Starter Code for VALUE benchmark

Overview

StarterCode for VALUE Benchmark

This is the starter code for VALUE Benchmark [website], [paper].

Overview of VALUE Benchmark

This repository currently supports all baseline models in VALUE paper, including training with different video-subtitle fusion methods, different input channels, different visual representations and multi-task training. You can also perform transfer evaluation between different tasks with our evaluation code.

Before dive into the baseline models mentioned above, please make yourself familiar with the codebase by going through the examples in Quick Start and Single Task Finetuning.

The code in this repo are copied/modified from open-source implementations made available by HERO.

Updates

  • [7/27/2021] Please re-download violin_test_private.db at this link if you downloaded via script/download_violin.sh prior to 7/27/2021. The previous version is not consistent with our release, sorry for your inconvenience.

Requirements

We use the provided Docker image in HERO for easier reproduction. Please follow Requirements in HERO to set up the environment.

Quick Start

NOTE: Please run bash scripts/download_pretrained.sh $PATH_TO_STORAGE to get the latest pretrained checkpoints from HERO.

We use TVR as an end-to-end example for single-task finetuning.

  1. Download processed data and pretrained models with the following command.

    bash scripts/download_tvr.sh $PATH_TO_STORAGE

    After downloading you should see the following folder structure:

    ├── video_db
    │   ├── tv
    ├── pretrained
    │   └── hero-tv-ht100.pt
    └── txt_db
        ├── tv_subtitles.db
        ├── tvr_train.db
        ├── tvr_val.db
        └── tvr_test.db
    
  2. Launch the Docker container for running the experiments.

    # docker image should be automatically pulled
    source launch_container.sh $PATH_TO_STORAGE/txt_db $PATH_TO_STORAGE/video_db \
        $PATH_TO_STORAGE/finetune $PATH_TO_STORAGE/pretrained

    The launch script respects $CUDA_VISIBLE_DEVICES environment variable. Note that the source code is mounted into the container under /src instead of built into the image so that user modification will be reflected without re-building the image. (Data folders are mounted into the container separately for flexibility on folder structures.)

  3. Run finetuning for the TVR task.

    # inside the container
    horovodrun -np 8 python train_retrieval.py --config config/train-tvr-8gpu.json \
        --output_dir $YOUR_TVR_OUTPUT_DIR
    
    # for single gpu
    python train_retrieval.py --config $YOUR_CONFIG_JSON
  4. Run inference for the TVR task.

    # inference, inside the container
    python eval_vcmr.py --query_txt_db /txt/tvr_val.db/ --split val \
        --vfeat_db /video/tv/ --sub_txt_db /txt/tv_subtitles.db/ \
        --output_dir $YOUR_TVR_OUTPUT_DIR --checkpoint $BEST_CKPT_STEP \
        --task tvr
    

    The result file will be written at ${YOUR_TVR_OUTPUT_DIR}/results_val/results_${BEST_CKPT_STEP}_all.json. Change to --query_txt_db /txt/tvr_test.db/ --split test for inference on test split. Please format the result file as requested in VALUE Evaluation Tools for submission, this repository does not include formatting.

  5. Misc. In case you would like to reproduce the whole preprocessing pipeline.

  • Text annotation and subtitle preprocessing

    # outside of the container
    # make sure you have downloaded/constructed the video dbs for TV dataset
    # the prepro of tv_subtitles.db requires information from video_db/tv
    bash scripts/create_txtdb.sh $PATH_TO_STORAGE/txt_db \
        $PATH_TO_STORAGE/ann $PATH_TO_STORAGE/video_db
  • Video feature extraction

    We follow feature extraction code at HERO_Video_Feature_Extractor. Please follow the link for instructions to extract video features from ResNet, SlowFast, S3D in Mil-NCE and CLIP-ViT models. These features are saved as separate .npz files per video.

  • Video feature preprocessing and saved to lmdb

    # inside of the container
    
    # Use resnet_slowfast as an example
    # Gather slowfast/resnet feature paths
    python scripts/collect_video_feature_paths.py  \
        --feature_dir $PATH_TO_STORAGE/vis_feat_dir\
        --output $PATH_TO_STORAGE/video_db --dataset $DATASET_NAME \
        --feat_version resnet_slowfast 
    
    # Convert to lmdb
    python scripts/convert_videodb.py \
        --vfeat_info_file $PATH_TO_STORAGE/video_db/$DATASET_NAME/resnet_slowfast_info.pkl \
        --output $PATH_TO_STORAGE/video_db --dataset $DATASET_NAME --frame_length 1.5 \
        --feat_version resnet_slowfast
    • --frame_length: 1 feature per "frame_length" seconds, we use 1.5 in our implementation. set it to be consistent with the one used in feature extraction.
    • --compress: enable compression of lmdb
    • --feat_version: choose from resnet_slowfast, resnet_mil-nce(ResNet+S3D in paper), clip-vit_slowfast, clip-vit_mil-nce(CLIP-ViT+S3D in paper).

