Update parquet files

.gitattributes

@@ -1,31 +0,0 @@
-*.7z filter=lfs diff=lfs merge=lfs -text
-*.arrow filter=lfs diff=lfs merge=lfs -text
-*.bin filter=lfs diff=lfs merge=lfs -text
-*.bin.* filter=lfs diff=lfs merge=lfs -text
-*.bz2 filter=lfs diff=lfs merge=lfs -text
-*.ftz filter=lfs diff=lfs merge=lfs -text
-*.gz filter=lfs diff=lfs merge=lfs -text
-*.h5 filter=lfs diff=lfs merge=lfs -text
-*.joblib filter=lfs diff=lfs merge=lfs -text
-*.lfs.* filter=lfs diff=lfs merge=lfs -text
-*.model filter=lfs diff=lfs merge=lfs -text
-*.msgpack filter=lfs diff=lfs merge=lfs -text
-*.onnx filter=lfs diff=lfs merge=lfs -text
-*.ot filter=lfs diff=lfs merge=lfs -text
-*.parquet filter=lfs diff=lfs merge=lfs -text
-*.pb filter=lfs diff=lfs merge=lfs -text
-*.pt filter=lfs diff=lfs merge=lfs -text
-*.pth filter=lfs diff=lfs merge=lfs -text
-*.rar filter=lfs diff=lfs merge=lfs -text
-saved_model/**/* filter=lfs diff=lfs merge=lfs -text
-*.tar.* filter=lfs diff=lfs merge=lfs -text
-*.tflite filter=lfs diff=lfs merge=lfs -text
-*.tgz filter=lfs diff=lfs merge=lfs -text
-*.xz filter=lfs diff=lfs merge=lfs -text
-*.zip filter=lfs diff=lfs merge=lfs -text
-*.zstandard filter=lfs diff=lfs merge=lfs -text
-*tfevents* filter=lfs diff=lfs merge=lfs -text
-dataset_infos.json filter=lfs diff=lfs merge=lfs -text
-test.json filter=lfs diff=lfs merge=lfs -text
-train.json filter=lfs diff=lfs merge=lfs -text
-validation.json filter=lfs diff=lfs merge=lfs -text

