End-to-End Dense Video Captioning with Parallel Decoding (ICCV 2021)

Overview

PDVC

PWC PWC

Official implementation for End-to-End Dense Video Captioning with Parallel Decoding (ICCV 2021)

[paper] [valse论文速递(Chinese)]

This repo supports:

  • two video captioning tasks: dense video captioning and video paragraph captioning
  • two datasets: ActivityNet Captions and YouCook2
  • video features containing C3D, TSN, and TSP.
  • visualization of the generated captions of your own videos

Table of Contents:

Updates

  • (2021.11.19) add code for running PDVC on raw videos and visualize the generated captions (support Chinese and other non-English languages)
  • (2021.11.19) add pretrained models with TSP features. It achieves 9.03 METEOR(2021) and 6.05 SODA_c, a very competitive results on ActivityNet Captions without self-critical sequence training.
  • (2021.08.29) add TSN pretrained models and support YouCook2

Introduction

PDVC is a simple yet effective framework for end-to-end dense video captioning with parallel decoding (PDVC), by formulating the dense caption generation as a set prediction task. Without bells and whistles, extensive experiments on ActivityNet Captions and YouCook2 show that PDVC is capable of producing high-quality captioning results, surpassing the state-of-the-art methods when its localization accuracy is on par with them. pdvc.jpg

Preparation

Environment: Linux, GCC>=5.4, CUDA >= 9.2, Python>=3.7, PyTorch>=1.5.1

  1. Clone the repo
git clone --recursive https://github.com/ttengwang/PDVC.git
  1. Create vitual environment by conda
conda create -n PDVC python=3.7
source activate PDVC
conda install pytorch==1.7.1 torchvision==0.8.2 cudatoolkit=10.1 -c pytorch
conda install ffmpeg
pip install -r requirement.txt
  1. Compile the deformable attention layer (requires GCC >= 5.4).
cd pdvc/ops
sh make.sh

Running PDVC on Your Own Videos

Download a pretrained model (GoogleDrive) with TSP features and put it into ./save. Then run:

video_folder=visualization/videos
output_folder=visualization/output
pdvc_model_path=save/anet_tsp_pdvc/model-best.pth
output_language=en
bash test_and_visualize.sh $video_folder $output_folder $pdvc_model_path $output_language

check the $output_folder, you will see a new video with embedded captions. Note that we generate non-English captions by translating the English captions by GoogleTranslate. To produce chinese captions, set output_language=zh-cn. For other language support, find the abbreviation of your language at this url, and you also may need to download a font supporting your language and put it into ./visualization.

demo.gifdemo.gif

Training and Validation

Download Video Features

cd data/anet/features
bash download_anet_c3d.sh
# bash download_anet_tsn.sh
# bash download_i3d_vggish_features.sh
# bash download_tsp_features.sh

Dense Video Captioning

  1. PDVC with learnt proposals
# Training
config_path=cfgs/anet_c3d_pdvc.yml
python train.py --cfg_path ${config_path} --gpu_id ${GPU_ID}
# The script will evaluate the model for every epoch. The results and logs are saved in `./save`.

# Evaluation
eval_folder=anet_c3d_pdvc # specify the folder to be evaluated
python eval.py --eval_folder ${eval_folder} --eval_transformer_input_type queries --gpu_id ${GPU_ID}
  1. PDVC with ground-truth proposals
# Training
config_path=cfgs/anet_c3d_pdvc.yml
python train.py --cfg_path ${config_path} --gpu_id ${GPU_ID}

# Evaluation
eval_folder=anet_c3d_pdvc_gt
python eval.py --eval_folder ${eval_folder} --eval_transformer_input_type gt_proposals --gpu_id ${GPU_ID}

Video Paragraph Captioning

  1. PDVC with learnt proposals
# Training
config_path=cfgs/anet_c3d_pdvc.yml
python train.py --cfg_path ${config_path} --criteria_for_best_ckpt pc --gpu_id ${GPU_ID} 

# Evaluation
eval_folder=anet_c3d_pdvc # specify the folder to be evaluated
python eval.py --eval_folder ${eval_folder} --eval_transformer_input_type queries --gpu_id ${GPU_ID}
  1. PDVC with ground-truth proposals
# Training
config_path=cfgs/anet_c3d_pdvc_gt.yml
python train.py --cfg_path ${config_path} --criteria_for_best_ckpt pc --gpu_id ${GPU_ID}

# Evaluation
eval_folder=anet_c3d_pdvc_gt
python eval.py --eval_folder ${eval_folder} --eval_transformer_input_type gt_proposals --gpu_id ${GPU_ID}

Performance

Dense video captioning

Model Features config_path Url Recall Precision BLEU4 METEOR2018 METEOR2021 CIDEr SODA_c
PDVC_light C3D cfgs/anet_c3d_pdvcl.yml Google Drive 55.30 58.42 1.55 7.13 7.66 24.80 5.23
PDVC C3D cfgs/anet_c3d_pdvc.yml Google Drive 55.20 57.36 1.82 7.48 8.09 28.16 5.47
PDVC_light TSN cfgs/anet_tsn_pdvcl.yml Google Drive 55.34 57.97 1.66 7.41 7.97 27.23 5.51
PDVC TSN cfgs/anet_tsn_pdvc.yml Google Drive 56.21 57.46 1.92 8.00 8.63 29.00 5.68
PDVC_light TSP cfgs/anet_tsp_pdvcl.yml Google Drive 55.24 57.78 1.77 7.94 8.55 28.25 5.95
PDVC TSP cfgs/anet_tsp_pdvc.yml Google Drive 55.79 57.39 2.17 8.37 9.03 31.14 6.05

Notes:

Video paragraph captioning

Model Features config_path BLEU4 METEOR CIDEr
PDVC C3D cfgs/anet_c3d_pdvc.yml 9.67 14.74 16.43
PDVC TSN cfgs/anet_tsn_pdvc.yml 10.18 15.96 20.66
PDVC TSP cfgs/anet_tsp_pdvc.yml 10.46 16.42 20.91

Notes:

  • Paragraph-level scores are evaluated on the ActivityNet Entity ae-val set.

Citation

If you find this repo helpful, please consider citing:

@inproceedings{wang2021end,
  title={End-to-End Dense Video Captioning with Parallel Decoding},
  author={Wang, Teng and Zhang, Ruimao and Lu, Zhichao and Zheng, Feng and Cheng, Ran and Luo, Ping},
  booktitle={Proceedings of the IEEE/CVF International Conference on Computer Vision},
  pages={6847--6857},
  year={2021}
}
@ARTICLE{wang2021echr,
  author={Wang, Teng and Zheng, Huicheng and Yu, Mingjing and Tian, Qian and Hu, Haifeng},
  journal={IEEE Transactions on Circuits and Systems for Video Technology}, 
  title={Event-Centric Hierarchical Representation for Dense Video Captioning}, 
  year={2021},
  volume={31},
  number={5},
  pages={1890-1900},
  doi={10.1109/TCSVT.2020.3014606}}

Acknowledgement

The implementation of Deformable Transformer is mainly based on Deformable DETR. The implementation of the captioning head is based on ImageCaptioning.pytorch. We thanks the authors for their efforts.

Owner
Teng Wang
My research interests focus on deep learning and computer vision.
Teng Wang
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