This repo contains downloading instructions for the OpenViDial dataset in
OpenViDial: A Large-Scale, Open-Domain Dialogue Dataset with Visual Contexts
along with the code to reproduce results in the paper
Modeling Text-visual Mutual Dependency for Multi-modal dialog Generation
When humans converse, what a speaker will say next significantly depends on what he sees. OpenViDial is a largescale multi-module dialogue dataset for this purpose. The dialogue turns and visual contexts are extracted from movies and TV series, where each dialogue turn is paired with the corresponding visual context in which it takes place. OpenViDial contains a total number of 1.1 million dialogue turns, and thus 1.1 million visual contexts stored in images.
The following are two short conversations where visual contexts are crucial.
| Attribute | value |
|---|---|
| Number of turns | 1.1M |
| Number of images | 1.1M |
| Vocab size before BPE | 70K |
| Vocab size after BPE | 30K |
| Average length of each episode | 14 |
| Average length of each turn | 7.6 |
***** New March 12th, 2021: New cnn/rcnn feature on test/valid dataset *****
We fixed the bug of cnn/rcnn features on valid/test dataset and re-run the experiments on the new data. Evaluation metrics are also updated.
The main folder origin_dir contains training/valid/test sets, each of which is made up by the following files:
├──origin_dir
└── train.dialogue.jsonl // each line is an episode of dialogue, which a list of IDs.
└── train.origin.txt // each line corresponds to a dialogue text utterence, with the ID being its line number (staring with 0).
└── train_images // containing images (visual contexts) in which the text utterence take place, with ID being the image filename (0,1,2, etc)
└── 0.jpg
└── 1.jpg
└── ...
└── valid.* (i.e., valid.dialogue.jsonl, valid.origin.txt, valid_images)
└── test.* (i.e., test.dialogue.jsonl, test.origin.txt, test_images)
If you'd like to take a glance at the a sample of the dataset instead of downloading the full dataset, we provide a data sample here
Data download:
- Download
[train|valid|test].origin.txtand[train|valid|test].dialogue.jsonlhere - Download
test_images(~ 20G) here - Download
valid_images(~ 20G) here - Download train_images: Since train_images is too big (~ 170G), we split it to 12 zip files. Download seperate files
zip_trainhere. Then download and runcat.shhere to include all files in the same directory. - Move all files to
origin_dir.
We proposed three models for this dataset. Please refer to the paper for details:
- Model #1 - NoVisual: use only dialog texts without visual information
- Model #2 - CoarseVisual: use texts and a pretrained ResNet50 on ImageNet to compute 1000-d feature from each picture
- Model #3 - FineVisual: use texts and a pretrained Faster R-CNN on Genome to compute 2048-d * K objects features from each picture
- python >= 3.6
pip install -r requirements.txt
preprocessed_data_dir is a directory that contains all the preprocessed files (text, image feature mmap, offsets, etc.) generated from origin_data_dir and we use them in training models. The directory structure is shown below.
Note: every train* file or directory should have a 'valid' and a 'test' counterpart, we ignore them below for simplicity.
├──preprocessed_data_dir
└── train.features.mmap // numpy mmap array file of shape [num_sents, 1000], each row is a 1000-d ResNet-50 feature
└── train.objects.mmap // numpy mmap array file of shape [num_sents, 20, 2048], faster-rcnn object feature file, each row contain 20 objects feature, which is 2048-d
└── train.objects_mask.mmap // numpy mmap array file of shape [num_sents, 20], faster-rcnn mask file, each row contain 20 objects mask, 1 for valid, 0 for mask
└── train.offsets.npy // numpy array file of shape [num_episodes], each item is the offsets of one episode
└── train.sent_num.npy // numpy array file of shape [num_episodes], each item is the sentence number of one episode
We use Moses Tokenizer to tokenize texts and generate offsets arrays:
bash ./scripts/preprocess_video_data.sh
and followed with byte-pair-encoding and fairseq-preprocess binarization:
bash ./scripts/preprocess_text_data.sh
Note: You need to change DATA_DIR, ORIGIN_DIR, OUTPUT_DIR to your own path
The compression file of preprocessed ResNet50 features (feature_files.tar.gz) (~3.7G) can be downloaded from here. You can get preprocessed ResNet50 features (*.features.mmap) by command tar zxvf feature_files.tar.gz and move them under preprocessed_data_dir/
The compression file of preprocessed Faster R-CNN objects features (object_files.tar.gz) (~50G) can be downloaded from here. You can get preprocessed Faster R-CNN objects features (*objects.mmap, *objects_mask.mmap) by command tar zxvf object_files.tar.gz and move them under preprocessed_data_dir/
Each of files has a hash value by command md5sum fileName. You can get it from here and we suggest you check each file's hash value before training.