VALUE Single Task Finetuning

Video Retrieval Tasks

All video retrieval tasks can be finetuned with train_retrieval.py. We use YC2R as an additional example to show how to perform single-task finetuning on video retrieval tasks.

  1. download data
    # outside of the container
    bash scripts/download_yc2.sh $PATH_TO_STORAGE
  2. train
    # inside the container
    horovodrun -np 4 python train_retrieval.py --config config/train-yc2r-4gpu.json \
        --output_dir $YC2R_EXP
  3. inference
    # inside the container
    python eval_vr.py --query_txt_db /txt/yc2r_test.db/ --split test \
        --vfeat_db /video/yc2/ --sub_txt_db /txt/yc2_subtitles.db/ \
        --output_dir $YC2R_EXP --checkpoint $ckpt --task yc2r
    The result file will be written at $YC2R_EXP/results_test/results_$ckpt_all.json, which can be submitted to the evaluation server. Please format the result file as requested in VALUE Evaluation Tools for submission.

Video QA Tasks

All video question answering models can be finetuned with train_qa.py. We use TVQA to demonstrate how to perform single-task finetuning on video question answering tasks.

  1. download data

    # outside of the container
    bash scripts/download_tvqa.sh $PATH_TO_STORAGE
  2. train

    # inside the container
    horovodrun -np 8 python train_qa.py --config config/train-tvqa-8gpu.json \
        --output_dir $TVQA_EXP
  3. inference

    # inside the container
    horovodrun -np 8 python eval_videoQA.py --query_txt_db /txt/tvqa_test.db/ --split test \
        --vfeat_db /video/tv/ --sub_txt_db /txt/tv_subtitles.db/ \
        --output_dir $TVQA_EXP --checkpoint $ckpt --task tvqa

    The result file will be written at $TVQA_EXP/results_test/results_$ckpt_all.json, which can be submitted to the evaluation server. Please format the result file as requested in VALUE Evaluation Tools for submission.

    Use eval_violin.py for inference on VIOLIN task.

Captioning tasks

All video captioning models can be finetuned with train_captioning.py. We use TVC to demonstrate how to perform single-task finetuning on video captioning tasks.

  1. download data

    # outside of the container
    bash scripts/download_tvc.sh $PATH_TO_STORAGE
  2. train

    # inside the container
    horovodrun -np 8 python train_captioning.py --config config/train-tvc-8gpu.json \
        --output_dir $TVC_EXP
  3. inference

    # inside the container
    python inf_tvc.py --model_dir $TVC_EXP --ckpt_step $ckpt \
        --target_clip /txt/tvc_val_release.jsonl --output tvc_val_output.jsonl
    • The result file will be written at $TVC_EXP/tvc_val_output.jsonl
    • change to --target_clip /txt/tvc_test_release.jsonl for test results.
    • see scripts/prepro_tvc.sh for LMDB preprocessing.

    Use inf_vatex_en_c.py / inf_yc2c.py for inference on VATEX_EN_C / YC2C task.

VALUE Multi-Task Finetuning

  1. download data

    # outside of the container
    bash scripts/download_all.sh $PATH_TO_STORAGE
  2. train

    # inside the container
    horovodrun -np 8 python train_all_multitask.py \
        --config config/train-all-multitask-8gpu.json \
        --output_dir $AT_PT_FT_EXP
    • --config: change config file for different multi-task settings.
      • MT by domain group: config/train-tv_domain-multitask-8gpu.json / config/train-youtube_domain-multitask-8gpu.json
      • MT by task type: config/train-retrieval-multitask-8gpu.json / config/train-qa-multitask-8gpu.json / config/train-caption-multitask-8gpu.json
      • AT: config/train-all-multitask-8gpu.json
    • For multi-task baselines without pre-training, refer to configs under config/FT_only_configs
  3. inference

    Follow the inference instructions above for each task.

Training with Different Input Channels

To reproduce our experiments with different input channels, change the training config via --config. Take TVR as an example:

  1. Video-only
    # inside the container
    horovodrun -np 8 python train_retrieval.py \
        --config config/FT_only_configs/train-tvr_video_only-8gpu.json \
        --output_dir $TVR_V_only_EXP
  2. Subtitle-only
    # inside the container
    
    horovodrun -np 8 python train_retrieval.py \
        --config config/FT_only_configs/train-tvr_sub_only-8gpu.json \
        --output_dir $TVR_S_only_EXP
  3. Video + Subtitle
    # inside the container
    
    horovodrun -np 8 python train_retrieval.py \
        --config config/FT_only_configs/train-tvr-8gpu.json \
        --output_dir $TVR_EXP

