PL EN


Preferencje help
Widoczny [Schowaj] Abstrakt
Liczba wyników
Tytuł artykułu

Komputerowe modelowanie artykulacji głosek języka polskiego

Autorzy
Wybrane pełne teksty z tego czasopisma
Identyfikatory
Warianty tytułu
Języki publikacji
PL
Abstrakty
Rocznik
Tom
Strony
2--217
Opis fizyczny
Bibliogr. 127 poz. rys., wykr.
Twórcy
  • Instytut Podstawowych Problemów Techniki PAN
Bibliografia
  • 1. Alvan A.,Naranyan S., Haker K. (1997), Toward articulatory-acoustic models for liquid aproximants based on MRI and EPG data. Part II. The rhotics., J. Acoustic. Soc. Am. 101, 1078-1089.
  • 2. Atal B.S., Chang J.J., Mathews M.V., Tukey J.W. (1978), Inversion of articulatory-to- acoustic transformation in the vocal tract by a computer-sorting technique, J. Acoustic. Soc. Am. 63,5, 1535-1555.
  • 3. Atal B.S, Rioul O. (1989), Neural networks for estimating articulatory positions from speech, J. Acoustic. Soc. Am. 86,123-131.
  • 4. Badin P.,Fant G. (1984), Notes on vocal tract computation, STL-QPSR 2-3/1984, 53- 108.
  • 5. Badin P., Bailly G., Rayaudi M., Segebarth C. (1998), A three-dimensional linear articulatory model based on MRI data, Proc. 3rd ESCA Int. Workshop on Speech Synthesis, 249-254.
  • 6. Baer T., Gore J.C., Gracco L. C., Nye P.V., (1991) Analysis of vocal tract shape and dimension using magnetic resonance imaging: vowels, J. Acoust. Soc. Am., 90, 2, (Pt 1), 799-828.
  • 7. Benade A.H., (1968) On the propagation of sound waves in a cylindrical conduit, J. Acoust. Soc. Am. 44,616-623.
  • 8. Beautemps D., Badin P., Laboissiere R. (1995), Deriving vocal tract area functions from midsagittal profiles and formant frequencies: A new model for vowels and fricatives consonants based on experimental data, Speech Communication, 16, 1, 27-47.
  • 9. Berg Van Den J.W., Zantema J.T., Doomenbal P. jr, (1957), On the air resistance and the Bernoulli effect of the human larynx, J. Acoust. Soc. Am. 29,626-631.
  • 10. Berg Van Den J.W., (1958) Myoelastic-aerodynamic theory of voice production, J. of Speech and Hearing Res., 1,227-244.
  • 11. Biedrzycki L. (1978), Fonologia angielskich i polskich rezonantow, PWN, Warszawa.
  • 12. Bolla K., Foldi E. (1987), A phonetic conspectus of Polish. The articulatory and acoustic features of Polish speech sounds., Hungarian Papers in Phonetics 18, Budapest.
  • 13. Borden G.J., Harris K.S. (1984), Speech Science Primer: Physiology, Acoustics and Perception of Speech. 2nd ed., Williams&Wilkins, Baltimore.
  • 14. Broad D. J. (1973), Phonation w: Normal aspects of speech, hearing and language, F.D. Minifie, T.J. Hixon, F. Wiliams, Prentice-Hall, Englewood Cliffs, 127-167.
  • 15. Butcher A., Weiher E. (1976), An electropalatographic investigation of coarticulation in VCV sequences, J. of Phonetics, 3, 39-47.
  • 16. Caliński T., Jassem W, Kaczmarek Z. (1970), Investigation of vowel formant frequencies as personal voice characteristics by means of multivariate analysis of variance, Speech Analysis and Synthesis, vol. 2, (ed. W. Jassem),Warsaw, 7-26.
  • 17. Carré R., Mrayati M. (1992), Distinctive regions in acoustic tubes speech production modelling, J. Acoustique, 5, 141-159.
  • 18. Chan D., Fourcin A., Gybbon D., Grandstrom B., Huckvale M., Kokkinakis G., Kvale K., Lamel L., Lindberg B., Moreno A., Mouropoulos J., Senia F., Transcoso I., Veit C. 't, Zeilinger J. (1995) EUROM - A spoken Language Resource for the EU, Proc. EUROSPEECH'95, Madrid, vol. 1, 867-870.
  • 19. Childers D.G, Hicks D.M., Moore G.P., Alsaka Y.A. (1986), A model for vocal vibration motion, contact area, and the glotogram, J. Acoust. Soc. Am. 80(5), 1309-1320.
  • 20. Ciocea S., Schoentgen J. (1998), Semi-analytic formant-to-area mapping, Etudes&Travaux, n° 2, ULB, Bruxelles.
