BPEmb is a collection of pre-trained subword embeddings in 275 languages, based on Byte-Pair Encoding (BPE) and trained on Wikipedia.

Overview

BPEmb

BPEmb is a collection of pre-trained subword embeddings in 275 languages, based on Byte-Pair Encoding (BPE) and trained on Wikipedia. Its intended use is as input for neural models in natural language processing.

WebsiteUsageDownloadMultiBPEmbPaper (pdf)Citing BPEmb

Usage

Install BPEmb with pip:

pip install bpemb

Embeddings and SentencePiece models will be downloaded automatically the first time you use them.

>>> from bpemb import BPEmb
# load English BPEmb model with default vocabulary size (10k) and 50-dimensional embeddings
>>> bpemb_en = BPEmb(lang="en", dim=50)
downloading https://nlp.h-its.org/bpemb/en/en.wiki.bpe.vs10000.model
downloading https://nlp.h-its.org/bpemb/en/en.wiki.bpe.vs10000.d50.w2v.bin.tar.gz

You can do two main things with BPEmb. The first is subword segmentation:

>> bpemb_zh = BPEmb(lang="zh", vs=100000) # apply Chinese BPE subword segmentation model >>> bpemb_zh.encode("这是一个中文句子") # "This is a Chinese sentence." ['▁这是一个', '中文', '句子'] # ["This is a", "Chinese", "sentence"] ">
# apply English BPE subword segmentation model
>>> bpemb_en.encode("Stratford")
['▁strat', 'ford']
# load Chinese BPEmb model with vocabulary size 100k and default (100-dim) embeddings
>>> bpemb_zh = BPEmb(lang="zh", vs=100000)
# apply Chinese BPE subword segmentation model
>>> bpemb_zh.encode("这是一个中文句子")  # "This is a Chinese sentence."
['▁这是一个', '中文', '句子']  # ["This is a", "Chinese", "sentence"]

If / how a word gets split depends on the vocabulary size. Generally, a smaller vocabulary size will yield a segmentation into many subwords, while a large vocabulary size will result in frequent words not being split:

vocabulary size segmentation
1000 ['▁str', 'at', 'f', 'ord']
3000 ['▁str', 'at', 'ford']
5000 ['▁str', 'at', 'ford']
10000 ['▁strat', 'ford']
25000 ['▁stratford']
50000 ['▁stratford']
100000 ['▁stratford']
200000 ['▁stratford']

The second purpose of BPEmb is to provide pretrained subword embeddings:

>> type(bpemb_en.vectors) numpy.ndarray >>> bpemb_en.vectors.shape (10000, 50) >>> bpemb_zh.vectors.shape (100000, 100) ">
# Embeddings are wrapped in a gensim KeyedVectors object
>>> type(bpemb_zh.emb)
gensim.models.keyedvectors.Word2VecKeyedVectors
# You can use BPEmb objects like gensim KeyedVectors
>>> bpemb_en.most_similar("ford")
[('bury', 0.8745079040527344),
 ('ton', 0.8725000619888306),
 ('well', 0.871537446975708),
 ('ston', 0.8701574206352234),
 ('worth', 0.8672043085098267),
 ('field', 0.859795331954956),
 ('ley', 0.8591548204421997),
 ('ington', 0.8126075267791748),
 ('bridge', 0.8099068999290466),
 ('brook', 0.7979353070259094)]
>>> type(bpemb_en.vectors)
numpy.ndarray
>>> bpemb_en.vectors.shape
(10000, 50)
>>> bpemb_zh.vectors.shape
(100000, 100)

To use subword embeddings in your neural network, either encode your input into subword IDs:

>> bpemb_zh.vectors[ids].shape (3, 100) ">
>>> ids = bpemb_zh.encode_ids("这是一个中文句子")
[25950, 695, 20199]
>>> bpemb_zh.vectors[ids].shape
(3, 100)

Or use the embed method:

