Phonetic Matching Toolkit with State-Of-The-Art Meta-Soundex
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Using Phonetic Knowledge in Tools and Resources for Natural Language Processing and Pronunciation Evaluation
Using phonetic knowledge in tools and resources for Natural Language Processing and Pronunciation Evaluation Gustavo Augusto de Mendonça Almeida Gustavo Augusto de Mendonça Almeida Using phonetic knowledge in tools and resources for Natural Language Processing and Pronunciation Evaluation Master dissertation submitted to the Instituto de Ciências Matemáticas e de Computação – ICMC- USP, in partial fulfillment of the requirements for the degree of the Master Program in Computer Science and Computational Mathematics. FINAL VERSION Concentration Area: Computer Science and Computational Mathematics Advisor: Profa. Dra. Sandra Maria Aluisio USP – São Carlos May 2016 Ficha catalográfica elaborada pela Biblioteca Prof. Achille Bassi e Seção Técnica de Informática, ICMC/USP, com os dados fornecidos pelo(a) autor(a) Almeida, Gustavo Augusto de Mendonça A539u Using phonetic knowledge in tools and resources for Natural Language Processing and Pronunciation Evaluation / Gustavo Augusto de Mendonça Almeida; orientadora Sandra Maria Aluisio. – São Carlos – SP, 2016. 87 p. Dissertação (Mestrado - Programa de Pós-Graduação em Ciências de Computação e Matemática Computacional) – Instituto de Ciências Matemáticas e de Computação, Universidade de São Paulo, 2016. 1. Template. 2. Qualification monograph. 3. Dissertation. 4. Thesis. 5. Latex. I. Aluisio, Sandra Maria, orient. II. Título. SERVIÇO DE PÓS-GRADUAÇÃO DO ICMC-USP Data de Depósito: Assinatura: ______________________ Gustavo Augusto de Mendonça Almeida Utilizando conhecimento fonético em ferramentas e recursos de Processamento de Língua Natural e Treino de Pronúncia Dissertação apresentada ao Instituto de Ciências Matemáticas e de Computação – ICMC-USP, como parte dos requisitos para obtenção do título de Mestre em Ciências – Ciências de Computação e Matemática Computacional. VERSÃO REVISADA Área de Concentração: Ciências de Computação e Matemática Computacional Orientadora: Profa. -
The Music in Plain Speech and Writing
The Music in Plain Speech and Writing PDF generated using the open source mwlib toolkit. See http://code.pediapress.com/ for more information. PDF generated at: Sun, 19 May 2013 11:51:46 UTC Contents CMU Pronouncing Dictionary 1 Arpabet 2 International Phonetic Alphabet 5 Phonetic transcription 26 Phonemic orthography 30 Pronunciation 35 Syllable 36 Allophone 46 Homophone 49 Rhyme 52 Half rhyme 59 Internal rhyme 60 Assonance 62 Literary consonance 64 Alliteration 65 Mnemonic 68 Phonetic algorithm 73 Metaphone 74 Soundex 77 Rhyme Genie 79 References Article Sources and Contributors 81 Image Sources, Licenses and Contributors 84 Article Licenses License 85 CMU Pronouncing Dictionary 1 CMU Pronouncing Dictionary CMU Pronouncing Dictionary Developer(s) Carnegie Mellon University Stable release 0.7a / February 18, 2008 Development status Maintained Available in English License Public Domain [1] Website Homepage The CMU Pronouncing Dictionary (also known as cmudict) is a public domain pronouncing dictionary created by Carnegie Mellon University (CMU). It defines a mapping from English words to their North American pronunciations, and is commonly used in speech processing applications such as the Festival Speech Synthesis System and the CMU Sphinx speech recognition system. The latest release is 0.7a, which contains 133,746 entries (from 123,442 baseforms). Database Format The database is distributed as a text file of the format word <two spaces> pronunciation. If there are multiple pronunciations available for a word, all subsequent entries are followed by an index in parentheses. The pronunciation is encoded using a modified form of the Arpabet system. The difference is stress marks on vowels with levels 0, 1, 2; not all entries have stress however. -
TUGBOAT Volume 24, Number 2 / 2003
TUGBOAT Volume 24, Number 2 / 2003 General Delivery 159 From the president / Karl Berry 160 Editorial comments / Barbara Beeton 162 Daniel Taupin, 1936–2003 / John Plaice 163 What is TEX? / Douglas Waud Typography 165 Maths = Typography? / Richard Lawrence 169 On musical typesetting: Sonata for TEX and METAFONT, Op. 2 / Federico Garcia Font Forum 183 There is no end: Omega and Zapfino / William Adams 200 The METAFONT approach: Implicit, relative, and analytical font design / Timothy Hall Resources 205 CTAN plans / Robin Fairbairns, Jim Hefferon, Rainer Sch¨opf, Joachim Schrod, Graham Williams, Reinhard Zierke LATEX 208 Some notes on templates / Lars Hellstr¨om 211 Writing a big book — A first experience with LATEX / David Walden 216 Designing packages for Λ: An overview / Apostolos Syropoulos 221 LATEX news, issues 14–16, 2001–2003 / LATEX Project Team 224 ednotes — critical edition typesetting with LATEX / Uwe L¨uck Software & Tools 236 Hyphenation patterns for minority languages / Kevin Scannell 240 (LA)TEX, genealogy, and the LifeLines software / Andrew Caird 245 Generating LATEX documents through Matlab / S. E. Talole, S. B. Phadke 249 mlBibTEX’s Version 1.3 / Jean-Michel Hufflen Hints & Tricks 262 Glisterings / Peter Wilson 265 The treasure chest / Mark LaPlante Book Reviews 275 The LATEX Companion, Second Edition / Claudio Beccari 278 Guide to LATEX, 4th Edition / Douglas Waud and Mimi Burbank Abstracts 282 Les Cahiers GUTenberg: Contents of Issue 42 (July 2003) 283 MAPS: Contents of issues 27–28 (2002) 286 TEXemplares: Contents of issues 4–6 (2003–04) Reports 288 Report on the Pune workshop on LATEX and free mathematical software / S. A. -
