SporeAgent: Reinforced Scene-level Plausibility for Object Pose Refinement

Overview

SporeAgent: Reinforced Scene-level Plausibility for Object Pose Refinement

This repository implements the approach described in SporeAgent: Reinforced Scene-level Plausibility for Object Pose Refinement (WACV 2022).

Iterative refinement using SporeAgent

Iterative registration using SporeAgent:
The initial pose from PoseCNN (purple) and the final pose using SporeAgent (blue) on the LINEMOD (left,cropped) and YCB-Video (right) datasets.

Scene-level Plausibility

Scene-level Plausibility:
The initial scene configuration from PoseCNN (left) results in an implausible pose of the target object (gray). Refinement using SporeAgent (right) results in a plausible scene configuration where the intersecting points (red) are resolved and the object rests on its supported points (cyan).

LINEMOD AD < 0.10d AD < 0.05d AD <0.02d YCB-Video ADD AUC AD AUC ADI AUC
PoseCNN 62.7 26.9 3.3 51.5 61.3 75.2
Point-to-Plane ICP 92.6 79.8 29.9 68.2 79.2 87.8
w/ VeREFINE 96.1 85.8 32.5 70.1 81.0 88.8
Multi-hypothesis ICP 99.3 89.9 35.6 77.4 86.6 92.6
SporeAgent 99.3 93.7 50.3 79.0 88.8 93.6

Comparison on LINEMOD and YCB-Video:
The initial pose and segmentation estimates are computed using PoseCNN. We compare our approach to vanilla Point-to-Plane ICP (from Open3D), Point-to-Plane ICP augmented by the simulation-based VeREFINE approach and the ICP-based multi-hypothesis approach used for refinement in PoseCNN.

Dependencies

The code has been tested on Ubuntu 16.04 and 20.04 with Python 3.6 and CUDA 10.2. To set-up the Python environment, use Anaconda and the provided YAML file:

conda env create -f environment.yml --name sporeagent

conda activate sporeagent.

The BOP Toolkit is additionally required. The BOP_PATH in config.py needs to be changed to the respective clone directory and the packages required by the BOP Toolkit need to be installed.

The YCB-Video Toolbox is required for experiments on the YCB-Video dataset.

Datasets

We use the dataset versions prepared for the BOP challenge. The required files can be downloaded to a directory of your choice using the following bash script:

export SRC=http://ptak.felk.cvut.cz/6DB/public/bop_datasets
export DATASET=ycbv                     # either "lm" or "ycbv"
wget $SRC/$DATASET_base.zip             # Base archive with dataset info, camera parameters, etc.
wget $SRC/$DATASET_models.zip           # 3D object models.
wget $SRC/$DATASET_test_all.zip         # All test images.
unzip $DATASET_base.zip                 # Contains folder DATASET.
unzip $DATASET_models.zip -d $DATASET   # Unpacks to DATASET.
unzip $DATASET_test_all.zip -d $DATASET # Unpacks to DATASET.

For training on YCB-Video, the $DATASET_train_real.zip is moreover required.

In addition, we have prepared point clouds sampled within the ground-truth masks (for training) and the segmentation masks computed using PoseCNN (for evaluation) for the LINEMOD and YCB-Video dataset. The samples for evaluation also include the initial pose estimates from PoseCNN.

LINEMOD

Extract the prepared samples into PATH_TO_BOP_LM/sporeagent/ and set LM_PATH in config.py to the base directory, i.e., PATH_TO_BOP_LM. Download the PoseCNN results and the corresponding image set definitions provided with DeepIM and extract both into POSECNN_LM_RESULTS_PATH. Finally, since the BOP challenge uses a different train/test split than the compared methods, the appropriate target file found here needs to be placed in the PATH_TO_BOP_LM directory.

