UA-GEC: Grammatical Error Correction and Fluency Corpus for the Ukrainian Language

Overview

UA-GEC: Grammatical Error Correction and Fluency Corpus for the Ukrainian Language

This repository contains UA-GEC data and an accompanying Python library.

Data

All corpus data and metadata stay under the ./data. It has two subfolders for train and test splits

Each split (train and test) has further subfolders for different data representations:

./data/{train,test}/annotated stores documents in the annotated format

./data/{train,test}/source and ./data/{train,test}/target store the original and the corrected versions of documents. Text files in these directories are plain text with no annotation markup. These files were produced from the annotated data and are, in some way, redundant. We keep them because this format is convenient in some use cases.

Metadata

./data/metadata.csv stores per-document metadata. It's a CSV file with the following fields:

  • id (str): document identifier.
  • author_id (str): document author identifier.
  • is_native (int): 1 if the author is native-speaker, 0 otherwise
  • region (str): the author's region of birth. A special value "Інше" is used both for authors who were born outside Ukraine and authors who preferred not to specify their region.
  • gender (str): could be "Жіноча" (female), "Чоловіча" (male), or "Інша" (other).
  • occupation (str): one of "Технічна", "Гуманітарна", "Природнича", "Інша"
  • submission_type (str): one of "essay", "translation", or "text_donation"
  • source_language (str): for submissions of the "translation" type, this field indicates the source language of the translated text. Possible values are "de", "en", "fr", "ru", and "pl".
  • annotator_id (int): ID of the annotator who corrected the document.
  • partition (str): one of "test" or "train"
  • is_sensitive (int): 1 if the document contains profanity or offensive language

Annotation format

Annotated files are text files that use the following in-text annotation format: {error=>edit:::error_type=Tag}, where error and edit stand for the text item before and after correction respectively, and Tag denotes an error category (Grammar, Spelling, Punctuation, or Fluency).

Example of an annotated sentence:

    I {likes=>like:::error_type=Grammar} turtles.

An accompanying Python package, ua_gec, provides many tools for working with annotated texts. See its documentation for details.

Train-test split

We expect users of the corpus to train and tune their models on the train split only. Feel free to further split it into train-dev (or use cross-validation).

Please use the test split only for reporting scores of your final model. In particular, never optimize on the test set. Do not tune hyperparameters on it. Do not use it for model selection in any way.

Next section lists the per-split statistics.

Statistics

UA-GEC contains:

Split Documents Sentences Tokens Authors
train 851 18,225 285,247 416
test 160 2,490 43,432 76
TOTAL 1,011 20,715 328,779 492

See stats.txt for detailed statistics generated by the following command (ua-gec must be installed first):

$ make stats

Python library

Alternatively to operating on data files directly, you may use a Python package called ua_gec. This package includes the data and has classes to iterate over documents, read metadata, work with annotations, etc.

Getting started

The package can be easily installed by pip:

    $ pip install ua_gec==1.1

Alternatively, you can install it from the source code:

    $ cd python
    $ python setup.py develop

Iterating through corpus

Once installed, you may get annotated documents from the Python code:

    
    >>> from ua_gec import Corpus
    >>> corpus = Corpus(partition="train")
    >>> for doc in corpus:
    ...     print(doc.source)         # "I likes it."
    ...     print(doc.target)         # "I like it."
    ...     print(doc.annotated)      # <AnnotatedText("I {likes=>like} it.")
    ...     print(doc.meta.region)    # "Київська"

Note that the doc.annotated property is of type AnnotatedText. This class is described in the next section

Working with annotations

ua_gec.AnnotatedText is a class that provides tools for processing annotated texts. It can iterate over annotations, get annotation error type, remove some of the annotations, and more.

While we're working on a detailed documentation, here is an example to get you started. It will remove all Fluency annotations from a text:

    >>> from ua_gec import AnnotatedText
    >>> text = AnnotatedText("I {likes=>like:::error_type=Grammar} it.")
    >>> for ann in text.iter_annotations():
    ...     print(ann.source_text)       # likes
    ...     print(ann.top_suggestion)    # like
    ...     print(ann.meta)              # {'error_type': 'Grammar'}
    ...     if ann.meta["error_type"] == "Fluency":
    ...         text.remove(ann)         # or `text.apply(ann)`

Contributing

  • The data collection is an ongoing activity. You can always contribute your Ukrainian writings or complete one of the writing tasks at https://ua-gec-dataset.grammarly.ai/

  • Code improvements and document are welcomed. Please submit a pull request.

Contacts

Owner
Grammarly
Millions of users rely on Grammarly's AI-powered products to make their messages, documents, and social media posts clear, mistake-free, and impactful.
Grammarly
使用yolov5训练自己数据集(详细过程)并通过flask部署

使用yolov5训练自己的数据集(详细过程)并通过flask部署 依赖库 torch torchvision numpy opencv-python lxml tqdm flask pillow tensorboard matplotlib pycocotools Windows,请使用 pycoc

HB.com 19 Dec 28, 2022
Repo for code associated with Modeling the Mitral Valve.

Project Title Mitral Valve Getting Started Repo for code associated with Modeling the Mitral Valve. See https://arxiv.org/abs/1902.00018 for preprint,

Alex Kaiser 1 May 17, 2022
Pytorch implementation of our method for regularizing nerual radiance fields for few-shot neural volume rendering.

