The Phonetics of English Pronunciation - Week 3
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Part 1: Introduction to The
PREVIEW OF THE IPA HANDBOOK Handbook of the International Phonetic Association: A guide to the use of the International Phonetic Alphabet PARTI Introduction to the IPA 1. What is the International Phonetic Alphabet? The aim of the International Phonetic Association is to promote the scientific study of phonetics and the various practical applications of that science. For both these it is necessary to have a consistent way of representing the sounds of language in written form. From its foundation in 1886 the Association has been concerned to develop a system of notation which would be convenient to use, but comprehensive enough to cope with the wide variety of sounds found in the languages of the world; and to encourage the use of thjs notation as widely as possible among those concerned with language. The system is generally known as the International Phonetic Alphabet. Both the Association and its Alphabet are widely referred to by the abbreviation IPA, but here 'IPA' will be used only for the Alphabet. The IPA is based on the Roman alphabet, which has the advantage of being widely familiar, but also includes letters and additional symbols from a variety of other sources. These additions are necessary because the variety of sounds in languages is much greater than the number of letters in the Roman alphabet. The use of sequences of phonetic symbols to represent speech is known as transcription. The IPA can be used for many different purposes. For instance, it can be used as a way to show pronunciation in a dictionary, to record a language in linguistic fieldwork, to form the basis of a writing system for a language, or to annotate acoustic and other displays in the analysis of speech. -
The Kortlandt Effect
The Kortlandt Effect Research Master Linguistics thesis by Pascale Eskes Submitted in partial fulfillment of the requirements for the degree Master of Arts July 2020 Supervisor: Dr. Alwin Kloekhorst Second reader: Prof. dr. Alexander Lubotsky ii Abstract It has been observed that pre-PIE *d sometimes turns into PIE *h₁, also referred to as the Kortlandt effect, but much is still unclear about the occurrence and nature of this change. In this thesis, I provide an elaborate discussion aimed at establishing the conditions and a phonetic explanation for the development. All words that have thus far been proposed as instances of the *d > *h₁ change will be investigated more closely, leading to the conclusion that the Kortlandt effect is a type of debuccalisation due to dental dissimilation when *d is followed by a consonant. Typological parallels for this type of change, as well as evidence from IE daughter languages, enable us to identify it as a shift from pre-glottalised voiceless stop to glottal stop. Acknowledgements First and foremost, I would like to thank my supervisor Alwin Kloekhorst for guiding me through the writing process, helping me along when I got stuck and for his general encouragement. I also want to thank the LUCL lecturers for sharing their knowledge all these years and helping me identify and research my own linguistic interests; my family for their love and support throughout this project; my friends – with a special mention of Bahuvrīhi: Laura, Lotte and Vera – and Martin, also for their love and support, for the good times in between writing and for being willing to give elaborate advice on even the smallest research issues. -
Methods for Quantifying Tongue Shape and Complexity Using Ultrasound Imaging 1960 Katherine M
CLINICAL LINGUISTICS & PHONETICS 2016, VOL. 30, NOS. 3–5, 328–344 http://dx.doi.org/10.3109/02699206.2015.1099164 Methods for quantifying tongue shape and complexity using ultrasound imaging 1960 Katherine M. Dawsona,b, Mark K. Tiedeb, and D. H. Whalena,b,c aDepartment of Speech-Language-Hearing Sciences, City University of New York Graduate Center, New York, NY, USA; bHaskins Laboratories, New Haven, CT, USA; cDepartment of Linguistics, Yale University, New Haven, CT, USA ABSTRACT ARTICLE HISTORY Quantification of tongue shape is potentially useful for indexing Received 3 February 2015 articulatory strategies arising from intervention, therapy and devel- Revised 18 September 2015 opment. Tongue shape complexity is a parameter that can be used Accepted 20 September to reflect regional functional independence of the tongue muscu- 2015 lature. This paper considers three different shape quantification KEYWORDS methods – based on Procrustes analysis, curvature inflections and Articulation; complexity; Fourier coefficients – and uses a linear discriminant analysis to test speech production how well each method is able to classify tongue shapes from measurement; tongue different phonemes. Test data are taken from six native speakers shape; ultrasound of American English producing 15 phoneme types. Results classify tongue shapes accurately when combined across quantification methods. These methods hold promise for extending the use of ultrasound in clinical assessments of speech deficits. Introduction The shaping of the tongue during speech is a finely controlled motor activity involving the coordination of a complex array of intrinsic and extrinsic agonist–antagonist muscles (Takemoto, 2001). However, measuring and quantifying tongue shape has proved challen- ging, as the tongue, a muscular hydrostat, is a difficult structure to image. -