README.md

@@ -1,673 +0,0 @@
----
-annotations_creators:
-- automatically-created
-language_creators:
-- unknown
-language:
-- en
-- de
-license:
-- cc-by-4.0
-multilinguality:
-- unknown
-size_categories:
-- unknown
-source_datasets:
-- original
-task_categories:
-- table-to-text
-task_ids: []
-pretty_name: RotoWire_English-German
-tags:
-- data-to-text
----
-
-# Dataset Card for GEM/RotoWire_English-German
-
-## Dataset Description
-
-- **Homepage:** https://sites.google.com/view/wngt19/dgt-task
-- **Repository:** https://github.com/neulab/dgt
-- **Paper:** https://www.aclweb.org/anthology/D19-5601/
-- **Leaderboard:** N/A
-- **Point of Contact:** Hiroaki Hayashi
-
-### Link to Main Data Card
-
-You can find the main data card on the [GEM Website](https://gem-benchmark.com/data_cards/RotoWire_English-German).
-
-### Dataset Summary 
-
-This dataset is a data-to-text dataset in the basketball domain. The input are tables in a fixed format with statistics about a game (in English) and the target is a German translation of the originally English description. The translations were done by professional translators with basketball experience. The dataset can be used to evaluate the cross-lingual data-to-text capabilities of a model with complex inputs. 
-
-You can load the dataset via:
-```
-import datasets
-data = datasets.load_dataset('GEM/RotoWire_English-German')
-```
-The data loader can be found [here](https://huggingface.co/datasets/GEM/RotoWire_English-German).
-
-#### website
-[Website](https://sites.google.com/view/wngt19/dgt-task)
-
-#### paper
-[ACL Anthology](https://www.aclweb.org/anthology/D19-5601/)
-
-#### authors
-Graham Neubig (Carnegie Mellon University), Hiroaki Hayashi (Carnegie Mellon University)
-
-## Dataset Overview
-
-### Where to find the Data and its Documentation
-
-#### Webpage
-
-<!-- info: What is the webpage for the dataset (if it exists)? -->
-<!-- scope: telescope -->
-[Website](https://sites.google.com/view/wngt19/dgt-task)
-
-#### Download
-
-<!-- info: What is the link to where the original dataset is hosted? -->
-<!-- scope: telescope -->
-[Github](https://github.com/neulab/dgt)
-
-#### Paper
-
-<!-- info: What is the link to the paper describing the dataset (open access preferred)? -->
-<!-- scope: telescope -->
-[ACL Anthology](https://www.aclweb.org/anthology/D19-5601/)
-
-#### BibTex
-
-<!-- info: Provide the BibTex-formatted reference for the dataset. Please use the correct published version (ACL anthology, etc.) instead of google scholar created Bibtex. -->
-<!-- scope: microscope -->
-```
-@inproceedings{hayashi-etal-2019-findings,
-    title = "Findings of the Third Workshop on Neural Generation and Translation",
-    author = "Hayashi, Hiroaki  and
-      Oda, Yusuke  and
-      Birch, Alexandra  and
-      Konstas, Ioannis  and
-      Finch, Andrew  and
-      Luong, Minh-Thang  and
-      Neubig, Graham  and
-      Sudoh, Katsuhito",
-    booktitle = "Proceedings of the 3rd Workshop on Neural Generation and Translation",
-    month = nov,
-    year = "2019",
-    address = "Hong Kong",
-    publisher = "Association for Computational Linguistics",
-    url = "https://aclanthology.org/D19-5601",
-    doi = "10.18653/v1/D19-5601",
-    pages = "1--14",
-    abstract = "This document describes the findings of the Third Workshop on Neural Generation and Translation, held in concert with the annual conference of the Empirical Methods in Natural Language Processing (EMNLP 2019). First, we summarize the research trends of papers presented in the proceedings. Second, we describe the results of the two shared tasks 1) efficient neural machine translation (NMT) where participants were tasked with creating NMT systems that are both accurate and efficient, and 2) document generation and translation (DGT) where participants were tasked with developing systems that generate summaries from structured data, potentially with assistance from text in another language.",
-}
-```
-
-#### Contact Name
-
-<!-- quick -->
-<!-- info: If known, provide the name of at least one person the reader can contact for questions about the dataset. -->
-<!-- scope: periscope -->
-Hiroaki Hayashi
-
-#### Contact Email
-
-<!-- info: If known, provide the email of at least one person the reader can contact for questions about the dataset. -->
-<!-- scope: periscope -->
-[email protected]
-
-#### Has a Leaderboard?
-
-<!-- info: Does the dataset have an active leaderboard? -->
-<!-- scope: telescope -->
-no
-
-
-### Languages and Intended Use
-
-#### Multilingual?
-
-<!-- quick -->
-<!-- info: Is the dataset multilingual? -->
-<!-- scope: telescope -->
-yes
-
-#### Covered Languages
-
-<!-- quick -->
-<!-- info: What languages/dialects are covered in the dataset? -->
-<!-- scope: telescope -->
-`English`, `German`
-
-#### License
-
-<!-- quick -->
-<!-- info: What is the license of the dataset? -->
-<!-- scope: telescope -->
-cc-by-4.0: Creative Commons Attribution 4.0 International
-
-#### Intended Use
-
-<!-- info: What is the intended use of the dataset? -->
-<!-- scope: microscope -->
-Foster the research on document-level generation technology and contrast the methods for different types of inputs.
-
-#### Primary Task
-
-<!-- info: What primary task does the dataset support? -->
-<!-- scope: telescope -->
-Data-to-Text
-
-#### Communicative Goal
-
-<!-- quick -->
-<!-- info: Provide a short description of the communicative goal of a model trained for this task on this dataset. -->
-<!-- scope: periscope -->
-Describe a basketball game given its box score table (and possibly a summary in a foreign language).
-
-
-### Credit
-
-#### Curation Organization Type(s)
-
-<!-- info: In what kind of organization did the dataset curation happen? -->
-<!-- scope: telescope -->
-`academic`
-
-#### Curation Organization(s)
-
-<!-- info: Name the organization(s). -->
-<!-- scope: periscope -->
-Carnegie Mellon University
-
-#### Dataset Creators
-
-<!-- info: Who created the original dataset? List the people involved in collecting the dataset and their affiliation(s). -->
-<!-- scope: microscope -->
-Graham Neubig (Carnegie Mellon University), Hiroaki Hayashi (Carnegie Mellon University)
-
-#### Funding
-
-<!-- info: Who funded the data creation? -->
-<!-- scope: microscope -->
-Graham Neubig
-
-#### Who added the Dataset to GEM?
-
-<!-- info: Who contributed to the data card and adding the dataset to GEM? List the people+affiliations involved in creating this data card and who helped integrate this dataset into GEM. -->
-<!-- scope: microscope -->
-Hiroaki Hayashi (Carnegie Mellon University)
-
-
-### Dataset Structure
-
-#### Data Fields
-
-<!-- info: List and describe the fields present in the dataset. -->
-<!-- scope: telescope -->
-- `id` (`string`): The identifier from the original dataset.
-- `gem_id` (`string`): The identifier from GEMv2.
-- `day` (`string`): Date of the game (Format: `MM_DD_YY`)
-- `home_name` (`string`): Home team name.
-- `home_city` (`string`): Home team city name.
-- `vis_name` (`string`): Visiting (Away) team name.
-- `vis_city` (`string`): Visiting team (Away) city name.
-- `home_line` (`Dict[str, str]`): Home team statistics (e.g., team free throw percentage).
-- `vis_line` (`Dict[str, str]`): Visiting team statistics (e.g., team free throw percentage).
-- `box_score` (`Dict[str, Dict[str, str]]`): Box score table. (Stat_name to [player ID to stat_value].)
-- `summary_en` (`List[string]`): Tokenized target summary in English.
-- `sentence_end_index_en` (`List[int]`): Sentence end indices for `summary_en`.
-- `summary_de` (`List[string]`): Tokenized target summary in German.
-- `sentence_end_index_de` (`List[int]`): ): Sentence end indices for `summary_de`.
-- (Unused) `detok_summary_org` (`string`): Original summary provided by RotoWire dataset.
-- (Unused) `summary` (`List[string]`): Tokenized summary of `detok_summary_org`.