InfoNeRF: Ray Entropy Minimization for Few-Shot Neural Volume Rendering Pytorch implementation of our method for regularizing nerual radiance fields f

106 Jan 06, 2023
Pytorch implementation of the DeepDream computer vision algorithm

deep-dream-in-pytorch Pytorch (https://github.com/pytorch/pytorch) implementation of the deep dream (https://en.wikipedia.org/wiki/DeepDream) computer

102 Dec 05, 2022
This repo includes the supplementary of our paper "CEMENT: Incomplete Multi-View Weak-Label Learning with Long-Tailed Labels"

Supplementary Materials for CEMENT: Incomplete Multi-View Weak-Label Learning with Long-Tailed Labels This repository includes all supplementary mater

Zhiwei Li 0 Jan 05, 2022
Deep Networks with Recurrent Layer Aggregation

RLA-Net: Recurrent Layer Aggregation Recurrence along Depth: Deep Networks with Recurrent Layer Aggregation This is an implementation of RLA-Net (acce

Joy Fang 21 Aug 16, 2022
Open-source code for Generic Grouping Network (GGN, CVPR 2022)

Open-World Instance Segmentation: Exploiting Pseudo Ground Truth From Learned Pairwise Affinity Pytorch implementation for "Open-World Instance Segmen

Meta Research 99 Dec 06, 2022
Repo for FUZE project. I will also publish some Linux kernel LPE exploits for various real world kernel vulnerabilities here. the samples are uploaded for education purposes for red and blue teams.

Linux_kernel_exploits Some Linux kernel exploits for various real world kernel vulnerabilities here. More exploits are yet to come. This repo contains

Wei Wu 472 Dec 21, 2022
Earth Vision Foundation

EVer - A Library for Earth Vision Researcher EVer is a Pytorch-based Python library to simplify the training and inference of the deep learning model.

Zhuo Zheng 34 Nov 26, 2022
This is the official repository for our paper: ''Pruning Self-attentions into Convolutional Layers in Single Path''.

Pruning Self-attentions into Convolutional Layers in Single Path This is the official repository for our paper: Pruning Self-attentions into Convoluti

Zhuang AI Group 77 Dec 26, 2022
Rule Based Classification Project For Python

Rule-Based-Classification-Project (ENG) Business Problem: A game company wants to create new level-based customer definitions (personas) by using some

Deniz Can OĞUZ 4 Oct 29, 2022
Differentiable Factor Graph Optimization for Learning Smoothers @ IROS 2021

Differentiable Factor Graph Optimization for Learning Smoothers Overview Status Setup Datasets Training Evaluation Acknowledgements Overview Code rele

Brent Yi 60 Nov 14, 2022
LLVM-based compiler for LightGBM gradient-boosted trees. Speeds up prediction by ≥10x.

LLVM-based compiler for LightGBM gradient-boosted trees. Speeds up prediction by ≥10x.

Simon Boehm 183 Jan 02, 2023
[CVPR 2021] Forecasting the panoptic segmentation of future video frames

Panoptic Segmentation Forecasting Colin Graber, Grace Tsai, Michael Firman, Gabriel Brostow, Alexander Schwing - CVPR 2021 [Link to paper] We propose

Niantic Labs 44 Nov 29, 2022
Implementation of Geometric Vector Perceptron, a simple circuit for 3d rotation equivariance for learning over large biomolecules, in Pytorch. Idea proposed and accepted at ICLR 2021

Geometric Vector Perceptron Implementation of Geometric Vector Perceptron, a simple circuit with 3d rotation equivariance for learning over large biom

Phil Wang 59 Nov 24, 2022
Easy and comprehensive assessment of predictive power, with support for neuroimaging features

Documentation: https://raamana.github.io/neuropredict/ News As of v0.6, neuropredict now supports regression applications i.e. predicting continuous t

Pradeep Reddy Raamana 93 Nov 29, 2022
Non-Vacuous Generalisation Bounds for Shallow Neural Networks

This package requires jax, tensorflow, and numpy. Either tensorflow or scikit-learn can be used for loading data. To run in a nix-shell with required

Felix Biggs 0 Feb 04, 2022
Class-Balanced Loss Based on Effective Number of Samples. CVPR 2019

Class-Balanced Loss Based on Effective Number of Samples Tensorflow code for the paper: Class-Balanced Loss Based on Effective Number of Samples Yin C

Yin Cui 546 Jan 08, 2023
[AAAI 2021] EMLight: Lighting Estimation via Spherical Distribution Approximation and [ICCV 2021] Sparse Needlets for Lighting Estimation with Spherical Transport Loss

EMLight: Lighting Estimation via Spherical Distribution Approximation (AAAI 2021) Update 12/2021: We release our Virtual Object Relighting (VOR) Datas

Fangneng Zhan 144 Jan 06, 2023
The Turing Change Point Detection Benchmark: An Extensive Benchmark Evaluation of Change Point Detection Algorithms on real-world data

Turing Change Point Detection Benchmark Welcome to the repository for the Turing Change Point Detection Benchmark, a benchmark evaluation of change po

The Alan Turing Institute 85 Dec 28, 2022