If you want to extract some feature on your own, or you'd like to know details of extracting visual features, see video_dialogue_model/extract_features/extract_features.md
bash scripts/reproduce_baselines/text_only.sh will train and evaluate NoVisual,
Remember to change MODEL_DIR and DATA_DIR for your setup.
Note: fairseq may use all gpus on your machine and the actual batch size is times by number of gpus.
Therefore, if you use multiple gpus, batch size should be devided by number of gpus.
bash scripts/reproduce_baselines/text_and_img_feature.sh will train and evaluate CoarseVisual.
Remember to change MODEL_DIR and DATA_DIR for your setup. Please make sure you use one single gpu to reproduce our results.
bash scripts/reproduce_baselines/text_and_img_objects.sh will train and evaluate FineVisual,
Remember to change MODEL_DIR and DATA_DIR for your setup. Please make sure you use one single gpu to reproduce our results.
For NV seeing ./mmi/text/README.md. The structure of training data used in both CV and FV is same as the former part.
bash ./mmi/text/train.sh && bash ./mmi/text/mmi_generate.sh will train and evaluate MI-NV. Remember to change all the MODEL_DIR and DATA_DIR for your setup. Please make sure you use one signle gpu to reproduce our results.
bash ./mmi/feature/scrtpts/train_image.sh && bash ./mmi/feature/scrtpts/mmi_feature_generate.sh will train and evaluate MI-CV. Remember to change all the MODEL_DIR and DATA_DIR for your setup. Please make sure you use one signle gpu to reproduce our results.
bash ./mmi/feature/scrtpts/train_object.sh && bash ./mmi/feature/scrtpts/mmi_object_generate.sh will train and evaluate MI-FV. Remember to change all the MODEL_DIR and DATA_DIR for your setup. Please make sure you use one signle gpu to reproduce our results.
- get diversity statistics of system output:
train/stats.py - get rouge statistics of system output:
train/rouge.py
| Model | BLEU-1 | BLEU-2 | BLEU-4 | Dis-1 | Dis-2 | Dis-3 | Dis-4 | ROUGE-1 | ROUGE-2 | ROUGE-4 |
|---|---|---|---|---|---|---|---|---|---|---|
| 1-NV | 14.06 | 3.80 | 0.95 | 0.0006 | 0.0019 | 0.0031 | 0.0043 | 0.06787 | 0.01464 | 0.00224 |
| 2-CV | 14.70 | 4.38 | 1.14 | 0.0023 | 0.0090 | 0.0178 | 0.0272 | 0.08773 | 0.02067 | 0.00347 |
| 3-FV | 14.85 | 4.61 | 1.19 | 0.0026 | 0.0112 | 0.0246 | 0.0406 | 0.09083 | 0.02085 | 0.00329 |
| 4-MI-NV | 14.27 | 3.89 | 0.99 | 0.0006 | 0.0022 | 0.0036 | 0.0043 | 0.06918 | 0.01497 | 0.00238 |
| 5-MI-CV | 14.77 | 4.46 | 1.16 | 0.0023 | 0.0091 | 0.0181 | 0.0272 | 0.08791 | 0.02077 | 0.00350 |
| 6-MI-FV | 14.95 | 4.67 | 1.22 | 0.0027 | 0.0117 | 0.0261 | 0.0433 | 0.09100 | 0.02090 | 0.00338 |



