Japanese NLP Library

Overview

Japanese NLP Library


Back to Home

1   Requirements

1.1   Links

  • All code at jProcessing Repo GitHub
  • PyPi Python Package
clone [email protected]:kevincobain2000/jProcessing.git

1.2   Install

In Terminal

bash$ python setup.py install

1.3   History

  • 0.2

    • Sentiment Analysis of Japanese Text
  • 0.1
    • Morphologically Tokenize Japanese Sentence
    • Kanji / Hiragana / Katakana to Romaji Converter
    • Edict Dictionary Search - borrowed
    • Edict Examples Search - incomplete
    • Sentence Similarity between two JP Sentences
    • Run Cabocha(ISO--8859-1 configured) in Python.
    • Longest Common String between Sentences
    • Kanji to Katakana Pronunciation
    • Hiragana, Katakana Chart Parser

2   Libraries and Modules

2.1   Tokenize jTokenize.py

In Python

>>> from jNlp.jTokenize import jTokenize
>>> input_sentence = u'私は彼を5日前、つまりこの前の金曜日に駅で見かけた'
>>> list_of_tokens = jTokenize(input_sentence)
>>> print list_of_tokens
>>> print '--'.join(list_of_tokens).encode('utf-8')

Returns:

... [u'\u79c1', u'\u306f', u'\u5f7c', u'\u3092', u'\uff15'...]
... 私--は--彼--を--5--日--前--、--つまり--この--前--の--金曜日--に--駅--で--見かけ--た

Katakana Pronunciation:

>>> print '--'.join(jReads(input_sentence)).encode('utf-8')
... ワタシ--ハ--カレ--ヲ--ゴ--ニチ--マエ--、--ツマリ--コノ--マエ--ノ--キンヨウビ--ニ--エキ--デ--ミカケ--タ

2.2   Cabocha jCabocha.py

Run Cabocha with original EUCJP or IS0-8859-1 configured encoding, with utf8 python

>>> from jNlp.jCabocha import cabocha
>>> print cabocha(input_sentence).encode('utf-8')

Output:

">
<sentence>
 <chunk id="0" link="8" rel="D" score="0.971639" head="0" func="1">
  <tok id="0" read="ワタシ" base="" pos="名詞-代名詞-一般" ctype="" cform="" ne="O">私tok>
  <tok id="1" read="" base="" pos="助詞-係助詞" ctype="" cform="" ne="O">はtok>
 chunk>
 <chunk id="1" link="2" rel="D" score="0.488672" head="2" func="3">
  <tok id="2" read="カレ" base="" pos="名詞-代名詞-一般" ctype="" cform="" ne="O">彼tok>
  <tok id="3" read="" base="" pos="助詞-格助詞-一般" ctype="" cform="" ne="O">をtok>
 chunk>
 <chunk id="2" link="8" rel="D" score="2.25834" head="6" func="6">
  <tok id="4" read="" base="" pos="名詞-数" ctype="" cform="" ne="B-DATE">5tok>
  <tok id="5" read="ニチ" base="" pos="名詞-接尾-助数詞" ctype="" cform="" ne="I-DATE">日tok>
  <tok id="6" read="マエ" base="" pos="名詞-副詞可能" ctype="" cform="" ne="I-DATE">前tok>
  <tok id="7" read="" base="" pos="記号-読点" ctype="" cform="" ne="O">、tok>
 chunk>

2.3   Kanji / Katakana /Hiragana to Tokenized Romaji jConvert.py

Uses data/katakanaChart.txt and parses the chart. See katakanaChart.

>>> from jNlp.jConvert import *
>>> input_sentence = u'気象庁が21日午前4時48分、発表した天気概況によると、'
>>> print ' '.join(tokenizedRomaji(input_sentence))
>>> print tokenizedRomaji(input_sentence)
...kisyoutyou ga ni ichi nichi gozen yon ji yon hachi hun  hapyou si ta tenki gaikyou ni yoru to
...[u'kisyoutyou', u'ga', u'ni', u'ichi', u'nichi', u'gozen',...]

katakanaChart.txt

2.4   Longest Common String Japanese jProcessing.py

On English Strings

>>> from jNlp.jProcessing import long_substr
>>> a = 'Once upon a time in Italy'
>>> b = 'Thre was a time in America'
>>> print long_substr(a, b)

Output

...a time in

On Japanese Strings

>>> a = u'これでアナタも冷え知らず'
>>> b = u'これでア冷え知らずナタも'
>>> print long_substr(a, b).encode('utf-8')

Output

...冷え知らず

2.5   Similarity between two sentences jProcessing.py

Uses MinHash by checking the overlap http://en.wikipedia.org/wiki/MinHash

English Strings:
>>> from jNlp.jProcessing import Similarities
>>> s = Similarities()
>>> a = 'There was'
>>> b = 'There is'
>>> print s.minhash(a,b)
...0.444444444444
Japanese Strings:
>>> from jNlp.jProcessing import *
>>> a = u'これは何ですか?'
>>> b = u'これはわからないです'
>>> print s.minhash(' '.join(jTokenize(a)), ' '.join(jTokenize(b)))
...0.210526315789

3   Edict Japanese Dictionary Search with Example sentences

3.1   Sample Ouput Demo

3.2   Edict dictionary and example sentences parser.

This package uses the EDICT and KANJIDIC dictionary files. These files are the property of the Electronic Dictionary Research and Development Group , and are used in conformance with the Group's licence .