The Articulatory Modeling of German Coronal Consonants Using TADA
The articulatory modeling of German coronal consonants using TADA Manfred Pastätter, Marianne Pouplier Institute of Phonetics and Speech Processing, Ludwig-Maximilians-University, Munich, Germany [email protected], [email protected] Abstract spring equations, that is, each gesture is specified for a rest po- sition (i.e., target), as well as a stiffness and damping parameter. We present a modeling study on German coronals using the task The stiffness parameter serves to distinguish between classes dynamic synthesizer TADA to provide new aspects to the dis- of sounds with vowel gestures having a lower stiffness setting cussion whether coronals should be generally specified for a than consonant gestures (e.g. Fowler 1980, Perkell 1969, Roon tongue body target to control the tongue-shape globally. We ar- et al. 2007). Each gesture hierarchically controls an ensemble gue that all coronals must be specified for a tongue body target of articulators which are yoked in a task-specific fashion in or- in order to avoid inappropriate dominance of the vowel dur- der to achieve a particular constriction goal. For instance, a ing the consonant. This target must be weighted more strongly lip closure gesture is associated with the articulators upper lip, compared to the temporally co-existing vowel gesture. We fur- lower lip, jaw. If temporally overlapping gestures call on the ther study the effects of changing the consonant:vowel stiffness same articulators with conflicting demands, weighting param- ratio on CV and VC transitions. The stiffness settings employed eters specify the degree to which one gesture may dominate in TADA for American English lead to general vowel diphthon- in its control over a given articulator. -
Influences of Tongue Biomechanics on Speech Movements During The
Influences of tongue biomechanics on speech movements during the production of velar stop consonants: A modeling study Pascal Perrier1, Yohan Payan2, Majid Zandipour3 and Joseph Perkell3 1Institut de la Communication Parlée, UMR CNRS 5009, INPG, Grenoble, France 2 Laboratoire TIMC, CNRS, Université Joseph Fourier, Grenoble, France 3Speech Communication Group, R.L.E., Massachusetts Institute of Technology, Cambridge, Massachusetts, USA Received: Revision: April 15, 2003 Running Title: On loops and tongue biomechanics Abbreviated Title: On loops and tongue biomechanics Contact : Pascal Perrier ICP, INPG 46 Avenue Félix Viallet 38031 Grenoble Cédex 01 France e-mail : [email protected] Phone 33 + 476 574 825 Fax : 33 + 476 5704 710 1 Abstract This study explores the following hypothesis: forward looping movements of the tongue that are observed in VCV sequences are due partly to the anatomical arrangement of the tongue muscles, how they are used to produce a velar closure and how tongue interacts with the palate during consonantal closure. The study uses an anatomically based two-dimensional biomechanical tongue model. Tissue elastic properties are accounted for in finite-element modeling, and movement is controlled by constant-rate control parameter shifts. Tongue raising and lowering movements are produced by the model mainly with the combined actions of the genioglossus, styloglossus, and hyoglossus. Simulations of V1CV2 movements were made, where C is a velar consonant and V is [a], [i] or [u]. Both vowels and consonants are specified in terms of targets, but for the consonant the target is virtual, and cannot be reached because it is beyond the surface of the palate. -
Marginal Phonology: Phonotactics on the Edge1
Marginal phonology: Phonotactics on the edge1 ELLEN BROSELOW Abstract As has long been recognized, the isomorphism between word edges and word- internal syllable edges is far from perfect. This paper examines the fit between an Optimality-Theoretic account of edge/interior asymmetries, using position- specific faithfulness constraints to protect edges or interiors of morphological constituents, and the actual typology of attested edge/interior asymmetries. A detailed analysis of the Indonesian language Balantak, in which the first mem- ber of a CC cluster is severely restricted unless that first C is root-final, is com- patible with the positional faithfulness account, but is problematic for accounts that explain greater freedom at edges solely in terms of licensing by higher prosodic structure or by phonetic context. I argue that a theory of edge/interior asymmetries must incorporate two possible functions of phonotactic restric- tions: to facilitate recovery of segmental contrasts, and to facilitate the parsing of strings into morphemes. 1. Introduction: Edge-interior asymmetries One argument for including the syllable in phonological representations ap- peals to parallels between medial phonotactics and the phonotactics of word 1. This work was supported by in part by NSF grant SBR-9729108 to the author and Daniel Finer and by funding from the Nederlandse Organisatie voor Wetenschappelik Onderzoek NWO. Portions of this paper were presented at the 8th Manchester Phonology Meeting, UK, May 2000, the 8th Biennial Workshop on Phonology, University of Utrecht, June 2000; 6th Annual SWOT (South Western Optimality Theory) Conference, USL Los Angeles, April 2001; and at SUNY Stony Brook, March 2001. I am grateful to those audiences, particularly Yoonjung Kang and Ricardo Bermudez-Otero, and to an anonymous reviewer for valuable comments and suggestions. -