An Assessment of Name Matching Algorithms Abstract 1. Name
An Assessment of Name Matching Algorithms A. J. Lait1 and B. Randell2 Department of Computing Science University of Newcastle upon Tyne Abstract In many computer applications involving the recording and processing of personal data there is a need to allow for variations in surname spelling, caused for example by transcription errors. A number of algorithms have been developed for name matching, i.e. which attempt to identify name spelling variations, one of the best known of which is the Soundex algorithm. This paper describes a comparative analysis of a number of these algorithms and, based on an analysis of their comparative strengths and weaknesses, proposes a new and improved name matching algorithm, which we call the Phonex algorithm. The analysis takes advantage of the recent creation of a large list of “equivalent surnames”, published in the book Family History Knowledge UK [Park1992]. This list is based on data supplied by some thousands of individual genealogists, and can be presumed to be representative of British surnames and their variations over the last two or three centuries. It thus made it possible to perform what we would argue were objective tests of name matching, the results of which provide a solid basis for the analysis that we have performed, and for our claims for the merits of the new algorithm, though these are unlikely to hold fully for surnames emanating largely from other countries. 1. Name Variations There are many applications of computer-based name-matching algorithms including record linkage and database searching where variations in spelling, caused for example by transcription errors, need to be allowed for. -
Metasoundex Phonetic Matching for English and Spanish
Global Journal of Enterprise Information System DOI: 10.18311/gjeis/2018/19822 MetaSoundex Phonetic Matching for English and Spanish K. Koneru* and C. Varol Department of Computer Science, Sam Houston State University, TX 77341, USA; [email protected], [email protected] Abstract Researchers confront major problems while searching for various kinds of data in large imprecise databases, as they are not spelled - gle, pronunciation of words was considered as one of the practices to solve the problem effectively. The technique used to acquire correctly or in the way they were expected to be spelled. As a result, they cannot find the word they sought. Over the years of strug Metaphone, Caverphone, DMetaphone, Phonex etc., are also used for information retrieval in different environments. The main con- words based on sounds is known as “Phonetic Matching”. Soundex was the first algorithm developed and other algorithms such as and Spanish languages. The newly developed MetaSoundex algorithm addresses the limitations of well-known phonetic matching tribution of this paper is to analyze and implement the newly proposed MetaSoundex algorithm for fixing ill-defined data in English Soundex and Metaphone algorithms and has higher precision compared to Soundex, thus reducing the noise in the considered arena. techniques, Metaphone and Soundex. Specifically, the new algorithm provided results that are more accurate compared to both Keywords: Information Retrieval, Metaphone, Metasoundex, Misspelled Words, Phonetic Matching, Soundex Paper Code (DOI): 19822; Originality Test Ratio: 19%; Submission Online: 23-Jan-2018; Manuscript Accepted: 30-Jan-2018; Originality Check: 03-Feb-2018; Peer Reviewers Comment: 13-Feb-2018; Double Blind Reviewers Comment: 20-Mar-2018; Author Revert: 24-Mar-2018; Camera-Ready-Copy: 27-Mar-2018; Editorial Board Excerpt: 30-Mar-2018. -
Discovering Lexical Similarity Through Articulatory Feature-Based Phonetic Edit Distance
Discovering Lexical Similarity Through Articulatory Feature-based Phonetic Edit Distance ∗ † ∗ Tafseer Ahmed , Muhammad Suffian Nizami , Muhammad Yaseen Khan ∗ † Mohammad Ali Jinnah University, Karachi , FAST NUCES, Faisalabad [email protected], [email protected], [email protected] Abstract Lexical Similarity (LS) between two languages uncovers many interesting linguistic insights such as genetic relationship, mutual intelligibility, and the usage of one’s vocabulary into other. There are various methods through which LS is evaluated. In the same regard, this paper presents a method of Phonetic Edit Distance (PED) that uses a soft comparison of letters using the articulatory features associated with them. The system converts the words into the corresponding International Phonetic Alphabet (IPA), followed by the conversion of IPA into its set of articulatory features. Later, the lists of the set of articulatory features are compared using the proposed method. As an example, PED gives edit distance of German word vater (/faːtər/) and Persian word ‘ (pidar, /pedær/) as ’ﭘﺪﺭ shalom, /ʃəlɒm/) and Arabic word ‘ ’ (salam, /səla:m/) as 0.93, whereas for a juxtapose) ’שלום‘ and similarly, Hebrew word ;0.82 ﺳﻼﻡ comparison, their IPA based edit distances are 4 and 2 respectively. Experiments are performed with six languages (Arabic, Hindi, Marathi, Persian, Sanskrit, and Urdu). In this regard, we extracted part of speech wise word-lists from the Universal Dependency corpora and evaluated the LS for every pair of language. Thus, with the proposed approach, we find the genetic affinity, similarity, and borrowing/loan-words despite having script differences and sound variation phenomena among these languages. Keywords: Lexical Similarity, Edit Distance, Phonetic Matching, Articulatory Features Arabic, Hindi, Marathi, Persian, Sanskrit, and Urdu.