-- (Unused) `detok_summary` (`string`): Detokenized (with organizer's detokenizer) summary of `summary`.
-
-
-#### Reason for Structure
-
-<!-- info: How was the dataset structure determined? -->
-<!-- scope: microscope -->
-- Structured data are directly imported from the original RotoWire dataset.
-- Textual data (English, German) are associated to each sample.
-
-#### Example Instance
-
-<!-- info: Provide a JSON formatted example of a typical instance in the dataset. -->
-<!-- scope: periscope -->
-```
-{
-  'id': '11_02_16-Jazz-Mavericks-TheUtahJazzdefeatedthe',
-  'gem_id': 'GEM-RotoWire_English-German-train-0'
-  'day': '11_02_16',
-  'home_city': 'Utah',
-  'home_name': 'Jazz',
-  'vis_city': 'Dallas',
-  'vis_name': 'Mavericks',
-  'home_line': {
-    'TEAM-FT_PCT': '58', ...
-  },
-  'vis_line': {
-    'TEAM-FT_PCT': '80', ...
-  },
-  'box_score': {
-    'PLAYER_NAME': {
-      '0': 'Harrison Barnes', ...
-  }, ...
-  'summary_en': ['The', 'Utah', 'Jazz', 'defeated', 'the', 'Dallas', 'Mavericks', ...],
-  'sentence_end_index_en': [16, 52, 100, 137, 177, 215, 241, 256, 288],
-  'summary_de': ['Die', 'Utah', 'Jazz', 'besiegten', 'am', 'Mittwoch', 'in', 'der', ...],
-  'sentence_end_index_de': [19, 57, 107, 134, 170, 203, 229, 239, 266],
-  'detok_summary_org': "The Utah Jazz defeated the Dallas Mavericks 97 - 81 ...",
-  'detok_summary': "The Utah Jazz defeated the Dallas Mavericks 97-81 ...",
-  'summary': ['The', 'Utah', 'Jazz', 'defeated', 'the', 'Dallas', 'Mavericks', ...],
-}
-```
-
-#### Data Splits
-
-<!-- info: Describe and name the splits in the dataset if there are more than one. -->
-<!-- scope: periscope -->
-- Train
-- Validation
-- Test
-
-#### Splitting Criteria
-
-<!-- info: Describe any criteria for splitting the data, if used. If there are differences between the splits (e.g., if the training annotations are machine-generated and the dev and test ones are created by humans, or if different numbers of annotators contributed to each example), describe them here. -->
-<!-- scope: microscope -->
-- English summaries are provided sentence-by-sentence to professional German translators with basketball knowledge to obtain sentence-level German translations.
-- Split criteria follows the original RotoWire dataset.
-
-#### 
-
-<!-- info: What does an outlier of the dataset in terms of length/perplexity/embedding look like? -->
-<!-- scope: microscope -->
-- The (English) summary length in the training set varies from 145 to 650 words, with an average of 323 words.
-
-
-
-## Dataset in GEM
-
-### Rationale for Inclusion in GEM
-
-#### Why is the Dataset in GEM?
-
-<!-- info: What does this dataset contribute toward better generation evaluation and why is it part of GEM? -->
-<!-- scope: microscope -->
-The use of two modalities (data, foreign text) to generate a document-level text summary.
-
-#### Similar Datasets
-
-<!-- info: Do other datasets for the high level task exist? -->
-<!-- scope: telescope -->
-yes
-
-#### Unique Language Coverage
-
-<!-- info: Does this dataset cover other languages than other datasets for the same task? -->
-<!-- scope: periscope -->
-yes
-
-#### Difference from other GEM datasets
-
-<!-- info: What else sets this dataset apart from other similar datasets in GEM? -->
-<!-- scope: microscope -->
-The potential use of two modalities (data, foreign text) as input.
-
-#### Ability that the Dataset measures
-
-<!-- info: What aspect of model ability can be measured with this dataset? -->
-<!-- scope: periscope -->
-- Translation
-- Data-to-text verbalization
-- Aggregation of the two above.
-
-
-### GEM-Specific Curation
-
-#### Modificatied for GEM?
-
-<!-- info: Has the GEM version of the dataset been modified in any way (data, processing, splits) from the original curated data? -->
-<!-- scope: telescope -->
-yes
-
-#### GEM Modifications
-
-<!-- info: What changes have been made to he original dataset? -->
-<!-- scope: periscope -->
-`other`
-
-#### Modification Details
-
-<!-- info: For each of these changes, described them in more details and provided the intended purpose of the modification -->
-<!-- scope: microscope -->
-- Added GEM ID in each sample.
-- Normalize the number of players in each sample with "N/A" for consistent data loading.
-
-#### Additional Splits?
-
-<!-- info: Does GEM provide additional splits to the dataset? -->
-<!-- scope: telescope -->
-no
-
-
-### Getting Started with the Task
-
-#### Pointers to Resources
-
-<!-- info: Getting started with in-depth research on the task. Add relevant pointers to resources that researchers can consult when they want to get started digging deeper into the task. -->
-<!-- scope: microscope -->
-- [Challenges in Data-to-Document Generation](https://aclanthology.org/D17-1239)
-- [Data-to-Text Generation with Content Selection and Planning](https://ojs.aaai.org//index.php/AAAI/article/view/4668)
-- [Findings of the Third Workshop on Neural Generation and Translation](https://aclanthology.org/D19-5601)
-
-#### Technical Terms
-
-<!-- info: Technical terms used in this card and the dataset and their definitions -->
-<!-- scope: microscope -->
-- Data-to-text
-- Neural machine translation (NMT)
-- Document-level generation and translation (DGT) 
-
-
-
-## Previous Results
-
-### Previous Results
-
-#### Measured Model Abilities
-
-<!-- info: What aspect of model ability can be measured with this dataset? -->
-<!-- scope: telescope -->
-- Textual accuracy towards the gold-standard summary.
-- Content faithfulness to the input structured data.
-
-#### Metrics
-
-<!-- info: What metrics are typically used for this task? -->
-<!-- scope: periscope -->
-`BLEU`, `ROUGE`, `Other: Other Metrics`
-
-#### Other Metrics
-
-<!-- info: Definitions of other metrics -->
-<!-- scope: periscope -->
-Model-based measures proposed by (Wiseman et al., 2017):
-- Relation Generation
-- Content Selection
-- Content Ordering
-
-#### Proposed Evaluation
-
-<!-- info: List and describe the purpose of the metrics and evaluation methodology (including human evaluation) that the dataset creators used when introducing this task. -->
-<!-- scope: microscope -->
-To evaluate the fidelity of the generated content to the input data.
-
-#### Previous results available?
-
-<!-- info: Are previous results available? -->
-<!-- scope: telescope -->
-yes
-
-#### Other Evaluation Approaches
-
-<!-- info: What evaluation approaches have others used? -->
-<!-- scope: periscope -->
-N/A.
-
-#### Relevant Previous Results
-
-<!-- info: What are the most relevant previous results for this task/dataset? -->
-<!-- scope: microscope -->
-See Table 2 to 7 of (https://aclanthology.org/D19-5601) for previous results for this dataset.
-
-
-
-## Dataset Curation
-
-### Original Curation
-
-#### Original Curation Rationale
-
-<!-- info: Original curation rationale -->
-<!-- scope: telescope -->
-A random subset of RotoWire dataset was chosen for German translation annotation.
-
-#### Communicative Goal
-
-<!-- info: What was the communicative goal? -->
-<!-- scope: periscope -->
-Foster the research on document-level generation technology and contrast the methods for different types of inputs.
-
-#### Sourced from Different Sources
-
-<!-- info: Is the dataset aggregated from different data sources? -->
-<!-- scope: telescope -->
-yes
-
-#### Source Details
-
-<!-- info: List the sources (one per line) -->
-<!-- scope: periscope -->
-RotoWire
-
-
-### Language Data
-
-#### How was Language Data Obtained?
-
-<!-- info: How was the language data obtained? -->
-<!-- scope: telescope -->
-`Created for the dataset`
-
-#### Creation Process
-
-<!-- info: If created for the dataset, describe the creation process. -->
-<!-- scope: microscope -->
-Professional German language translators were hired to translate basketball summaries from a subset of RotoWire dataset.
-
-#### Language Producers
