Aerial Single-View Depth Completion with Image-Guided Uncertainty Estimation (RA-L/ICRA 2020)

Overview

Aerial Depth Completion

This work is described in the letter "Aerial Single-View Depth Completion with Image-Guided Uncertainty Estimation", by Lucas Teixeira, Martin R. Oswald, Marc Pollefeys, Margarita Chli, published in the IEEE Robotics and Automation Letters (RA-L / ICRA) ETHZ Library link.

Video:

Mesh

Presentation:

Mesh

Citations:

If you use this Code or Aerial Dataset, please cite the following publication:

@article{Teixeira:etal:RAL2020,
    title   = {{Aerial Single-View Depth Completion with Image-Guided Uncertainty Estimation}},
    author  = {Lucas Teixeira and Martin R. Oswald and Marc Pollefeys and Margarita Chli},
    journal = {{IEEE} Robotics and Automation Letters ({RA-L})},
    doi     = {10.1109/LRA.2020.2967296},
    year    = {2020}
}

NYUv2, CAB and PVS datasets require further citation from their authors. During our research, we reformat and created ground-truth depth for the CAB and PVS datasets. This code also contains thirt-party networks used for comparison. Please also cite their authors properly in case of use.

Acknowledgment:

The authors thank Fangchang Ma and Abdelrahman Eldesokey for sharing their code that is partially used here. The authors also thanks the owner of the 3D models used to build the dataset. They are identified in each 3D model file.

Data and Simulator

Trained Models

Several trained models are available - here.

Datasets

To be used together by our code, the datasets need to be merged, this means that the content of the train folder of each dataset need to be place in a single train folder. The same happens with the eval folder.

Simulator

The Aerial Dataset was created using this simulator link.

3D Models

Most of the 3D models used to create the dataset can be download here. In the license files contain the authors of the 3D models. Some models were extended with a satellite image from Google Earth.

Running the code

Prerequisites

  • PyTorch 1.0.1
  • Python 3.6
  • Plus dependencies

Testing Example

python3 main.py --evaluate "/media/lucas/lucas-ds2-1tb/tmp/model_best.pth.tar" --data-path "/media/lucas/lucas-ds2-1tb/dataset_big_v12"

Training Example

python3 main.py --data-path "/media/lucas/lucas-ds2-1tb/dataset_big_v12" --workers 8 -lr 0.00001 --batch-size 1 --dcnet-arch gudepthcompnet18 --training-mode dc1_only --criterion l2
python3 main.py --data-path "/media/lucas/lucas-ds2-1tb/dataset_big_v12" --workers 8 --criterion l2 --training-mode dc0-cf1-ln1 --dcnet-arch ged_depthcompnet --dcnet-pretrained /media/lucas/lucas-ds2-1tb/tmp/model_best.pth.tar:dc_weights --confnet-arch cbr3-c1 --confnet-pretrained /media/lucas/lucas-ds2-1tb/tmp/model_best.pth.tar:conf_weights --lossnet-arch ged_depthcompnet --lossnet-pretrained /media/lucas/lucas-ds2-1tb/tmp/model_best.pth.tar:lossdc_weights