Training with Different Video-Subtitle Fusion Methods

To reproduce our experiments with different video-subtitle fusion methods, change the fusion methods via --model_config for training. Take TVR as an example:

# Training, inside the container
horovodrun -np 8 python train_retrieval.py --config config/FT_only_configs/train-tvr-8gpu.json \
    --output_dir $TVR_EXP --model_config config/model_config/hero_finetune.json
  • config/model_config/hero_finetune.json: default temporal align + cross-modal transformer
  • config/model_config/video_sub_sequence_finetune.json: sequence concatenation
  • config/model_config/video_sub_feature_add_finetune.json: temporal align + summation
  • config/model_config/video_sub_feature_concat_finetune.json: temporal align + concatenation

For two-stream experiments in our paper, please train video-only and subtitle-only models following Training with Video-only and Subtitle-only and use evaluation scripts in two_stream_eval. Take TVR as an example,

# Evaluation, inside the container
python eval_vcmr.py --query_txt_db /txt/tvr_val.db/ --split val \
    --vfeat_db /video/tv/ --sub_txt_db /txt/tv_subtitles.db/ \
    --video_only_model_dir $TVR_V_only_EXP --video_only_checkpoint $BEST_V_only_CKPT_STEP \
    --sub_only_model_dir $TVR_S_only_EXP --sub_only_checkpoint $BEST_S_only_CKPT_STEP \
    --task tvr

Training with Different Visual Representations

To reproduce our experiments with different visual representations, change the visual representations via --vfeat_version for training. Take TVR as an example:

# inside the container
horovodrun -np 8 python train_retrieval.py --config config/FT_only_configs/train-tvr-8gpu.json \
    --output_dir $TVR_EXP --vfeat_version resnet

We provide all feature variations used in the paper, including:

  • 2D features: resnet and clip-vit
  • 3D features: mil-nce(S3D in paper) and slowfast
  • 2D+3D features: resnet_slowfast, resnet_mil-nce(ResNet+S3D in paper), clip-vit_mil-nce(CLIP-ViT+S3D in paper), clip-vit_slowfast
  • --vfeat_version: default is set to be resnet_slowfast

Task Transferability Evaluation

To reproduce our experiments about task transferability, you will need to first have a trained model on source task and run evaluation on target task. Take TVR->How2R as an example:

  1. Train on TVR task
    # inside the container
    horovodrun -np 8 python train_retrieval.py --config config/FT_only_configs/train-tvr-8gpu.json \
        --output_dir $TVR_EXP 
  2. Evaluate the trained model on How2R task:
    # inside the container
    python eval_vcmr.py --query_txt_db /txt/how2r_val_1k.db/ --split val \
        --vfeat_db /video/how2/ --sub_txt_db /txt/how2_subtitles.db/ \
        --output_dir $TVR_EXP --checkpoint $BEST_TVR_CKPT_STEP \
        --task how2r

Pre-training

All VALUE baselines are based on the pre-trained checkpoint released in HERO. The pre-training experiments are not tested in this codebase.

If you wish to perform pre-training, please refer to instructions in HERO.

Citation

If you find this code useful for your research, please consider citing:

@inproceedings{li2021value,
  title={VALUE: A Multi-Task Benchmark for Video-and-Language Understanding Evaluation},
  author={Li, Linjie and Lei, Jie and Gan, Zhe and Yu, Licheng and Chen, Yen-Chun and Pillai, Rohit and Cheng, Yu and Zhou, Luowei and Wang, Xin Eric and Wang, William Yang and others},
  booktitle={35th Conference on Neural Information Processing Systems (NeurIPS 2021) Track on Datasets and Benchmarks},
  year={2021}
}

@inproceedings{li2020hero,
  title={HERO: Hierarchical Encoder for Video+ Language Omni-representation Pre-training},
  author={Li, Linjie and Chen, Yen-Chun and Cheng, Yu and Gan, Zhe and Yu, Licheng and Liu, Jingjing},
  booktitle={EMNLP},
  year={2020}
}

License

MIT

Owner
VALUE Benchmark
VALUE Benchmark
Contrastive Learning for Metagenomic Binning

CLMB A simple framework for CLMB - a novel deep Contrastive Learningfor Metagenomic Binning Created by Pengfei Zhang, senior of Department of Computer

1 Sep 14, 2022
[ICLR2021] Unlearnable Examples: Making Personal Data Unexploitable

Unlearnable Examples Code for ICLR2021 Spotlight Paper "Unlearnable Examples: Making Personal Data Unexploitable " by Hanxun Huang, Xingjun Ma, Sarah

Hanxun Huang 98 Dec 07, 2022
Segmentation and Identification of Vertebrae in CT Scans using CNN, k-means Clustering and k-NN