Edict Parser By Paul Goins, see edict_search.py Edict Example sentences Parse by query, Pulkit Kathuria, see edict_examples.py Edict examples pickle files are provided but latest example files can be downloaded from the links provided.

3.3   Charset

Two files

  • utf8 Charset example file if not using src/jNlp/data/edict_examples

    To convert EUCJP/ISO-8859-1 to utf8

    iconv -f EUCJP -t UTF-8 path/to/edict_examples > path/to/save_with_utf-8
    
  • ISO-8859-1 edict_dictionary file

Outputs example sentences for a query in Japanese only for ambiguous words.

3.4   Links

Latest Dictionary files can be downloaded here

3.5   edict_search.py

author: Paul Goins License included linkToOriginal:

For all entries of sense definitions

>>> from jNlp.edict_search import *
>>> query = u'認める'
>>> edict_path = 'src/jNlp/data/edict-yy-mm-dd'
>>> kp = Parser(edict_path)
>>> for i, entry in enumerate(kp.search(query)):
...     print entry.to_string().encode('utf-8')

3.6   edict_examples.py

Note: Only outputs the examples sentences for ambiguous words (if word has one or more senses)
author: Pulkit Kathuria
>>> from jNlp.edict_examples import *
>>> query = u'認める'
>>> edict_path = 'src/jNlp/data/edict-yy-mm-dd'
>>> edict_examples_path = 'src/jNlp/data/edict_examples'
>>> search_with_example(edict_path, edict_examples_path, query)

Output

認める

Sense (1) to recognize;
  EX:01 我々は彼の才能を*認*めている。We appreciate his talent.

Sense (2) to observe;
  EX:01 x線写真で異状が*認*められます。We have detected an abnormality on your x-ray.

Sense (3) to admit;
  EX:01 母は私の計画をよいと*認*めた。Mother approved my plan.
  EX:02 母は決して私の結婚を*認*めないだろう。Mother will never approve of my marriage.
  EX:03 父は決して私の結婚を*認*めないだろう。Father will never approve of my marriage.
  EX:04 彼は女性の喫煙をいいものだと*認*めない。He doesn't approve of women smoking.
  ...

4   Sentiment Analysis Japanese Text

This section covers (1) Sentiment Analysis on Japanese text using Word Sense Disambiguation, Wordnet-jp (Japanese Word Net file name wnjpn-all.tab), SentiWordnet (English SentiWordNet file name SentiWordNet_3.*.txt).

4.1   Wordnet files download links

  1. http://nlpwww.nict.go.jp/wn-ja/eng/downloads.html
  2. http://sentiwordnet.isti.cnr.it/

4.2   How to Use

The following classifier is baseline, which works as simple mapping of Eng to Japanese using Wordnet and classify on polarity score using SentiWordnet.

  • (Adnouns, nouns, verbs, .. all included)
  • No WSD module on Japanese Sentence
  • Uses word as its common sense for polarity score
>>> from jNlp.jSentiments import *
>>> jp_wn = '../../../../data/wnjpn-all.tab'
>>> en_swn = '../../../../data/SentiWordNet_3.0.0_20100908.txt'
>>> classifier = Sentiment()
>>> classifier.train(en_swn, jp_wn)
>>> text = u'監督、俳優、ストーリー、演出、全部最高!'
>>> print classifier.baseline(text)
...Pos Score = 0.625 Neg Score = 0.125
...Text is Positive

4.3   Japanese Word Polarity Score

>>> from jNlp.jSentiments import *
>>> jp_wn = '_dicts/wnjpn-all.tab' #path to Japanese Word Net
>>> en_swn = '_dicts/SentiWordNet_3.0.0_20100908.txt' #Path to SentiWordNet
>>> classifier = Sentiment()
>>> sentiwordnet, jpwordnet  = classifier.train(en_swn, jp_wn)
>>> positive_score = sentiwordnet[jpwordnet[u'全部']][0]
>>> negative_score = sentiwordnet[jpwordnet[u'全部']][1]
>>> print 'pos score = {0}, neg score = {1}'.format(positive_score, negative_score)
...pos score = 0.625, neg score = 0.0

5   Contacts

Author: pulkit[at]jaist.ac.jp [change at with @]
Local cross-platform machine translation GUI, based on CTranslate2

DesktopTranslator Local cross-platform machine translation GUI, based on CTranslate2 Download Windows Installer You can either download a ready-made W

Yasmin Moslem 29 Jan 05, 2023
Generating new names based on trends in data using GPT2 (Transformer network)

MLOpsNameGenerator Overall Goal The goal of the project is to develop a model that is capable of creating Pokémon names based on its description, usin

Gustav Lang Moesmand 2 Jan 10, 2022
Rootski - Full codebase for rootski.io (without the data)

📣 Welcome to the Rootski codebase! This is the codebase for the application run

Eric 20 Nov 18, 2022
An easy-to-use Python module that helps you to extract the BERT embeddings for a large text dataset (Bengali/English) efficiently.