Parameters

Parameter Description
--help show this help message and exit
--output NAME output base name in the subfolder results
--training-mode ARCH this variable indicating the training mode. Our framework has up to tree parts the dc (depth completion net), the cf (confidence estimation net) and the ln (loss net). The number 0 or 1 indicates whether the network should be updated during the back-propagation. All the networks can be pre-load using other parameters. training_mode: dc1_only ; dc1-ln0 ; dc1-ln1 ; dc0-cf1-ln0 ; dc1-cf1-ln0 ; dc0-cf1-ln1 ; dc1-cf1-ln1 (default: dc1_only)
--dcnet-arch ARCH model architecture: resnet18 ; udepthcompnet18 ; gms_depthcompnet ; ged_depthcompnet ; gudepthcompnet18 (default: resnet18)
--dcnet-pretrained PATH path to pretraining checkpoint for the dc net (default: empty). Each checkpoint can have multiple network. So it is necessary to define each one. the format is path:network_name. network_name can be: dc_weights, conf_weights, lossdc_weights.
--dcnet-modality MODALITY modality: rgb ; rgbd ; rgbdw (default: rgbd)
--confnet-arch ARCH model architecture: cbr3-c1 ; cbr3-cbr1-c1 ; cbr3-cbr1-c1res ; join ; none (default: cbr3-c1)
--confnet-pretrained PATH path to pretraining checkpoint for the cf net (default: empty). Each checkpoint can have multiple network. So it is necessary to define each one. the format is path:network_name. network_name can be: dc_weights, conf_weights, lossdc_weights.
--lossnet-arch ARCH model architecture: resnet18 ; udepthcompnet18 (uresnet18) ; gms_depthcompnet (nconv-ms) ; ged_depthcompnet (nconv-ed) ; gudepthcompnet18 (nconv-uresnet18) (default: ged_depthcompnet)
--lossnet-pretrained PATH path to pretraining checkpoint for the ln net (default: empty). Each checkpoint can have multiple network. So it is necessary to define each one. the format is path:network_name. network_name can be: dc_weights, conf_weights, lossdc_weights.
--data-type DATA dataset: visim ; kitti (default: visim)
--data-path PATH path to data folder - this folder has to have inside a val folder and a train folder if it is not in evaluation mode.
--data-modality MODALITY this field define the input modality in the format colour-depth-weight. kfd and fd mean random sampling in the ground-truth. kgt means keypoints from slam with depth from ground-truth. kor means keypoints from SLAM with depth from the landmark. The weight can be binary (bin) or from the uncertanty from slam (kw). The parameter can be one of the following: rgb-fd-bin ; rgb-kfd-bin ; rgb-kgt-bin ; rgb-kor-bin ; rgb-kor-kw (default: rgb-fd-bin)
--workers N number of data loading workers (default: 10)
--epochs N number of total epochs to run (default: 15)
--max-gt-depth D cut-off depth of ground truth, negative values means infinity (default: inf [m])
--min-depth D cut-off depth of sparsifier (default: 0 [m])
--max-depth D cut-off depth of sparsifier, negative values means infinity (default: inf [m])
--divider D Normalization factor - zero means per frame (default: 0 [m])
--num-samples N number of sparse depth samples (default: 500)
--sparsifier SPARSIFIER sparsifier: uar ; sim_stereo (default: uar)
--criterion LOSS loss function: l1 ; l2 ; il1 (inverted L1) ; absrel (default: l1)
--optimizer OPTIMIZER Optimizer: sgd ; adam (default: adam)
--batch-size BATCH_SIZE mini-batch size (default: 8)
--learning-rate LR initial learning rate (default 0.001)
--learning-rate-step LRS number of epochs between reduce the learning rate by 10 (default: 5)
--learning-rate-multiplicator LRM multiplicator (default 0.1)
--momentum M momentum (default: 0)
--weight-decay W weight decay (default: 0)
--val-images N number of images in the validation image (default: 10)
--print-freq N print frequency (default: 10)
--resume PATH path to latest checkpoint (default: empty)
--evaluate PATH evaluates the model on validation set, all the training parameters will be ignored, but the input parameters still matters (default: empty)
--precision-recall enables the calculation of precision recall table, might be necessary to ajust the bin and top values in the ConfidencePixelwiseThrAverageMeter class. The result table shows for each confidence threshold the error and the density (default:false)
--confidence-threshold VALUE confidence threshold , the best way to select this number is create the precision-recall table. (default: 0)

Contact

In case of any issue, fell free to contact me via email lteixeira at mavt.ethz.ch.

Owner
ETHZ V4RL
Vision for Robotics Lab, ETH Zurich
ETHZ V4RL
FAST-RIR: FAST NEURAL DIFFUSE ROOM IMPULSE RESPONSE GENERATOR

This is the official implementation of our neural-network-based fast diffuse room impulse response generator (FAST-RIR) for generating room impulse responses (RIRs) for a given acoustic environment.

Anton Jeran Ratnarajah 89 Dec 22, 2022
An implementation of DeepMind's Relational Recurrent Neural Networks in PyTorch.

relational-rnn-pytorch An implementation of DeepMind's Relational Recurrent Neural Networks (Santoro et al. 2018) in PyTorch. Relational Memory Core (

Sang-gil Lee 241 Nov 18, 2022
Official PyTorch implementation of "Physics-aware Difference Graph Networks for Sparsely-Observed Dynamics".

Physics-aware Difference Graph Networks for Sparsely-Observed Dynamics This repository is the official PyTorch implementation of "Physics-aware Differ

USC-Melady 46 Nov 20, 2022
A simple PyTorch Implementation of Generative Adversarial Networks, focusing on anime face drawing.

