118 Jan 07, 2023
SwinTrack: A Simple and Strong Baseline for Transformer Tracking

SwinTrack This is the official repo for SwinTrack. A Simple and Strong Baseline Prerequisites Environment conda (recommended) conda create -y -n SwinT

LitingLin 196 Jan 04, 2023
Mengzi Pretrained Models

中文 | English Mengzi 尽管预训练语言模型在 NLP 的各个领域里得到了广泛的应用,但是其高昂的时间和算力成本依然是一个亟需解决的问题。这要求我们在一定的算力约束下,研发出各项指标更优的模型。 我们的目标不是追求更大的模型规模,而是轻量级但更强大,同时对部署和工业落地更友好的模型。

Langboat 424 Jan 04, 2023
《Dual-Resolution Correspondence Network》(NeurIPS 2020)

Dual-Resolution Correspondence Network Dual-Resolution Correspondence Network, NeurIPS 2020 Dependency All dependencies are included in asset/dualrcne

Active Vision Laboratory 45 Nov 21, 2022
Axel - 3D printed robotic hands and they controll with Raspberry Pi and Arduino combo

Axel It's our graduation project about 3D printed robotic hands and they control

0 Feb 14, 2022
RipsNet: a general architecture for fast and robust estimation of the persistent homology of point clouds

RipsNet: a general architecture for fast and robust estimation of the persistent homology of point clouds This repository contains the code asscoiated

Felix Hensel 14 Dec 12, 2022
AI-UPV at IberLEF-2021 EXIST task: Sexism Prediction in Spanish and English Tweets Using Monolingual and Multilingual BERT and Ensemble Models

AI-UPV at IberLEF-2021 EXIST task: Sexism Prediction in Spanish and English Tweets Using Monolingual and Multilingual BERT and Ensemble Models Descrip

Angel de Paula 1 Jun 08, 2022
[NeurIPS'21 Spotlight] PyTorch code for our paper "Aligned Structured Sparsity Learning for Efficient Image Super-Resolution"

ASSL This repository is for a new network pruning method (Aligned Structured Sparsity Learning, ASSL) for efficient single image super-resolution (SR)

Huan Wang 47 Nov 28, 2022
FAST Aiming at the problems of cumbersome steps and slow download speed of GNSS data

FAST Aiming at the problems of cumbersome steps and slow download speed of GNSS data, a relatively complete set of integrated multi-source data download terminal software fast is developed. The softw

ChangChuntao 23 Dec 31, 2022
PyTorch implementation of some learning rate schedulers for deep learning researcher.

pytorch-lr-scheduler PyTorch implementation of some learning rate schedulers for deep learning researcher. Usage WarmupReduceLROnPlateauScheduler Visu

Soohwan Kim 59 Dec 08, 2022
Background-Click Supervision for Temporal Action Localization

Background-Click Supervision for Temporal Action Localization This repository is the official implementation of BackTAL. In this work, we study the te

LeYang 221 Oct 09, 2022
Code to compute permutation and drop-column importances in Python scikit-learn models

Feature importances for scikit-learn machine learning models By Terence Parr and Kerem Turgutlu. See Explained.ai for more stuff. The scikit-learn Ran

Terence Parr 537 Dec 31, 2022
This is the official repository of the paper Stocastic bandits with groups of similar arms (NeurIPS 2021). It contains the code that was used to compute the figures and experiments of the paper.

Experiments How to reproduce experimental results of Stochastic bandits with groups of similar arms submitted paper ? Section 5 of the paper To reprod

Fabien 0 Oct 25, 2021
Code for "Localization with Sampling-Argmax", NeurIPS 2021

Localization with Sampling-Argmax [Paper] [arXiv] [Project Page] Localization with Sampling-Argmax Jiefeng Li, Tong Chen, Ruiqi Shi, Yujing Lou, Yong-

JeffLi 71 Dec 17, 2022