# apply Chinese subword segmentation and perform embedding lookup
>>> bpemb_zh.embed("这是一个中文句子").shape
(3, 100)

Downloads for each language

ab (Abkhazian)ace (Achinese)ady (Adyghe)af (Afrikaans)ak (Akan)als (Alemannic)am (Amharic)an (Aragonese)ang (Old English)ar (Arabic)arc (Official Aramaic)arz (Egyptian Arabic)as (Assamese)ast (Asturian)atj (Atikamekw)av (Avaric)ay (Aymara)az (Azerbaijani)azb (South Azerbaijani)

ba (Bashkir)bar (Bavarian)bcl (Central Bikol)be (Belarusian)bg (Bulgarian)bi (Bislama)bjn (Banjar)bm (Bambara)bn (Bengali)bo (Tibetan)bpy (Bishnupriya)br (Breton)bs (Bosnian)bug (Buginese)bxr (Russia Buriat)

ca (Catalan)cdo (Min Dong Chinese)ce (Chechen)ceb (Cebuano)ch (Chamorro)chr (Cherokee)chy (Cheyenne)ckb (Central Kurdish)co (Corsican)cr (Cree)crh (Crimean Tatar)cs (Czech)csb (Kashubian)cu (Church Slavic)cv (Chuvash)cy (Welsh)

da (Danish)de (German)din (Dinka)diq (Dimli)dsb (Lower Sorbian)dty (Dotyali)dv (Dhivehi)dz (Dzongkha)

ee (Ewe)el (Modern Greek)en (English)eo (Esperanto)es (Spanish)et (Estonian)eu (Basque)ext (Extremaduran)

fa (Persian)ff (Fulah)fi (Finnish)fj (Fijian)fo (Faroese)fr (French)frp (Arpitan)frr (Northern Frisian)fur (Friulian)fy (Western Frisian)

ga (Irish)gag (Gagauz)gan (Gan Chinese)gd (Scottish Gaelic)gl (Galician)glk (Gilaki)gn (Guarani)gom (Goan Konkani)got (Gothic)gu (Gujarati)gv (Manx)

ha (Hausa)hak (Hakka Chinese)haw (Hawaiian)he (Hebrew)hi (Hindi)hif (Fiji Hindi)hr (Croatian)hsb (Upper Sorbian)ht (Haitian)hu (Hungarian)hy (Armenian)

ia (Interlingua)id (Indonesian)ie (Interlingue)ig (Igbo)ik (Inupiaq)ilo (Iloko)io (Ido)is (Icelandic)it (Italian)iu (Inuktitut)

ja (Japanese)jam (Jamaican Creole English)jbo (Lojban)jv (Javanese)

ka (Georgian)kaa (Kara-Kalpak)kab (Kabyle)kbd (Kabardian)kbp (Kabiyè)kg (Kongo)ki (Kikuyu)kk (Kazakh)kl (Kalaallisut)km (Central Khmer)kn (Kannada)ko (Korean)koi (Komi-Permyak)krc (Karachay-Balkar)ks (Kashmiri)ksh (Kölsch)ku (Kurdish)kv (Komi)kw (Cornish)ky (Kirghiz)

la (Latin)lad (Ladino)lb (Luxembourgish)lbe (Lak)lez (Lezghian)lg (Ganda)li (Limburgan)lij (Ligurian)lmo (Lombard)ln (Lingala)lo (Lao)lrc (Northern Luri)lt (Lithuanian)ltg (Latgalian)lv (Latvian)

mai (Maithili)mdf (Moksha)mg (Malagasy)mh (Marshallese)mhr (Eastern Mari)mi (Maori)min (Minangkabau)mk (Macedonian)ml (Malayalam)mn (Mongolian)mr (Marathi)mrj (Western Mari)ms (Malay)mt (Maltese)mwl (Mirandese)my (Burmese)myv (Erzya)mzn (Mazanderani)

na (Nauru)nap (Neapolitan)nds (Low German)ne (Nepali)new (Newari)ng (Ndonga)nl (Dutch)nn (Norwegian Nynorsk)no (Norwegian)nov (Novial)nrm (Narom)nso (Pedi)nv (Navajo)ny (Nyanja)

oc (Occitan)olo (Livvi)om (Oromo)or (Oriya)os (Ossetian)