Uu Clicks Correlate with Phonotactic Patterns Amanda L. Miller
Tongue body and tongue root shape differences in N|uu clicks correlate with phonotactic patterns Amanda L. Miller 1. Introduction There is a phonological constraint, known as the Back Vowel Constraint (BVC), found in most Khoesan languages, which provides information as to the phonological patterning of clicks. BVC patterns found in N|uu, the last remaining member of the !Ui branch of the Tuu family spoken in South Africa, have never been described, as the language only had very preliminary documentation undertaken by Doke (1936) and Westphal (1953–1957). In this paper, I provide a description of the BVC in N|uu, based on lexico-statistical patterns found in a database that I developed. I also provide results of an ultrasound study designed to investigate posterior place of articulation differences among clicks. Click consonants have two constrictions, one anterior, and one posterior. Thus, they have two places of articulation. Phoneticians since Doke (1923) and Beach (1938) have described the posterior place of articulation of plain clicks as velar, and the airstream involved in their production as velaric. Thus, the anterior place of articulation was thought to be the only phonetic property that differed among the various clicks. The ultrasound results reported here and in Miller, Brugman et al. (2009) show that there are differences in the posterior constrictions as well. Namely, tongue body and tongue root shape differences are found among clicks. I propose that differences in tongue body and tongue root shape may be the phonetic bases of the BVC. The airstream involved in click production is described as velaric airstream by earlier researchers. -
An Emergent Approach to the Guttural Natural Class John Sylak-Glassman
An Emergent Approach to the Guttural Natural Class John Sylak-Glassman (University of California, Berkeley) The post-velar consonants (uvulars, pharyngeals/epiglottals, and glottals) have been claimed to form the guttural natural class. Hayward and Hayward (1989; hereafter H & H) and McCarthy (1994) argue on the basis of evidence from the Semitic and Cushitic stocks that a guttural natural class must be formally recognized in phonological theory. H & H propose a ‘zone of constriction’ feature [GUTTURAL]. McCarthy (1994) renames this feature [PHARYNGEAL], refines its ‘zone of constriction’ basis in terms of orosensory perception, and integrates it into standard feature geometry by placing it under the PLACE node on par with ORAL place and its termini ([LAB], [COR], [DORS]). The claim is that the guttural natural class is an innate part of Universal Grammar. This study argues that while there is clear and persuasive evidence for the guttural natural class, it should be viewed as emergent and language-specific rather than innate and universal. H & H (1989:179-183) and McCarthy (1994:207-213) show that all the post-velar consonants lower or back vowels in phonological processes in Arabic, Hebrew, several Ethiopic languages, and D’opaasunte (Cushitic), and this is taken as strong cross-linguistic evidence for the guttural natural class. Supposing an innate and universal guttural natural class, uvular, pharyngeal, and glottal consonants are predicted to lower or back vowels regardless of whether another guttural consonant occurs in a given language. Of the 628 language varieties (549 Ethnologue languages) in P-base (Mielke 2008), 13 varieties possess at least one uvular, but no glottals or pharyngeals. -
UC Berkeley UC Berkeley Phonlab Annual Report
UC Berkeley UC Berkeley PhonLab Annual Report Title Articulatory Variation of the Alveolar Tap and Implications for Sound Change Permalink https://escholarship.org/uc/item/9n00618c Journal UC Berkeley PhonLab Annual Report, 8(8) ISSN 2768-5047 Author Cathcart, Chundra Publication Date 2012 DOI 10.5070/P79n00618c eScholarship.org Powered by the California Digital Library University of California UC Berkeley Phonology Lab Annual Report (2012) Articulatory variation of the alveolar tap and implications for sound change∗ Chundra Cathcart 1 Introduction As a natural class, the label \rhotic" comprises an extremely heterogeneous set of sounds which often show little in common phonetically (Ladefoged and Maddieson, 1996). In the same way, individual rhotic phonemes in the world's languages have been shown to exhibit highly variable articulatory behavior. Several phonetic studies have revealed much subphonemic variation in the realization of individual rhotic phonemes, with different articulatory configurations corresponding to one categorical acoustic signature. An old aphorism says that the seeds of sound change can be found in the details of synchronic variation. If this insight is correct, then it follows that among variants of a phone or phoneme, possible seeds of of attested changes should be identifiable. The aim of this paper is to make a tentative connection between rhotic articulatory variability and a particular sound change seen in unrelated language families. Observing lingual ultrasound data, I analyze features of the alveolar tap that vary within and across speakers. I then propose a provisional link between some articulatory patterns seen in the data and the development of progressive rhotic postalveolarization or retroflexion, a sound change that has come about independently in some dialects of Swedish and Norwegian, in some English dialects, in Sanskrit, in some East Iranian languages, and elsewhere. -