AnimeGAN A simple PyTorch Implementation of Generative Adversarial Networks, focusing on anime face drawing. Randomly Generated Images The images are

Jie Lei 雷杰 1.2k Jan 03, 2023
这是一个mobilenet-yolov4-lite的库,把yolov4主干网络修改成了mobilenet,修改了Panet的卷积组成,使参数量大幅度缩小。

YOLOV4:You Only Look Once目标检测模型-修改mobilenet系列主干网络-在Keras当中的实现 2021年2月8日更新: 加入letterbox_image的选项,关闭letterbox_image后网络的map一般可以得到提升。

Bubbliiiing 65 Dec 01, 2022
You are AllSet: A Multiset Function Framework for Hypergraph Neural Networks.

AllSet This is the repo for our paper: You are AllSet: A Multiset Function Framework for Hypergraph Neural Networks. We prepared all codes and a subse

Jianhao 51 Dec 24, 2022
Easy genetic ancestry predictions in Python

ezancestry Easily visualize your direct-to-consumer genetics next to 2500+ samples from the 1000 genomes project. Evaluate the performance of a custom

Kevin Arvai 38 Jan 02, 2023
Pytorch Implementation of Google's Parallel Tacotron 2: A Non-Autoregressive Neural TTS Model with Differentiable Duration Modeling

Parallel Tacotron2 Pytorch Implementation of Google's Parallel Tacotron 2: A Non-Autoregressive Neural TTS Model with Differentiable Duration Modeling

Keon Lee 170 Dec 27, 2022
Implementation of a Transformer that Ponders, using the scheme from the PonderNet paper

Ponder(ing) Transformer Implementation of a Transformer that learns to adapt the number of computational steps it takes depending on the difficulty of

Phil Wang 65 Oct 04, 2022
PyTorch implementation of popular datasets and models in remote sensing

PyTorch Remote Sensing (torchrs) (WIP) PyTorch implementation of popular datasets and models in remote sensing tasks (Change Detection, Image Super Re

isaac 222 Dec 28, 2022
Generalizing Gaze Estimation with Outlier-guided Collaborative Adaptation

Generalizing Gaze Estimation with Outlier-guided Collaborative Adaptation Our paper is accepted by ICCV2021. Picture: Overview of the proposed Plug-an

Yunfei Liu 32 Dec 10, 2022
This repository contains code for the paper "Disentangling Label Distribution for Long-tailed Visual Recognition", published at CVPR' 2021

Disentangling Label Distribution for Long-tailed Visual Recognition (CVPR 2021) Arxiv link Blog post This codebase is built on Causal Norm. Install co

Hyperconnect 85 Oct 18, 2022
Easy Parallel Library (EPL) is a general and efficient deep learning framework for distributed model training.

English | 简体中文 Easy Parallel Library Overview Easy Parallel Library (EPL) is a general and efficient library for distributed model training. Usability

Alibaba 185 Dec 21, 2022
Supplementary code for the paper "Meta-Solver for Neural Ordinary Differential Equations" https://arxiv.org/abs/2103.08561

Meta-Solver for Neural Ordinary Differential Equations Towards robust neural ODEs using parametrized solvers. Main idea Each Runge-Kutta (RK) solver w

Julia Gusak 25 Aug 12, 2021
Official Code for "Constrained Mean Shift Using Distant Yet Related Neighbors for Representation Learning"

CMSF Official Code for "Constrained Mean Shift Using Distant Yet Related Neighbors for Representation Learning" Requirements Python = 3.7.6 PyTorch

4 Nov 25, 2022
The codes reproduce the figures and statistics in the paper, "Controlling for multiple covariates," by Mark Tygert.

The accompanying codes reproduce all figures and statistics presented in "Controlling for multiple covariates" by Mark Tygert. This repository also pr

Meta Research 1 Dec 02, 2021
This is just a funny project that we want to see AutoEncoder (AE) can actually work to enhance the features we want

Funny_muscle_enhancer :) 1.Discription: This is just a funny project that we want to see AutoEncoder (AE) can actually work on the some features. We w

Jing-Yao Chen (Jacob) 8 Oct 01, 2022
PyTorch implementation of MLP-Mixer

PyTorch implementation of MLP-Mixer MLP-Mixer: an all-MLP architecture composed of alternate token-mixing and channel-mixing operations. The token-mix

Duo Li 33 Nov 27, 2022
Bytedance Inc. 2.5k Jan 06, 2023
Wanli Li and Tieyun Qian: Exploit a Multi-head Reference Graph for Semi-supervised Relation Extraction, IJCNN 2021

MRefG Wanli Li and Tieyun Qian: "Exploit a Multi-head Reference Graph for Semi-supervised Relation Extraction", IJCNN 2021 1. Requirements To reproduc

万理 5 Jul 26, 2022