pa (Panjabi)pag (Pangasinan)pam (Pampanga)pap (Papiamento)pcd (Picard)pdc (Pennsylvania German)pfl (Pfaelzisch)pi (Pali)pih (Pitcairn-Norfolk)pl (Polish)pms (Piemontese)pnb (Western Panjabi)pnt (Pontic)ps (Pushto)pt (Portuguese)

qu (Quechua)

rm (Romansh)rmy (Vlax Romani)rn (Rundi)ro (Romanian)ru (Russian)rue (Rusyn)rw (Kinyarwanda)

sa (Sanskrit)sah (Yakut)sc (Sardinian)scn (Sicilian)sco (Scots)sd (Sindhi)se (Northern Sami)sg (Sango)sh (Serbo-Croatian)si (Sinhala)sk (Slovak)sl (Slovenian)sm (Samoan)sn (Shona)so (Somali)sq (Albanian)sr (Serbian)srn (Sranan Tongo)ss (Swati)st (Southern Sotho)stq (Saterfriesisch)su (Sundanese)sv (Swedish)sw (Swahili)szl (Silesian)

ta (Tamil)tcy (Tulu)te (Telugu)tet (Tetum)tg (Tajik)th (Thai)ti (Tigrinya)tk (Turkmen)tl (Tagalog)tn (Tswana)to (Tonga)tpi (Tok Pisin)tr (Turkish)ts (Tsonga)tt (Tatar)tum (Tumbuka)tw (Twi)ty (Tahitian)tyv (Tuvinian)

udm (Udmurt)ug (Uighur)uk (Ukrainian)ur (Urdu)uz (Uzbek)

ve (Venda)vec (Venetian)vep (Veps)vi (Vietnamese)vls (Vlaams)vo (Volapük)

wa (Walloon)war (Waray)wo (Wolof)wuu (Wu Chinese)

xal (Kalmyk)xh (Xhosa)xmf (Mingrelian)

yi (Yiddish)yo (Yoruba)

za (Zhuang)zea (Zeeuws)zh (Chinese)zu (Zulu)

MultiBPEmb

multi (multilingual)

Citing BPEmb

If you use BPEmb in academic work, please cite:

@InProceedings{heinzerling2018bpemb,
  author = {Benjamin Heinzerling and Michael Strube},
  title = "{BPEmb: Tokenization-free Pre-trained Subword Embeddings in 275 Languages}",
  booktitle = {Proceedings of the Eleventh International Conference on Language Resources and Evaluation (LREC 2018)},
  year = {2018},
  month = {May 7-12, 2018},
  address = {Miyazaki, Japan},
  editor = {Nicoletta Calzolari (Conference chair) and Khalid Choukri and Christopher Cieri and Thierry Declerck and Sara Goggi and Koiti Hasida and Hitoshi Isahara and Bente Maegaard and Joseph Mariani and Hélène Mazo and Asuncion Moreno and Jan Odijk and Stelios Piperidis and Takenobu Tokunaga},
  publisher = {European Language Resources Association (ELRA)},
  isbn = {979-10-95546-00-9},
  language = {english}
  }
A design of MIDI language for music generation task, specifically for Natural Language Processing (NLP) models.

MIDI Language Introduction Reference Paper: Pop Music Transformer: Beat-based Modeling and Generation of Expressive Pop Piano Compositions: code This

Robert Bogan Kang 3 May 25, 2022
iSTFTNet : Fast and Lightweight Mel-spectrogram Vocoder Incorporating Inverse Short-time Fourier Transform

iSTFTNet : Fast and Lightweight Mel-spectrogram Vocoder Incorporating Inverse Short-time Fourier Transform This repo try to implement iSTFTNet : Fast

Rishikesh (ऋषिकेश) 126 Jan 02, 2023
Code for "Parallel Instance Query Network for Named Entity Recognition", accepted at ACL 2022.