-
-<!-- info: What further information do we have on the language producers? -->
-<!-- scope: microscope -->
-Translators are familiar with basketball terminology.
-
-#### Topics Covered
-
-<!-- info: Does the language in the dataset focus on specific topics? How would you describe them? -->
-<!-- scope: periscope -->
-Basketball (NBA) game summaries.
-
-#### Data Validation
-
-<!-- info: Was the text validated by a different worker or a data curator? -->
-<!-- scope: telescope -->
-validated by data curator
-
-#### Data Preprocessing
-
-<!-- info: How was the text data pre-processed? (Enter N/A if the text was not pre-processed) -->
-<!-- scope: microscope -->
-Sentence-level translations were aligned back to the original English summary sentences.
-
-#### Was Data Filtered?
-
-<!-- info: Were text instances selected or filtered? -->
-<!-- scope: telescope -->
-not filtered
-
-
-### Structured Annotations
-
-#### Additional Annotations?
-
-<!-- quick -->
-<!-- info: Does the dataset have additional annotations for each instance? -->
-<!-- scope: telescope -->
-automatically created
-
-#### Annotation Service?
-
-<!-- info: Was an annotation service used? -->
-<!-- scope: telescope -->
-no
-
-#### Annotation Values
-
-<!-- info: Purpose and values for each annotation -->
-<!-- scope: microscope -->
-Sentence-end indices for the tokenized summaries. Sentence boundaries can help users accurately identify aligned sentences in both languages, as well as allowing an accurate evaluation that involves sentence boundaries (ROUGE-L).
-
-#### Any Quality Control?
-
-<!-- info: Quality control measures? -->
-<!-- scope: telescope -->
-validated through automated script
-
-#### Quality Control Details
-
-<!-- info: Describe the quality control measures that were taken. -->
-<!-- scope: microscope -->
-Token and number overlaps between pairs of aligned sentences are measured.
-
-
-### Consent
-
-#### Any Consent Policy?
-
-<!-- info: Was there a consent policy involved when gathering the data? -->
-<!-- scope: telescope -->
-no
-
-#### Justification for Using the Data
-
-<!-- info: If not, what is the justification for reusing the data? -->
-<!-- scope: microscope -->
-Reusing by citing the original papers:
-- Sam Wiseman, Stuart M. Shieber, Alexander M. Rush:
-Challenges in Data-to-Document Generation. EMNLP 2017.
-- Hiroaki Hayashi, Yusuke Oda, Alexandra Birch, Ioannis Konstas, Andrew Finch, Minh-Thang Luong, Graham Neubig, Katsuhito Sudoh. Findings of the Third Workshop on Neural Generation and Translation. WNGT 2019.
-
-
-### Private Identifying Information (PII)
-
-#### Contains PII?
-
-<!-- quick -->
-<!-- info: Does the source language data likely contain Personal Identifying Information about the data creators or subjects? -->
-<!-- scope: telescope -->
-unlikely
-
-#### Categories of PII
-
-<!-- info: What categories of PII are present or suspected in the data? -->
-<!-- scope: periscope -->
-`generic PII`
-
-#### Any PII Identification?
-
-<!-- info: Did the curators use any automatic/manual method to identify PII in the dataset? -->
-<!-- scope: periscope -->
-no identification
-
-
-### Maintenance
-
-#### Any Maintenance Plan?
-
-<!-- info: Does the original dataset have a maintenance plan? -->
-<!-- scope: telescope -->
-no
-
-
-
-## Broader Social Context
-
-### Previous Work on the Social Impact of the Dataset
-
-#### Usage of Models based on the Data
-
-<!-- info: Are you aware of cases where models trained on the task featured in this dataset ore related tasks have been used in automated systems? -->
-<!-- scope: telescope -->
-no
-
-
-### Impact on Under-Served Communities
-
-#### Addresses needs of underserved Communities?
-
-<!-- info: Does this dataset address the needs of communities that are traditionally underserved in language technology, and particularly language generation technology? Communities may be underserved for exemple because their language, language variety, or social or geographical context is underepresented in NLP and NLG resources (datasets and models). -->
-<!-- scope: telescope -->
-no
-
-
-### Discussion of Biases
-
-#### Any Documented Social Biases?
-
-<!-- info: Are there documented social biases in the dataset? Biases in this context are variations in the ways members of different social categories are represented that can have harmful downstream consequences for members of the more disadvantaged group. -->
-<!-- scope: telescope -->
-no
-
-#### Are the Language Producers Representative of the Language?
-
-<!-- info: Does the distribution of language producers in the dataset accurately represent the full distribution of speakers of the language world-wide? If not, how does it differ? -->
-<!-- scope: periscope -->
-- English text in this dataset is from Rotowire, originally written by writers at Rotowire.com that are likely US-based.
-- German text is produced by professional translators proficient in both English and German.
-
-
-
-## Considerations for Using the Data
-
-### PII Risks and Liability
-
-#### Potential PII Risk
-
-<!-- info: Considering your answers to the PII part of the Data Curation Section, describe any potential privacy to the data subjects and creators risks when using the dataset. -->
-<!-- scope: microscope -->
-- Structured data contain real National Basketball Association player and organization names.
-
-
-### Licenses
-
-#### Copyright Restrictions on the Dataset
-
-<!-- info: Based on your answers in the Intended Use part of the Data Overview Section, which of the following best describe the copyright and licensing status of the dataset? -->
-<!-- scope: periscope -->
-`open license - commercial use allowed`
-
-#### Copyright Restrictions on the Language Data
-
-<!-- info: Based on your answers in the Language part of the Data Curation Section, which of the following best describe the copyright and licensing status of the underlying language data? -->
-<!-- scope: periscope -->
-`open license - commercial use allowed`
-
-
-### Known Technical Limitations
-
-#### Technical Limitations
-
-<!-- info: Describe any known technical limitations, such as spurrious correlations, train/test overlap, annotation biases, or mis-annotations, and cite the works that first identified these limitations when possible. -->
-<!-- scope: microscope -->
-Potential overlap of box score tables between splits. This was extensively studied and pointed out by [1].
-
-[1]: Thomson, Craig, Ehud Reiter, and Somayajulu Sripada. "SportSett: Basketball-A robust and maintainable data-set for Natural Language Generation." Proceedings of the Workshop on Intelligent Information Processing and Natural Language Generation. 2020.
-
-#### Unsuited Applications
-
-<!-- info: When using a model trained on this dataset in a setting where users or the public may interact with its predictions, what are some pitfalls to look out for? In particular, describe some applications of the general task featured in this dataset that its curation or properties make it less suitable for. -->
-<!-- scope: microscope -->
-Users may interact with a trained model to learn about a NBA game in a textual manner. On generated texts, they may observe factual errors that contradicts the actual data that the model conditions on.
-Factual errors include wrong statistics of a player (e.g., 3PT), non-existent injury information.
-
-#### Discouraged Use Cases
-
-<!-- info: What are some discouraged use cases of a model trained to maximize the proposed metrics on this dataset? In particular, think about settings where decisions made by a model that performs reasonably well on the metric my still have strong negative consequences for user or members of the public. -->
-<!-- scope: microscope -->
-Publishing the generated text as is. Even if the model achieves high scores on the evaluation metrics, there is a risk of factual errors mentioned above.
-
-