An easy-to-use Python module that helps you to extract the BERT embeddings for a large text dataset (Bengali/English) efficiently.

Khalid Saifullah 37 Sep 05, 2022
Dual languaged (rus+eng) tool for packing and unpacking archives of Silky Engine.

SilkyArcTool English Dual languaged (rus+eng) GUI tool for packing and unpacking archives of Silky Engine. It is not the same arc as used in Ai6WIN. I

Tester 5 Sep 15, 2022
Reformer, the efficient Transformer, in Pytorch

Reformer, the Efficient Transformer, in Pytorch This is a Pytorch implementation of Reformer https://openreview.net/pdf?id=rkgNKkHtvB It includes LSH

Phil Wang 1.8k Dec 30, 2022
LUKE -- Language Understanding with Knowledge-based Embeddings

LUKE (Language Understanding with Knowledge-based Embeddings) is a new pre-trained contextualized representation of words and entities based on transf

Studio Ousia 587 Dec 30, 2022
My implementation of Safaricom Machine Learning Codility test. The code has bugs, logical I guess I made errors and any correction will be appreciated.

Safaricom_Codility Machine Learning 2022 The test entails two questions. Question 1 was on Machine Learning. Question 2 was on SQL I ran out of time.

Lawrence M. 1 Mar 03, 2022
Data manipulation and transformation for audio signal processing, powered by PyTorch

torchaudio: an audio library for PyTorch The aim of torchaudio is to apply PyTorch to the audio domain. By supporting PyTorch, torchaudio follows the

1.9k Jan 08, 2023
Machine Psychology: Python Generated Art

Machine Psychology: Python Generated Art A limited collection of 64 algorithmically generated artwork. Each unique piece is then given a title by the

Pixegami Team 67 Dec 13, 2022
PUA Programming Language written in Python.

pua-lang PUA Programming Language written in Python. Installation git clone https://github.com/zhaoyang97/pua-lang.git cd pua-lang pip install . Try

zy 4 Feb 19, 2022
A model library for exploring state-of-the-art deep learning topologies and techniques for optimizing Natural Language Processing neural networks

A Deep Learning NLP/NLU library by Intel® AI Lab Overview | Models | Installation | Examples | Documentation | Tutorials | Contributing NLP Architect

Intel Labs 2.9k Dec 31, 2022
Vad-sli-asr - A Python scripts for a speech processing pipeline with Voice Activity Detection (VAD)

VAD-SLI-ASR Python scripts for a speech processing pipeline with Voice Activity

Dynamics of Language 14 Dec 09, 2022
This repository contains data used in the NAACL 2021 Paper - Proteno: Text Normalization with Limited Data for Fast Deployment in Text to Speech Systems

Proteno This is the data release associated with the corresponding NAACL 2021 Paper - Proteno: Text Normalization with Limited Data for Fast Deploymen

37 Dec 04, 2022
Transformers Wav2Vec2 + Parlance's CTCDecodeTransformers Wav2Vec2 + Parlance's CTCDecode

🤗 Transformers Wav2Vec2 + Parlance's CTCDecode Introduction This repo shows how 🤗 Transformers can be used in combination with Parlance's ctcdecode

Patrick von Platen 9 Jul 21, 2022
Flexible interface for high-performance research using SOTA Transformers leveraging Pytorch Lightning, Transformers, and Hydra.

Flexible interface for high performance research using SOTA Transformers leveraging Pytorch Lightning, Transformers, and Hydra. What is Lightning Tran

Pytorch Lightning 581 Dec 21, 2022
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
Code release for NeX: Real-time View Synthesis with Neural Basis Expansion

NeX: Real-time View Synthesis with Neural Basis Expansion Project Page | Video | Paper | COLAB | Shiny Dataset We present NeX, a new approach to novel

537 Jan 05, 2023
A Pytorch implementation of "Splitter: Learning Node Representations that Capture Multiple Social Contexts" (WWW 2019).

Splitter ⠀⠀ A PyTorch implementation of Splitter: Learning Node Representations that Capture Multiple Social Contexts (WWW 2019). Abstract Recent inte

Benedek Rozemberczki 201 Nov 09, 2022
The proliferation of disinformation across social media has led the application of deep learning techniques to detect fake news.

Fake News Detection Overview The proliferation of disinformation across social media has led the application of deep learning techniques to detect fak

Kushal Shingote 1 Feb 08, 2022