To compute the AD scores using the BOP Toolkit, BOP_PATH/scripts/eval_bop19.py needs to be adapted:

  • to use ADI for symmetric objects and ADD otherwise with a 2/5/10% threshold, change p['errors'] to
{
  'n_top': -1,
  'type': 'ad',
  'correct_th': [[0.02], [0.05], [0.1]]
}
  • to use the correct test targets, change p['targets_filename'] to 'test_targets_add.json'

YCB-Video

Extract the prepared samples into PATH_TO_BOP_YCBV/reagent/ and set YCBV_PATH in config.py to the base directory, i.e., PATH_TO_BOP_YCBV. Clone the YCB Video Toolbox to POSECNN_YCBV_RESULTS_PATH. Extract the results_PoseCNN_RSS2018.zip and copy test_data_list.txt to the same directory. The POSECNN_YCBV_RESULTS_PATH in config.py needs to be changed to the respective directory. Additionally, place the meshes in the canonical frame models_eval_canonical in the PATH_TO_BOP_YCBV directory.

To compute the ADD/AD/ADI AUC scores using the YCB-Video Toolbox, replace the respective files in the toolbox by the ones provided in sporeagent/ycbv_toolbox.

Pretrained models

Weights for both datasets can be found here. Download and copy them to sporeagent/weights/.

Training

For LINEMOD: python registration/train.py --dataset=lm

For YCB-Video: python registration/train.py --dataset=ycbv

Evaluation

Note that we precompute the normal images used for pose scoring on the first run and store them to disk.

LINEMOD

The results for LINEMOD are computed using the BOP Toolkit. The evaluation script exports the required file by running

python registration/eval.py --dataset=lm,

which can then be processed via

python BOP_PATH/scripts/eval_bop19.py --result_filenames=PATH_TO_CSV_WITH_RESULTS.

YCB-Video

The results for YCB-Video are computed using the YCB-Video Toolbox. The evaluation script exports the results in BOP format by running

python registration/eval.py --dataset=ycbv,

which can then be parsed into the format used by the YCB-Video Toolbox by running

python utility/parse_matlab.py.

In MATLAB, run evaluate_poses_keyframe.m to generate the per-sample results and plot_accuracy_keyframe.m to compute the statistics.

Citation

If you use this repository in your publications, please cite

@article{bauer2022sporeagent,
    title={SporeAgent: Reinforced Scene-level Plausibility for Object Pose Refinement},
    author={Bauer, Dominik and Patten, Timothy and Vincze, Markus},
    booktitle={IEEE/CVF Winter Conference on Applications of Computer Vision (WACV)},
    year={2022},
    pages={654-662}
}
Owner
Dominik Bauer
Dominik Bauer
This code is a near-infrared spectrum modeling method based on PCA and pls

Nirs-Pls-Corn This code is a near-infrared spectrum modeling method based on PCA and pls 近红外光谱分析技术属于交叉领域,需要化学、计算机科学、生物科学等多领域的合作。为此,在(北邮邮电大学杨辉华老师团队)指导下

Fu Pengyou 6 Dec 17, 2022
Diffgram - Supervised Learning Data Platform

Data Annotation, Data Labeling, Annotation Tooling, Training Data for Machine Learning

Diffgram 1.6k Jan 07, 2023
Official pytorch implement for “Transformer-Based Source-Free Domain Adaptation”

Official implementation for TransDA Official pytorch implement for “Transformer-Based Source-Free Domain Adaptation”. Overview: Result: Prerequisites:

stanley 54 Dec 22, 2022
(CVPR 2022) Pytorch implementation of "Self-supervised transformers for unsupervised object discovery using normalized cut"

(CVPR 2022) TokenCut Pytorch implementation of Tokencut: Self-supervised Transformers for Unsupervised Object Discovery using Normalized Cut Yangtao W

YANGTAO WANG 200 Jan 02, 2023
Official code of paper: MovingFashion: a Benchmark for the Video-to-Shop Challenge

SEAM Match-RCNN Official code of MovingFashion: a Benchmark for the Video-to-Shop Challenge paper Installation Requirements: Pytorch 1.5.1 or more rec