RotoWire_English-German.json

@@ -1,183 +0,0 @@
-{
-  "overview": {
-    "where": {
-      "has-leaderboard": "no",
-      "leaderboard-url": "N/A",
-      "leaderboard-description": "N/A",
-      "website": "[Website](https://sites.google.com/view/wngt19/dgt-task)",
-      "data-url": "[Github](https://github.com/neulab/dgt)",
-      "paper-url": "[ACL Anthology](https://www.aclweb.org/anthology/D19-5601/)",
-      "paper-bibtext": "```\n@inproceedings{hayashi-etal-2019-findings,\n    title = \"Findings of the Third Workshop on Neural Generation and Translation\",\n    author = \"Hayashi, Hiroaki  and\n      Oda, Yusuke  and\n      Birch, Alexandra  and\n      Konstas, Ioannis  and\n      Finch, Andrew  and\n      Luong, Minh-Thang  and\n      Neubig, Graham  and\n      Sudoh, Katsuhito\",\n    booktitle = \"Proceedings of the 3rd Workshop on Neural Generation and Translation\",\n    month = nov,\n    year = \"2019\",\n    address = \"Hong Kong\",\n    publisher = \"Association for Computational Linguistics\",\n    url = \"https://aclanthology.org/D19-5601\",\n    doi = \"10.18653/v1/D19-5601\",\n    pages = \"1--14\",\n    abstract = \"This document describes the findings of the Third Workshop on Neural Generation and Translation, held in concert with the annual conference of the Empirical Methods in Natural Language Processing (EMNLP 2019). First, we summarize the research trends of papers presented in the proceedings. Second, we describe the results of the two shared tasks 1) efficient neural machine translation (NMT) where participants were tasked with creating NMT systems that are both accurate and efficient, and 2) document generation and translation (DGT) where participants were tasked with developing systems that generate summaries from structured data, potentially with assistance from text in another language.\",\n}\n```",
-      "contact-name": "Hiroaki Hayashi",
-      "contact-email": "[email protected]"
-    },
-    "languages": {
-      "is-multilingual": "yes",
-      "license": "cc-by-4.0: Creative Commons Attribution 4.0 International",
-      "task-other": "N/A",
-      "language-names": [
-        "English",
-        "German"
-      ],
-      "intended-use": "Foster the research on document-level generation technology and contrast the methods for different types of inputs.",
-      "license-other": "N/A",
-      "task": "Data-to-Text",
-      "communicative": "Describe a basketball game given its box score table (and possibly a summary in a foreign language)."
-    },
-    "credit": {
-      "organization-type": [
-        "academic"
-      ],
-      "organization-names": "Carnegie Mellon University",
-      "creators": "Graham Neubig (Carnegie Mellon University), Hiroaki Hayashi (Carnegie Mellon University)",
-      "funding": "Graham Neubig",
-      "gem-added-by": "Hiroaki Hayashi (Carnegie Mellon University)"
-    },
-    "structure": {
-      "data-fields": "- `id` (`string`): The identifier from the original dataset.\n- `gem_id` (`string`): The identifier from GEMv2.\n- `day` (`string`): Date of the game (Format: `MM_DD_YY`)\n- `home_name` (`string`): Home team name.\n- `home_city` (`string`): Home team city name.\n- `vis_name` (`string`): Visiting (Away) team name.\n- `vis_city` (`string`): Visiting team (Away) city name.\n- `home_line` (`Dict[str, str]`): Home team statistics (e.g., team free throw percentage).\n- `vis_line` (`Dict[str, str]`): Visiting team statistics (e.g., team free throw percentage).\n- `box_score` (`Dict[str, Dict[str, str]]`): Box score table. (Stat_name to [player ID to stat_value].)\n- `summary_en` (`List[string]`): Tokenized target summary in English.\n- `sentence_end_index_en` (`List[int]`): Sentence end indices for `summary_en`.\n- `summary_de` (`List[string]`): Tokenized target summary in German.\n- `sentence_end_index_de` (`List[int]`): ): Sentence end indices for `summary_de`.\n- (Unused) `detok_summary_org` (`string`): Original summary provided by RotoWire dataset.\n- (Unused) `summary` (`List[string]`): Tokenized summary of `detok_summary_org`.\n- (Unused) `detok_summary` (`string`): Detokenized (with organizer's detokenizer) summary of `summary`.\n",
-      "structure-description": "- Structured data are directly imported from the original RotoWire dataset.\n- Textual data (English, German) are associated to each sample.",
-      "structure-labels": "N/A",
-      "structure-splits": "- Train\n- Validation\n- Test",
-      "structure-example": "```\n{\n  'id': '11_02_16-Jazz-Mavericks-TheUtahJazzdefeatedthe',\n  'gem_id': 'GEM-RotoWire_English-German-train-0'\n  'day': '11_02_16',\n  'home_city': 'Utah',\n  'home_name': 'Jazz',\n  'vis_city': 'Dallas',\n  'vis_name': 'Mavericks',\n  'home_line': {\n    'TEAM-FT_PCT': '58', ...\n  },\n  'vis_line': {\n    'TEAM-FT_PCT': '80', ...\n  },\n  'box_score': {\n    'PLAYER_NAME': {\n      '0': 'Harrison Barnes', ...\n  }, ...\n  'summary_en': ['The', 'Utah', 'Jazz', 'defeated', 'the', 'Dallas', 'Mavericks', ...],\n  'sentence_end_index_en': [16, 52, 100, 137, 177, 215, 241, 256, 288],\n  'summary_de': ['Die', 'Utah', 'Jazz', 'besiegten', 'am', 'Mittwoch', 'in', 'der', ...],\n  'sentence_end_index_de': [19, 57, 107, 134, 170, 203, 229, 239, 266],\n  'detok_summary_org': \"The Utah Jazz defeated the Dallas Mavericks 97 - 81 ...\",\n  'detok_summary': \"The Utah Jazz defeated the Dallas Mavericks 97-81 ...\",\n  'summary': ['The', 'Utah', 'Jazz', 'defeated', 'the', 'Dallas', 'Mavericks', ...],\n}\n```",
-      "structure-splits-criteria": "- English summaries are provided sentence-by-sentence to professional German translators with basketball knowledge to obtain sentence-level German translations.\n- Split criteria follows the original RotoWire dataset.",
-      "structure-outlier": "- The (English) summary length in the training set varies from 145 to 650 words, with an average of 323 words."
-    },
-    "what": {
-      "dataset": "This dataset is a data-to-text dataset in the basketball domain. The input are tables in a fixed format with statistics about a game (in English) and the target is a German translation of the originally English description. The translations were done by professional translators with basketball experience. The dataset can be used to evaluate the cross-lingual data-to-text capabilities of a model with complex inputs. "
-    }
-  },
-  "curation": {
-    "original": {
-      "is-aggregated": "yes",
-      "aggregated-sources": "RotoWire",
-      "rationale": "A random subset of RotoWire dataset was chosen for German translation annotation.",
-      "communicative": "Foster the research on document-level generation technology and contrast the methods for different types of inputs."
-    },
-    "language": {
-      "found": [],
-      "crowdsourced": [],
-      "created": "Professional German language translators were hired to translate basketball summaries from a subset of RotoWire dataset.",
-      "machine-generated": "N/A",
-      "validated": "validated by data curator",
-      "is-filtered": "not filtered",
-      "filtered-criteria": "N/A",
-      "obtained": [
-        "Created for the dataset"
-      ],
-      "producers-description": "Translators are familiar with basketball terminology.",
-      "topics": "Basketball (NBA) game summaries.",
-      "pre-processed": "Sentence-level translations were aligned back to the original English summary sentences."
-    },
-    "annotations": {
-      "origin": "automatically created",
-      "rater-number": "N/A",
-      "rater-qualifications": "N/A",
-      "rater-training-num": "N/A",
-      "rater-test-num": "N/A",
-      "rater-annotation-service-bool": "no",
-      "rater-annotation-service": [],
-      "values": "Sentence-end indices for the tokenized summaries. Sentence boundaries can help users accurately identify aligned sentences in both languages, as well as allowing an accurate evaluation that involves sentence boundaries (ROUGE-L).",
-      "quality-control": "validated through automated script",
-      "quality-control-details": "Token and number overlaps between pairs of aligned sentences are measured."
-    },
-    "consent": {
-      "has-consent": "no",
-      "consent-policy": "N/A",
-      "consent-other": "N/A",
-      "no-consent-justification": "Reusing by citing the original papers:\n- Sam Wiseman, Stuart M. Shieber, Alexander M. Rush:\nChallenges in Data-to-Document Generation. EMNLP 2017.\n- Hiroaki Hayashi, Yusuke Oda, Alexandra Birch, Ioannis Konstas, Andrew Finch, Minh-Thang Luong, Graham Neubig, Katsuhito Sudoh. Findings of the Third Workshop on Neural Generation and Translation. WNGT 2019."
-    },
-    "pii": {
-      "has-pii": "unlikely",
-      "no-pii-justification": "N/A",
-      "is-pii-identified": "no identification",
-      "pii-identified-method": "N/A",
-      "is-pii-replaced": "N/A",
-      "pii-replaced-method": "N/A",
-      "pii-categories": [
-        "generic PII"
-      ]
-    },
-    "maintenance": {
-      "has-maintenance": "no",
-      "description": "N/A",
-      "contact": "N/A",
-      "contestation-mechanism": "N/A",
-      "contestation-link": "N/A",
-      "contestation-description": "N/A"
-    }
-  },
-  "gem": {
-    "rationale": {
-      "sole-task-dataset": "yes",
-      "distinction-description": "The potential use of two modalities (data, foreign text) as input.",
-      "sole-language-task-dataset": "yes",
-      "contribution": "The use of two modalities (data, foreign text) to generate a document-level text summary.",
-      "model-ability": "- Translation\n- Data-to-text verbalization\n- Aggregation of the two above."
-    },
-    "curation": {
-      "has-additional-curation": "yes",
-      "modification-types": [
-        "other"
-      ],
-      "modification-description": "- Added GEM ID in each sample.\n- Normalize the number of players in each sample with \"N/A\" for consistent data loading.",
-      "has-additional-splits": "no",
-      "additional-splits-description": "N/A",
-      "additional-splits-capacicites": "N/A"
-    },
-    "starting": {
-      "technical-terms": "- Data-to-text\n- Neural machine translation (NMT)\n- Document-level generation and translation (DGT) ",
-      "research-pointers": "- [Challenges in Data-to-Document Generation](https://aclanthology.org/D17-1239)\n- [Data-to-Text Generation with Content Selection and Planning](https://ojs.aaai.org//index.php/AAAI/article/view/4668)\n- [Findings of the Third Workshop on Neural Generation and Translation](https://aclanthology.org/D19-5601)"
-    }
-  },
-  "results": {
-    "results": {
-      "other-metrics-definitions": "Model-based measures proposed by (Wiseman et al., 2017):\n- Relation Generation\n- Content Selection\n- Content Ordering",
-      "has-previous-results": "yes",
-      "current-evaluation": "N/A.",
-      "previous-results": "See Table 2 to 7 of (https://aclanthology.org/D19-5601) for previous results for this dataset.",
-      "metrics": [
-        "BLEU",
-        "ROUGE",
-        "Other: Other Metrics"
-      ],
-      "original-evaluation": "To evaluate the fidelity of the generated content to the input data.",
-      "model-abilities": "- Textual accuracy towards the gold-standard summary.\n- Content faithfulness to the input structured data."
-    }
-  },
-  "considerations": {
-    "pii": {
-      "risks-description": "- Structured data contain real National Basketball Association player and organization names."
-    },
-    "licenses": {
-      "dataset-restrictions-other": "N/A",
-      "data-copyright-other": "N/A",
-      "dataset-restrictions": [
-        "open license - commercial use allowed"
-      ],
-      "data-copyright": [
-        "open license - commercial use allowed"
-      ]
-    },
-    "limitations": {
-      "data-technical-limitations": "Potential overlap of box score tables between splits. This was extensively studied and pointed out by [1].\n\n[1]: Thomson, Craig, Ehud Reiter, and Somayajulu Sripada. \"SportSett: Basketball-A robust and maintainable data-set for Natural Language Generation.\" Proceedings of the Workshop on Intelligent Information Processing and Natural Language Generation. 2020.",
-      "data-unsuited-applications": "Users may interact with a trained model to learn about a NBA game in a textual manner. On generated texts, they may observe factual errors that contradicts the actual data that the model conditions on.\nFactual errors include wrong statistics of a player (e.g., 3PT), non-existent injury information.",
-      "data-discouraged-use": "Publishing the generated text as is. Even if the model achieves high scores on the evaluation metrics, there is a risk of factual errors mentioned above."
-    }
-  },
-  "context": {
-    "previous": {
-      "is-deployed": "no",
-      "described-risks": "N/A",
-      "changes-from-observation": "N/A"
-    },
-    "underserved": {
-      "helps-underserved": "no",
-      "underserved-description": "N/A"
-    },
-    "biases": {
-      "has-biases": "no",
-      "bias-analyses": "N/A",
-      "speaker-distibution": "- English text in this dataset is from Rotowire, originally written by writers at Rotowire.com that are likely US-based.\n- German text is produced by professional translators proficient in both English and German."
-    }
-  }
-}