README Code for Two-stage Identifier: "Parallel Instance Query Network for Named Entity Recognition", accepted at ACL 2022. For details of the model a

Yongliang Shen 45 Nov 29, 2022
Creating a chess engine using GPT-3

GPT3Chess Creating a chess engine using GPT-3 Code for my article : https://towardsdatascience.com/gpt-3-play-chess-d123a96096a9 My game (white) vs GP

19 Dec 17, 2022
Tutorial to pretrain & fine-tune a 🤗 Flax T5 model on a TPUv3-8 with GCP

Pretrain and Fine-tune a T5 model with Flax on GCP This tutorial details how pretrain and fine-tune a FlaxT5 model from HuggingFace using a TPU VM ava

Gabriele Sarti 41 Nov 18, 2022
Tools to download and cleanup Common Crawl data

cc_net Tools to download and clean Common Crawl as introduced in our paper CCNet. If you found these resources useful, please consider citing: @inproc

Meta Research 483 Jan 02, 2023
[KBS] Aspect-based sentiment analysis via affective knowledge enhanced graph convolutional networks

#Sentic GCN Introduction This repository was used in our paper: Aspect-Based Sentiment Analysis via Affective Knowledge Enhanced Graph Convolutional N

Akuchi 35 Nov 16, 2022
A flask application to predict the speech emotion of any .wav file.

This is a speech emotion recognition app. It will allow you to train a modular MLP model with the RAVDESS dataset, and then use that model with a flask application to predict the speech emotion of an

Aryan Vijaywargia 2 Dec 15, 2021
Kurumi ChatBot

KurumiChatBot Just another Telegram AI chat bot written in Python using Pyrogram. A public running instance can be found on telegram as @TokisakiChatB

Yoga Pranata 3 Jun 28, 2022
🤖 Basic Financial Chatbot with handoff ability built with Rasa

Financial Services Example Bot This is an example chatbot demonstrating how to build AI assistants for financial services and banking with Rasa. It in

Mohammad Javad Hossieni 4 Aug 10, 2022
✨Fast Coreference Resolution in spaCy with Neural Networks

✨ NeuralCoref 4.0: Coreference Resolution in spaCy with Neural Networks. NeuralCoref is a pipeline extension for spaCy 2.1+ which annotates and resolv

Hugging Face 2.6k Jan 04, 2023
Random Directed Acyclic Graph Generator

DAG_Generator Random Directed Acyclic Graph Generator verison1.0 简介 工作流通常由DAG(有向无环图)来定义,其中每个计算任务$T_i$由一个顶点(node,task,vertex)表示。同时,任务之间的每个数据或控制依赖性由一条加权

Livion 17 Dec 27, 2022
GPT-3 command line interaction

Writer_unblock Straight-forward command line interfacing with GPT-3. Finding yourself stuck at a conceptual stage? Spinning your wheels needlessly on

Seth Nuzum 6 Feb 10, 2022
A simple version of DeTR

DeTR-Lite A simple version of DeTR Before you enjoy this DeTR-Lite The purpose of this project is to allow you to learn the basic knowledge of DeTR. P

Jianhua Yang 11 Jun 13, 2022
Espial is an engine for automated organization and discovery of personal knowledge

Live Demo (currently not running, on it) Espial is an engine for automated organization and discovery in knowledge bases. It can be adapted to run wit

Uzay-G 159 Dec 30, 2022
Translators - is a library which aims to bring free, multiple, enjoyable translation to individuals and students in Python

Translators - is a library which aims to bring free, multiple, enjoyable translation to individuals and students in Python

UlionTse 907 Dec 27, 2022
Experiments in converting wikidata to ftm

FollowTheMoney / Wikidata mappings This repo will contain tools for converting Wikidata entities into FtM schema. Prefixes: https://www.mediawiki.org/

Friedrich Lindenberg 2 Nov 12, 2021
BERN2: an advanced neural biomedical namedentity recognition and normalization tool

BERN2 We present BERN2 (Advanced Biomedical Entity Recognition and Normalization), a tool that improves the previous neural network-based NER tool by

DMIS Laboratory - Korea University 99 Jan 06, 2023
EMNLP'2021: Can Language Models be Biomedical Knowledge Bases?

BioLAMA BioLAMA is biomedical factual knowledge triples for probing biomedical LMs. The triples are collected and pre-processed from three sources: CT

DMIS Laboratory - Korea University 41 Nov 18, 2022
Sentiment Classification using WSD, Maximum Entropy & Naive Bayes Classifiers

Sentiment Classification using WSD, Maximum Entropy & Naive Bayes Classifiers

Pulkit Kathuria 173 Jan 04, 2023