HumaticsLAB 31 Oct 10, 2022
A stable algorithm for GAN training

DRAGAN (Deep Regret Analytic Generative Adversarial Networks) Link to our paper - https://arxiv.org/abs/1705.07215 Pytorch implementation (thanks!) -

195 Oct 10, 2022
Transformer-XL: Attentive Language Models Beyond a Fixed-Length Context Code in both PyTorch and TensorFlow

Transformer-XL: Attentive Language Models Beyond a Fixed-Length Context This repository contains the code in both PyTorch and TensorFlow for our paper

Zhilin Yang 3.3k Jan 06, 2023
Digital Twin Mobility Profiling: A Spatio-Temporal Graph Learning Approach

Digital Twin Mobility Profiling: A Spatio-Temporal Graph Learning Approach This is the implementation of traffic prediction code in DTMP based on PyTo

chenxin 1 Dec 19, 2021
Implementation of Vision Transformer, a simple way to achieve SOTA in vision classification with only a single transformer encoder, in Pytorch

Implementation of Vision Transformer, a simple way to achieve SOTA in vision classification with only a single transformer encoder, in Pytorch

Phil Wang 12.6k Jan 09, 2023
StarGAN v2-Tensorflow - Simple Tensorflow implementation of StarGAN v2

Official Tensorflow implementation Open ! - Clova AI StarGAN v2 — Un-official TensorFlow Implementation [Paper] [Pytorch] : Diverse Image Synthesis f

Junho Kim 110 Jul 02, 2022
Python project to take sound as input and output as RGB + Brightness values suitable for DMX

sound-to-light Python project to take sound as input and output as RGB + Brightness values suitable for DMX Current goals: Get one pixel working: Vary

Bobby Cox 1 Nov 17, 2021
Repository accompanying the "Sign Pose-based Transformer for Word-level Sign Language Recognition" paper

by Matyáš Boháček and Marek Hrúz, University of West Bohemia Should you have any questions or inquiries, feel free to contact us here. Repository acco

Matyáš Boháček 30 Dec 30, 2022
Long Expressive Memory (LEM)

Long Expressive Memory for Sequence Modeling This repository contains the implementation to reproduce the numerical experiments of the paper Long Expr

Konstantin Rusch 47 Dec 17, 2022
In-place Parallel Super Scalar Samplesort (IPS⁴o)

In-place Parallel Super Scalar Samplesort (IPS⁴o) This is the implementation of the algorithm IPS⁴o presented in the paper Engineering In-place (Share

82 Dec 22, 2022
LegoDNN: a block-grained scaling tool for mobile vision systems

Table of contents 1 Introduction 1.1 Major features 1.2 Architecture 2 Code and Installation 2.1 Code 2.2 Installation 3 Repository of DNNs in vision

41 Dec 24, 2022
Pcos-prediction - Predicts the likelihood of Polycystic Ovary Syndrome based on patient attributes and symptoms

PCOS Prediction 🥼 Predicts the likelihood of Polycystic Ovary Syndrome based on

Samantha Van Seters 1 Jan 10, 2022
Official Implementation of "Transformers Can Do Bayesian Inference"

Official Code for the Paper "Transformers Can Do Bayesian Inference" We train Transformers to do Bayesian Prediction on novel datasets for a large var

AutoML-Freiburg-Hannover 103 Dec 25, 2022
Nicholas Lee 3 Jan 09, 2022
MAterial del programa Misión TIC 2022

Mision TIC 2022 Esta iniciativa, aparece como respuesta frente a los retos de la Cuarta Revolución Industrial, y tiene como objetivo la formación de 1

6 May 25, 2022
TrackFormer: Multi-Object Tracking with Transformers

TrackFormer: Multi-Object Tracking with Transformers This repository provides the official implementation of the TrackFormer: Multi-Object Tracking wi

Tim Meinhardt 321 Dec 29, 2022