RotoWire_English-German.py

@@ -1,501 +0,0 @@
-# coding=utf-8
-# Copyright 2020 The HuggingFace Datasets Authors and the current dataset script contributor.
-#
-# Licensed under the Apache License, Version 2.0 (the "License");
-# you may not use this file except in compliance with the License.
-# You may obtain a copy of the License at
-#
-#     http://www.apache.org/licenses/LICENSE-2.0
-#
-# Unless required by applicable law or agreed to in writing, software
-# distributed under the License is distributed on an "AS IS" BASIS,
-# WITHOUT WARRANTIES OR CONDITIONS OF ANY KIND, either express or implied.
-# See the License for the specific language governing permissions and
-# limitations under the License.
-"""Dataloader for RotoWire English-German dataset."""
-
-import json
-import os
-
-import datasets
-import re
-
-# Find for instance the citation on arxiv or on the dataset repo/website
-_CITATION = """\
-@article{hayashi2019findings,
-  title={Findings of the Third Workshop on Neural Generation and Translation},
-  author={Hayashi, Hiroaki and Oda, Yusuke and Birch, Alexandra and Konstas, Ioannis and Finch, Andrew and Luong, Minh-Thang and Neubig, Graham and Sudoh, Katsuhito},
-  journal={EMNLP-IJCNLP 2019},
-  pages={1},
-  year={2019}
-}
-"""
-
-# You can copy an official description
-_DESCRIPTION = """\
-Dataset for the WNGT 2019 DGT shared task on "Document-Level Generation and Translation”.
-"""
-
-_HOMEPAGE = "https://sites.google.com/view/wngt19/dgt-task"
-
-_LICENSE = "CC-BY 4.0"
-
-# The HuggingFace dataset library don't host the datasets but only point to the original files
-# This can be an arbitrary nested dict/list of URLs (see below in `_split_generators` method)
-_URLs = {
-    "train": "train.json",
-    "validation": "validation.json",
-    "test": "test.json"
-}
-
-NUM_PLAYERS = 13
-player_line = "<PLAYER> %s <TEAM> %s <POS> %s <RANK> %s <MIN> %d <PTS> %d <FG> %d %d %d <FG3> %d %d %d " \
-              "<FT> %d %d %d <REB> %d <AST> %d <STL> %s " \
-              "<BLK> %d <DREB> %d <OREB> %d <TO> %d"
-
-team_line = "%s <TEAM> %s <CITY> %s <TEAM-RESULT> %s <TEAM-PTS> %d <WINS-LOSSES> %d %d <QTRS> %d %d %d %d " \
-            "<TEAM-AST> %d <3PT> %d <TEAM-FG> %d <TEAM-FT> %d <TEAM-REB> %d <TEAM-TO> %d"
-
-def detokenize(text):
-    """
-    Untokenizing a text undoes the tokenizing operation, restoring
-    punctuation and spaces to the places that people expect them to be.
-    Ideally, `untokenize(tokenize(text))` should be identical to `text`,
-    except for line breaks.
-    """
-    step1 = text.replace("`` ", '"').replace(" ''", '"').replace('. . .',  '...')
-    step2 = step1.replace(" ( ", " (").replace(" ) ", ") ")
-    step3 = re.sub(r' ([.,:;?!%]+)([ \'"`])', r"\1\2", step2)
-    step4 = re.sub(r' ([.,:;?!%]+)$', r"\1", step3)
-    step5 = step4.replace(" '", "'").replace(" n't", "n't").replace(
-         "can not", "cannot").replace(" 've", "'ve")
-    step6 = step5.replace(" ` ", " '")
-    return step6.strip()
-
-class RotowireEnglishGerman(datasets.GeneratorBasedBuilder):
-    """Dataset for WNGT2019 shared task on Document-level Generation and Translation."""
-
-    VERSION = datasets.Version("1.1.0")
-
-    # This is an example of a dataset with multiple configurations.
-    # If you don't want/need to define several sub-sets in your dataset,
-    # just remove the BUILDER_CONFIG_CLASS and the BUILDER_CONFIGS attributes.
-
-    # If you need to make complex sub-parts in the datasets with configurable options
-    # You can create your own builder configuration class to store attribute, inheriting from datasets.BuilderConfig
-    # BUILDER_CONFIG_CLASS = MyBuilderConfig
-
-    # You will be able to load one or the other configurations in the following list with
-    # data = datasets.load_dataset('my_dataset', 'first_domain')
-    # data = datasets.load_dataset('my_dataset', 'second_domain')
-    # BUILDER_CONFIGS = [
-    #     datasets.BuilderConfig(name="nlg_en", version=VERSION, description="NLG: Data-to-English text."),
-    #     datasets.BuilderConfig(name="nlg_de", version=VERSION, description="NLG: Data-to-German text."),
-    #     datasets.BuilderConfig(name="mt_en-de", version=VERSION, description="MT: English-to-German text."),
-    #     datasets.BuilderConfig(name="mt_de-en", version=VERSION, description="MT: German-to-English text."),
-    #     datasets.BuilderConfig(name="nlg+mt_en-de", version=VERSION, description="NLG+MT: Data+English-to-German text."),
-    #     datasets.BuilderConfig(name="nlg+mt_de-en", version=VERSION, description="NLG+MT: Data+German-to-English text."),
-    # ]
-
-    def _info(self):
-        # max 26 entries in each box_score field.
-        box_score_entry = {str(i): datasets.Value("string") for i in range(26)}
-        box_score_features = {
-            "FIRST_NAME": box_score_entry,
-            "MIN": box_score_entry,
-            "FGM": box_score_entry,
-            "REB": box_score_entry,
-            "FG3A": box_score_entry,
-            "PLAYER_NAME": box_score_entry,
-            "AST": box_score_entry,
-            "FG3M": box_score_entry,
-            "OREB": box_score_entry,
-            "TO": box_score_entry,
-            "START_POSITION": box_score_entry,
-            "PF": box_score_entry,
-            "PTS": box_score_entry,
-            "FGA": box_score_entry,
-            "STL": box_score_entry,
-            "FTA": box_score_entry,
-            "BLK": box_score_entry,
-            "DREB": box_score_entry,
-            "FTM": box_score_entry,
-            "FT_PCT": box_score_entry,
-            "FG_PCT": box_score_entry,
-            "FG3_PCT": box_score_entry,
-            "SECOND_NAME": box_score_entry,
-            "TEAM_CITY": box_score_entry,
-        }
-        line_features = {
-            "TEAM-PTS_QTR2": datasets.Value("string"),
-            "TEAM-FT_PCT": datasets.Value("string"),
-            "TEAM-PTS_QTR1": datasets.Value("string"),
-            "TEAM-PTS_QTR4": datasets.Value("string"),
-            "TEAM-PTS_QTR3": datasets.Value("string"),
-            "TEAM-CITY": datasets.Value("string"),
-            "TEAM-PTS": datasets.Value("string"),
-            "TEAM-AST": datasets.Value("string"),
-            "TEAM-LOSSES": datasets.Value("string"),
-            "TEAM-NAME": datasets.Value("string"),
-            "TEAM-WINS": datasets.Value("string"),
-            "TEAM-REB": datasets.Value("string"),
-            "TEAM-TOV": datasets.Value("string"),
-            "TEAM-FG3_PCT": datasets.Value("string"),
-            "TEAM-FG_PCT": datasets.Value("string")
-        }
-        features = datasets.Features(
-            {
-                "id":datasets.Value("string"),
-                "gem_id":datasets.Value("string"),
-                "home_name": datasets.Value("string"),
-                "box_score": box_score_features,
-                "vis_name": datasets.Value("string"),
-                "summary": datasets.Sequence(datasets.Value("string")),
-                "home_line": line_features,
-                "home_city": datasets.Value("string"),
-                "vis_line": line_features,
-                "vis_city": datasets.Value("string"),
-                "day": datasets.Value("string"),
-                "detok_summary_org": datasets.Value("string"),
-                "detok_summary":  datasets.Value("string"),
-                "summary_en": datasets.Sequence(datasets.Value("string")),
-                "sentence_end_index_en": datasets.Sequence(datasets.Value("int32")),
-                "summary_de": datasets.Sequence(datasets.Value("string")),
-                "target": datasets.Value("string"),
-                "references": [datasets.Value("string")],
-                "sentence_end_index_de": datasets.Sequence(datasets.Value("int32")),
-                "linearized_input": datasets.Value("string")
-            }
-        )
-        return datasets.DatasetInfo(
-            # This is the description that will appear on the datasets page.
-            description=_DESCRIPTION,
-            # This defines the different columns of the dataset and their types
-            features=features,  # Here we define them above because they are different between the two configurations
-            # If there's a common (input, target) tuple from the features,
-            # specify them here. They'll be used if as_supervised=True in
-            # builder.as_dataset.
-            supervised_keys=None,
-            # Homepage of the dataset for documentation
-            homepage=_HOMEPAGE,
-            # License for the dataset if available
-            license=_LICENSE,
-            # Citation for the dataset
-            citation=_CITATION,
-        )
-
-    def _split_generators(self, dl_manager):
-        """Returns SplitGenerators."""
-        # TODO: This method is tasked with downloading/extracting the data and defining the splits depending on the configuration
-        # If several configurations are possible (listed in BUILDER_CONFIGS), the configuration selected by the user is in self.config.name
-
-        # dl_manager is a datasets.download.DownloadManager that can be used to download and extract URLs
-        # It can accept any type or nested list/dict and will give back the same structure with the url replaced with path to local files.
-        # By default the archives will be extracted and a path to a cached folder where they are extracted is returned instead of the archive
-        data_dir = dl_manager.download_and_extract(_URLs)
-        return [
-            datasets.SplitGenerator(
-                name=datasets.Split.TRAIN,
-                # These kwargs will be passed to _generate_examples
-                gen_kwargs={
-                    "filepath": data_dir["train"],
-                    "split": "train",
-                },
-            ),
-            datasets.SplitGenerator(
-                name=datasets.Split.TEST,
-                # These kwargs will be passed to _generate_examples
-                gen_kwargs={
-                    "filepath": data_dir["test"],
-                    "split": "test"
-                },
-            ),
-            datasets.SplitGenerator(
-                name=datasets.Split.VALIDATION,
-                # These kwargs will be passed to _generate_examples
-                gen_kwargs={
-                    "filepath": data_dir["validation"],
-                    "split": "validation",
-                },
-            ),
-        ]
-
-    def handle_na(self, value):
-        return "0" if value == "N/A" else value
-
-    def tokenize_initials(self, value):
-        attrib_value = re.sub(r"(\w)\.(\w)\.", r"\g<1>. \g<2>.", value)
-        return attrib_value
-
-    def sort_points(self, entry):
-        home_team_map = {}
-        vis_team_map = {}
-        bs = entry["box_score"]
-        nplayers = 0
-        for k, v in bs["PTS"].items():
-            nplayers += 1
-
-        num_home, num_vis = 0, 0
-        home_pts = []
-        vis_pts = []
-        for i in range(nplayers):
-            player_city = entry["box_score"]["TEAM_CITY"][str(i)]
-            player_name = bs["PLAYER_NAME"][str(i)]
-            if player_city == entry["home_city"]:
-                if num_home < NUM_PLAYERS:
-                    home_team_map[player_name] = bs["PTS"][str(i)]
-                    if bs["PTS"][str(i)] != "N/A":
-                        home_pts.append(int(bs["PTS"][str(i)]))
-                    num_home += 1
-            else:
-                if num_vis < NUM_PLAYERS:
-                    vis_team_map[player_name] = bs["PTS"][str(i)]
-                    if bs["PTS"][str(i)] != "N/A":
-                        vis_pts.append(int(bs["PTS"][str(i)]))
-                    num_vis += 1
-        if entry["home_city"] == entry["vis_city"] and entry["home_city"] == "Los Angeles":
-            num_home, num_vis = 0, 0
-            for i in range(nplayers):
-                player_name = bs["PLAYER_NAME"][str(i)]