A Mimicry Study of Adaptation Towards Socially-Salient Tongue Shape Variants
University of Pennsylvania Working Papers in Linguistics Volume 20 Issue 2 Selected Papers from NWAV 42 Article 12 10-2014 A mimicry study of adaptation towards socially-salient tongue shape variants Eleanor Lawson Jane Stuart-Smith James M. Scobbie Follow this and additional works at: https://repository.upenn.edu/pwpl Recommended Citation Lawson, Eleanor; Stuart-Smith, Jane; and Scobbie, James M. (2014) "A mimicry study of adaptation towards socially-salient tongue shape variants," University of Pennsylvania Working Papers in Linguistics: Vol. 20 : Iss. 2 , Article 12. Available at: https://repository.upenn.edu/pwpl/vol20/iss2/12 This paper is posted at ScholarlyCommons. https://repository.upenn.edu/pwpl/vol20/iss2/12 For more information, please contact [email protected]. A mimicry study of adaptation towards socially-salient tongue shape variants Abstract We know that fine phonetic ariationv is exploited by speakers to construct and index social identity (Hay and Drager 2007). Sociophonetic work to date has tended to focus on acoustic analysis, e.g. Docherty and Foulkes (1999); however, some aspects of speech production are not readily recoverable from an acoustic analysis. New articulatory analysis techniques, such as ultrasound tongue imaging (UTI), have helped to identify seemingly covert aspects of speech articulation, which pattern consistently with indexical factors, e.g. underlyingly, Scottish English middle-class and working-class coda /r/, have radically different tongue shapes and tongue gesture timings (Lawson, Scobbie and Stuart-Smith, 2011). This articulatory variation has gone unidentified, despite decades of auditory and acoustic analysis (Romaine, 1979; Speitel and Johnston, 1983; Stuart-Smith, 2007). UTI revealed that middle-class speakers tend to produce bunched variants of postvocalic /r/, while working-class speakers tend to produce tongue-tip raised variants (Lawson, Stuart-Smith and Scobbie 2011). -
Labial-Coronal Vs. Labial-Velar Consonant Sequences: an Articulatory Study
Labial-Coronal vs. Labial-Velar Consonant Sequences: An Articulatory Study Manon Carrissimo-Bertola1, Nathalie Vallée1, Ioana Chitoran2 (1) Gipsa-Lab, (2) CLLILAC-ARP [email protected], nathalie.vallee@gipsa- lab.grenoble-inp.fr, [email protected] Studies on universal trends in languages, both from different genetic and geographic origins, have shown favored combinations of non-adjacent consonants in words across various syllabic structures. Regarding place of articulation, sound sequences are more often organized with a labial consonant followed by a coronal one, rather than the opposite order. McNeilage & Davis (2000) called this trend the Labial Coronal (LC) Effect, and since then, it has been observed in twenty or so language lexicons (Vallée & al. 2009, G-ULSID database). This preferred organization is attested (i) between heterosyllabic onsets of two consecutive open syllables - CVCV, (ii) between tautosyllabic onset and coda - CVC (Table1), and (iii) in children productions at the first stage of words (McNeilage & Davis, 2000). Carrissimo- Bertola (2010) looked for other favored consonant place orders, in particular a potential labial-velar (LV) trend (Table2). A labial-velar effect was hypothesized because it shares with the labial-coronal order an anterior-posterior order of constrictions, and the use of two independent articulators. No labial- velar preference was found. We therefore propose to compare the articulatory strategies for both consonant sequences according to the places of articulation in order to understand why some of them are more widespread than others. Table 1: Mean LC/CL ratios estimated in four studies (* means no data). Table 2: Mean LV/VL ratios for the 19 G-ULSID languages, and number of languages by trend (* means no data). -
Consonants ROACH
THE PHONEME 1. The phoneme When we speak, we produce a continuous stream of sounds. In studying speech we divide this stream into small pieces that we call segments . The word ‘man’ is pronounced with a first segment mmm, a second segment æææ and a third segment nnn. Just as there is an abstract alphabet as the basis of our writing, so there is an abstract set of units as the basis of our speech. These units are called phonemes , and the complete set of these units is called the phonemic system of the language. Free variation & complementary distribution The phonemes themselves are abstract, but there are many slightly different ways in which we make the sounds that represent these phonemes, just as there are many ways in which we may make a mark on a piece of paper to represent a particular (abstract) letter of the alphabet. Whenever we hear, for example, two different ways of making a bbb, we speak of two different realisations of the phoneme. Since one can be substituted for the other without changing the meaning; the two realisations are said to be in free variation . On another hand, when we talk about different realisations of phonemes, we sometimes call these realisations allophones . For example, we find that the realisation of ttt in the word ‘tea’ is aspirated (as are all voiceless plosives when they occur before stressed vowels at the beginning of syllables). In the word ‘eat’, the realisation of ttt is unaspirated (as are all voiceless plosives when they occur at the end of a syllable and are not followed by a vowel).