Segmentation and Identification of Vertebrae in CT Scans using CNN, k-means Clustering and k-NN If you use this code for your research, please cite ou

41 Dec 08, 2022
An implementation of Fastformer: Additive Attention Can Be All You Need in TensorFlow

Fast Transformer This repo implements Fastformer: Additive Attention Can Be All You Need by Wu et al. in TensorFlow. Fast Transformer is a Transformer

Rishit Dagli 139 Dec 28, 2022
《Geo Word Clouds》paper implementation

《Geo Word Clouds》paper implementation

Russellwzr 2 Jan 28, 2022
Kroomsa: A search engine for the curious

Kroomsa A search engine for the curious. It is a search algorithm designed to en

Wingify 7 Jun 20, 2022
Local Multi-Head Channel Self-Attention for FER2013

LHC-Net Local Multi-Head Channel Self-Attention This repository is intended to provide a quick implementation of the LHC-Net and to replicate the resu

12 Jan 04, 2023
SurvITE: Learning Heterogeneous Treatment Effects from Time-to-Event Data

SurvITE: Learning Heterogeneous Treatment Effects from Time-to-Event Data SurvITE: Learning Heterogeneous Treatment Effects from Time-to-Event Data Au

14 Nov 28, 2022
Pytorch Geometric Tutorials

Pytorch Geometric Tutorials

Antonio Longa 648 Jan 08, 2023
Robust Video Matting in PyTorch, TensorFlow, TensorFlow.js, ONNX, CoreML!

Robust Video Matting in PyTorch, TensorFlow, TensorFlow.js, ONNX, CoreML!

Peter Lin 6.5k Jan 04, 2023
Pre-Training Graph Neural Networks for Cold-Start Users and Items Representation.

Pretrain-Recsys This is our Tensorflow implementation for our WSDM 2021 paper: Bowen Hao, Jing Zhang, Hongzhi Yin, Cuiping Li, Hong Chen. Pre-Training

30 Nov 14, 2022
Code accompanying "Dynamic Neural Relational Inference" from CVPR 2020

Code accompanying "Dynamic Neural Relational Inference" This codebase accompanies the paper "Dynamic Neural Relational Inference" from CVPR 2020. This

Colin Graber 48 Dec 23, 2022
PyTorch implementation of Lip to Speech Synthesis with Visual Context Attentional GAN (NeurIPS2021)

Lip to Speech Synthesis with Visual Context Attentional GAN This repository contains the PyTorch implementation of the following paper: Lip to Speech

6 Nov 02, 2022
Demonstrates iterative FGSM on Apple's NeuralHash model.

apple-neuralhash-attack Demonstrates iterative FGSM on Apple's NeuralHash model. TL;DR: It is possible to apply noise to CSAM images and make them loo

Lim Swee Kiat 11 Jun 23, 2022
HiFT: Hierarchical Feature Transformer for Aerial Tracking (ICCV2021)

HiFT: Hierarchical Feature Transformer for Aerial Tracking Ziang Cao, Changhong Fu, Junjie Ye, Bowen Li, and Yiming Li Our paper is Accepted by ICCV 2

Intelligent Vision for Robotics in Complex Environment 55 Nov 23, 2022
This repository contains code from the paper "TTS-GAN: A Transformer-based Time-Series Generative Adversarial Network"

TTS-GAN: A Transformer-based Time-Series Generative Adversarial Network This repository contains code from the paper "TTS-GAN: A Transformer-based Tim

Intelligent Multimodal Computing and Sensing Laboratory (IMICS Lab) - Texas State University 108 Dec 29, 2022
🔮 A refreshing functional take on deep learning, compatible with your favorite libraries

Thinc: A refreshing functional take on deep learning, compatible with your favorite libraries From the makers of spaCy, Prodigy and FastAPI Thinc is a

Explosion 2.6k Dec 30, 2022
Contrastive Learning for Many-to-many Multilingual Neural Machine Translation(mCOLT/mRASP2), ACL2021

Contrastive Learning for Many-to-many Multilingual Neural Machine Translation(mCOLT/mRASP2), ACL2021 The code for training mCOLT/mRASP2, a multilingua

104 Jan 01, 2023
Conditional Generative Adversarial Networks (CGAN) for Mobility Data Fusion

This code implements the paper, Kim et al. (2021). Imputing Qualitative Attributes for Trip Chains Extracted from Smart Card Data Using a Conditional Generative Adversarial Network. Transportation Re

Eui-Jin Kim 2 Feb 03, 2022
Paddle-Skeleton-Based-Action-Recognition - DecoupleGCN-DropGraph, ASGCN, AGCN, STGCN

Paddle-Skeleton-Action-Recognition DecoupleGCN-DropGraph, ASGCN, AGCN, STGCN. Yo

Chenxu Peng 3 Nov 02, 2022