-                if num_vis < NUM_PLAYERS:
-                    vis_team_map[player_name] = bs["PTS"][str(i)]
-                    if bs["PTS"][str(i)] != "N/A":
-                        vis_pts.append(int(bs["PTS"][str(i)]))
-                    num_vis += 1
-                elif num_home < NUM_PLAYERS:
-                    home_team_map[player_name] = bs["PTS"][str(i)]
-                    if bs["PTS"][str(i)] != "N/A":
-                        home_pts.append(int(bs["PTS"][str(i)]))
-                    num_home += 1
-        home_seq = sorted(home_pts, reverse=True)
-        vis_seq = sorted(vis_pts, reverse=True)
-        return home_team_map, vis_team_map, home_seq, vis_seq
-
-    def sort_player_and_points(self, entry):
-        bs = entry["box_score"]
-        nplayers = 0
-        for k, v in bs["PTS"].items():
-            nplayers += 1
-
-        num_home, num_vis = 0, 0
-        home_pts = []
-        vis_pts = []
-        for i in range(nplayers):
-            player_city = entry["box_score"]["TEAM_CITY"][str(i)]
-            player_name = bs["PLAYER_NAME"][str(i)]
-            if player_city == entry["home_city"]:
-                if num_home < NUM_PLAYERS:
-                    if bs["PTS"][str(i)] != "N/A":
-                        home_pts.append((player_name, int(bs["PTS"][str(i)])))
-                    else:
-                        home_pts.append((player_name, -1))
-                    num_home += 1
-            else:
-                if num_vis < NUM_PLAYERS:
-                    if bs["PTS"][str(i)] != "N/A":
-                        vis_pts.append((player_name, int(bs["PTS"][str(i)])))
-                    else:
-                        vis_pts.append((player_name, -1))
-                    num_vis += 1
-        if entry["home_city"] == entry["vis_city"] and entry["home_city"] == "Los Angeles":
-            num_home, num_vis = 0, 0
-            for i in range(nplayers):
-                player_name = bs["PLAYER_NAME"][str(i)]
-                if num_vis < NUM_PLAYERS:
-                    if bs["PTS"][str(i)] != "N/A":
-                        vis_pts.append((player_name, int(bs["PTS"][str(i)])))
-                    else:
-                        vis_pts.append((player_name, -1))
-                    num_vis += 1
-                elif num_home < NUM_PLAYERS:
-                    if bs["PTS"][str(i)] != "N/A":
-                        home_pts.append((player_name, int(bs["PTS"][str(i)])))
-                    else:
-                        home_pts.append((player_name, -1))
-                    num_home += 1
-        home_seq = sorted(home_pts, key=lambda x: -x[1])
-        vis_seq = sorted(vis_pts, key=lambda x: -x[1])
-        return home_seq, vis_seq
-
-    def get_players(self, entry):
-        player_team_map = {}
-        bs = entry["box_score"]
-        nplayers = 0
-        home_players, vis_players = [], []
-        for k, v in entry["box_score"]["PTS"].items():
-            nplayers += 1
-
-        num_home, num_vis = 0, 0
-        for i in range(nplayers):
-            player_city = entry["box_score"]["TEAM_CITY"][str(i)]
-            player_name = bs["PLAYER_NAME"][str(i)]
-            second_name = bs["SECOND_NAME"][str(i)]
-            first_name = bs["FIRST_NAME"][str(i)]
-            if player_city == entry["home_city"]:
-                if len(home_players) < NUM_PLAYERS:
-                    home_players.append((player_name, second_name,
-                                         first_name))
-                    player_team_map[player_name] = " ".join(
-                        [player_city, entry["home_line"]["TEAM-NAME"]])
-                    num_home += 1
-            else:
-                if len(vis_players) < NUM_PLAYERS:
-                    vis_players.append((player_name, second_name,
-                                        first_name))
-                    player_team_map[player_name] = " ".join(
-                        [player_city, entry["vis_line"]["TEAM-NAME"]])
-                    num_vis += 1
-
-        if entry["home_city"] == entry["vis_city"] and entry["home_city"] == "Los Angeles":
-            home_players, vis_players = [], []
-            num_home, num_vis = 0, 0
-            for i in range(nplayers):
-                player_name = bs["PLAYER_NAME"][str(i)]
-                second_name = bs["SECOND_NAME"][str(i)]
-                first_name = bs["FIRST_NAME"][str(i)]
-                if len(vis_players) < NUM_PLAYERS:
-                    vis_players.append((player_name, second_name,
-                                        first_name))
-                    player_team_map[player_name] = " ".join(
-                        ["Los Angeles", entry["vis_line"]["TEAM-NAME"]])
-                    num_vis += 1
-                elif len(home_players) < NUM_PLAYERS:
-                    home_players.append((player_name, second_name,
-                                         first_name))
-                    player_team_map[player_name] = " ".join(
-                        ["Los Angeles", entry["home_line"]["TEAM-NAME"]])
-                    num_home += 1
-
-        players = []
-        for ii, player_list in enumerate([home_players, vis_players]):
-            for j in range(NUM_PLAYERS):
-                players.append(player_list[j] if j < len(player_list) else ("N/A", "N/A", "N/A"))
-        return players, player_team_map
-
-    def get_result_player(self, player_name, home_name, vis_name, home_won, player_team_map):
-        if player_team_map[player_name] == home_name:
-            result = "won" if home_won else "lost"
-        elif player_team_map[player_name] == vis_name:
-            result = "lost" if home_won else "won"
-        else:
-            assert False
-        return result
-
-    def get_box_score(self, entry):
-        box_score_ = entry["box_score"]
-        if int(entry["home_line"]["TEAM-PTS"]) > int(entry["vis_line"]["TEAM-PTS"]):
-            home_won = True
-        else:
-            home_won = False
-        descs = []
-        desc = []
-        if home_won:
-            home_line = self.get_team_line(entry["home_line"], "won", "home")
-            vis_line = self.get_team_line(entry["vis_line"], "lost", "vis")
-        else:
-            home_line = self.get_team_line(entry["home_line"], "lost", "home")
-            vis_line = self.get_team_line(entry["vis_line"], "won", "vis")
-        descs.append(home_line)
-        descs.append(vis_line)
-        players_list, player_team_map = self.get_players(entry)
-        home_team_map, vis_team_map, home_player_pts, vis_player_pts = self.sort_points(entry)
-        home_player_seq, vis_player_seq = self.sort_player_and_points(entry)
-        desc = []
-        for player_name, _ in home_player_seq + vis_player_seq:
-            if player_name == "N/A":
-                continue
-            result = self.get_result_player(player_name, entry["home_city"] + " " + entry["home_line"]["TEAM-NAME"],
-                                       entry["vis_city"] + " " + entry["vis_line"]["TEAM-NAME"], home_won,
-                                       player_team_map)
-            player_line = self.get_player_line(box_score_, player_name, player_team_map, home_player_pts,
-                                          vis_player_pts, home_team_map, vis_team_map, result)
-            desc.append(player_line)
-        descs.extend(desc)
-        return descs
-
-    def get_rank(self, player_name, home_seq, vis_seq, home_team_map, vis_team_map, result):
-        if player_name in home_team_map:
-            if home_team_map[player_name] == 'N/A':
-                rank = 'HOME-DIDNTPLAY'
-            else:
-                rank = 'HOME-' + str(home_seq.index(int(home_team_map[player_name])))
-        elif player_name in vis_team_map:
-            if vis_team_map[player_name] == 'N/A':
-                rank = 'VIS-DIDNTPLAY'
-            else:
-                rank = 'VIS-' + str(vis_seq.index(int(vis_team_map[player_name])))
-        else:
-            print("player_name", player_name)
-            assert False
-        return rank
-
-    def get_player_line(self, bs, input_player_name, player_team_map, home_player_pts, vis_player_pts, home_team_map,
-                        vis_team_map, result):
-        rank = self.get_rank(input_player_name, home_player_pts, vis_player_pts, home_team_map, vis_team_map, result)
-        player_names = list(bs["PLAYER_NAME"].items())
-        player_found = False
-        player_tup = None
-        for (pid, name) in player_names:
-            if name == input_player_name:
-                player_tup = (self.tokenize_initials(name), player_team_map[input_player_name],
-                              bs["START_POSITION"][pid],
-                              rank,
-                              int(self.handle_na(bs["MIN"][pid])),
-                              int(self.handle_na(bs["PTS"][pid])),
-                              int(self.handle_na(bs["FGM"][pid])),
-                              int(self.handle_na(bs["FGA"][pid])), int(self.handle_na(bs["FG_PCT"][pid])),
-                              int(self.handle_na(bs["FG3M"][pid])), int(self.handle_na(bs["FG3A"][pid])),
-                              int(self.handle_na(bs["FG3_PCT"][pid])),
-                              int(self.handle_na(bs["FTM"][pid])), int(self.handle_na(bs["FTA"][pid])),
-                              int(self.handle_na(bs["FT_PCT"][pid])),
-                              int(self.handle_na(bs["REB"][pid])), int(self.handle_na(bs["AST"][pid])),
-                              int(self.handle_na(bs["STL"][pid])),
-                              int(self.handle_na(bs["BLK"][pid])), int(self.handle_na(bs["DREB"][pid])),
-                              int(self.handle_na(bs["OREB"][pid])), int(self.handle_na(bs["TO"][pid])))
-                player_found = True
-                break
-        assert player_found
-        return player_line % (player_tup)
-
-    def get_team_line(self, line, result, type):
-        city = line["TEAM-CITY"]
-        name = line["TEAM-NAME"]
-        wins = int(line["TEAM-WINS"])
-        losses = int(line["TEAM-LOSSES"])
-        pts = int(line["TEAM-PTS"])
-        ast = int(line["TEAM-AST"])
-        three_pointers_pct = int(line["TEAM-FG3_PCT"])
-        field_goals_pct = int(line["TEAM-FG_PCT"])
-        free_throws_pct = int(line["TEAM-FT_PCT"])
-        pts_qtr1 = int(line["TEAM-PTS_QTR1"])
-        pts_qtr2 = int(line["TEAM-PTS_QTR2"])
-        pts_qtr3 = int(line["TEAM-PTS_QTR3"])
-        pts_qtr4 = int(line["TEAM-PTS_QTR4"])
-        reb = int(line["TEAM-REB"])
-        tov = int(line["TEAM-TOV"])
-        updated_type = "<" + type.upper() + ">"
-        team_tup = (updated_type, name, city, result, pts, wins, losses, pts_qtr1, pts_qtr2, pts_qtr3, pts_qtr4, ast,
-                    three_pointers_pct, field_goals_pct, free_throws_pct, reb, tov)
-        return team_line % (team_tup)
-
-    def linearize_input(self, entry):
-        output = self.get_box_score(entry)
-        linearized_input = " ".join(output)
-        linearized_input = linearized_input.replace("  ", " ")
-        return linearized_input
-
-    def _generate_examples(
-        self, filepath, split  # method parameters are unpacked from `gen_kwargs` as given in `_split_generators`
-    ):
-        """ Yields examples as (key, example) tuples. """
-        # This method handles input defined in _split_generators to yield (key, example) tuples from the dataset.
-        # The `key` is here for legacy reason (tfds) and is not important in itself.
-
-        with open(filepath, encoding="utf-8") as f:
-            all_data = json.load(f)
-            for id_, data in enumerate(all_data):
-                detok_target = detokenize(" ".join(data['summary_de']))
-                data['linearized_input'] = self.linearize_input(data)
-                data['target'] = detok_target
-                data['references'] = [detok_target]
-                yield id_, data

dataset_infos.json → default/roto_wire_english-german-test.parquet

@@ -1,3 +1,3 @@
 version https://git-lfs.github.com/spec/v1
-oid sha256:f4a8df1f5677f21148d65ab7b5fb40074f3e5c0fb52bffbf3ebcc551ba5d66ad
-size 40690
+oid sha256:6e313e785e19f0bb455e4bd119488702f512eccd337c1eca3c1d39ac4ee47606
+size 2272605

test.json → default/roto_wire_english-german-train.parquet

@@ -1,3 +1,3 @@
 version https://git-lfs.github.com/spec/v1
-oid sha256:dda18553405cc2230e09821e4bdc71ac3950142b48b4e5cef40b12fc77c821f1
-size 4994556
+oid sha256:3268d3fe0a5d4ac758dc7a71e45389a5d6a5c7cfe7422bf19fb7a091eb077310
+size 2240630

train.json → default/roto_wire_english-german-validation.parquet

@@ -1,3 +1,3 @@
 version https://git-lfs.github.com/spec/v1
-oid sha256:e5852a77fd68e10cc94d13f08d9e84dcfb5d9192c6e2fb2ceee7bb1a6bb7a36a
-size 4953213
+oid sha256:8dc4af41dd8914114f5d971998afede507710c2341f530ffae7075c4af3c32a1
+size 2238658

validation.json

@@ -1,3 +0,0 @@
-version https://git-lfs.github.com/spec/v1
-oid sha256:919c8a1f8c593a54c4758a5bc92374f30517c594cfae647f627680e5900883d6
-size 4954756