  • 21. Cole R., Mariani J., Uszkoreit H., Zaenen A., Zue V. (1996), Survey of the state of the art in human language technology, Center for Spoken Language Undeerstanding, Oregon Graduate Institute, http://www.cse.ogi.edu/CSLU/HLTSurvey/
  • 22. Czistowicz L.A., Kozewnikow V.A. i in. (1965), Riecz: Artikulacja i vospriatje., Nauka, Moskwa-Leningrad.
  • 23. Dang J., Honda K., Suzuki H. (1994), Morphological and acoustical analysis of the nasal and the paranasal cavities, J. Acoust. Soc. Am., 96, 2088-2100.
  • 24. Dang J., Honda K. (1996), Acoustical modeling of the vocal tract based on morphological reality: Incorporation of the paranasal sinuses and the piriform fossa, Proc. 1st ESCA Tutorial and Research Workshop on Speech Production Modeling: From Control Strategies to Acoustics, Autrans,49-52.
  • 25. Demolin D., Hombert J.-M., Lecuit V., Segebarth Ch., Soquet A. (1995), An MR1 study of French vowels, Proc. EUROSPEECH’95, Madrid, 2235-2238.
  • 26. Dtuska M. (1981), Fonetyka polska. Artykulacje glosek polskich, PWN, Warszawa- Krakow (wznowienie z 1947 r).
  • 27. DukiewiczL. (1967), Polskie gloski nosowe, PWN, Warszawa.
  • 28. Dukiewicz L. (1995), Fonetyka [w:] Fonetyka i Fonologia (L. Dukiewicz i I. Sawicka), Wyd. Inst. J?z. Polskiego PAN, Krakow.
  • 29. DUNN H.K. (1950), The calculation of vowel resonances and an electrical vocal tract, J. Acoust. Soc .Am, 22, 740-755.
  • 30. Engwall O. (1999), Vocal tract modelling in 3D, STL-QPSR 1-2/1999, 31-38.
  • 31. von Essen O. (1962), Allgemeine und angewandte Phonetik, 3-e Auf., Akademie- Verlag, Berlin, (Fonetyka ogólna i stosowana, PWN, Warszawa, 1967)
  • 32. Fant G. (1960), Acoustic theory of speech productions, Mouton and Co.,s' Gravenhage.
  • 33. Fant G. (1982), Preliminaries to analysis of the human voice source, STL-QPSR 4/1982, 1-27.
  • 34. Fant G. (1995), The LF-model revisited . Transformations and frequency domain analysis, STL-QPSR 2-3/1995, 119-156.
  • 35. Farnsworth D.W. (1940), High-speed motion pictures of the human vocal cords, Bell Lab. Rec., 18, 203-208.
  • 36. Flanagan J.L. (1972), Speech analysis, synthesis and perception, Springer Vg, wyd. 2, New York.
  • 37. Flanagan J.L., Ishizaka K. (1978), Computer model to characterize the air volume displaced by the vibrating vocal cords, J. Acoust. Soc. Am. 63, 5, 1559-1565.
  • 38. Flanagan J.L., Landgraf L.L. (1968), Self-oscillating source for vocal-tract synthesizers, IEEE Trans. Audio and Electronics, AU-16. 57-64.
  • 39. Fourcin A.J., Abberton E. (1971), First applications of new laryngograph, Med. Biol. Illus.,21, 172-182.
  • 40. Fourcin A.J., Abberton E. (1977), Laryngograph studies of vocal fold vibration, Phonetica, 34, 313-315.
  • 41. Fowler C.A. (1979), Coarticulation and theories of extrinsic timing, Haskins Laboratories Status Report on Speech Research, January-March, SR-57.
  • 42. Fujimura O. (1962), Analysis of nasal consonants, J. Acoust. Soc. Am., 34, 1865- 1875.
  • 43. Fujimura O. (1977), Model studies of tongue gestures and the derivation of vocal tract area functions [in:], Dynamic aspects of speech production, M. Sawashima, F.S. Cooper, University Press Tokyo, 225-232.
  • 44. Fujimura O. (1987), Fundamentals and applications in speech research, Proc. Xlth I. Congress Phonetic. Sc., Tallin, vol. 6, 10-27.
  • 45. Grocholewski S. (1997) Corpora - Speech Database for Polish Diphones, Proc. of EUROSPEECH'97, 1735-1738.
  • 46. Gubrynowicz R. (1990), Metody akustyczne w diagnostyce narz^du mowy, [w:] Problemy Biocybernetyki i inzynierii biomedycznej, Tom 2 - Biopomiary (red. L. Filipczynski, W. Torbicz), WkiL, Warszawa, 161-181.
  • 47. Gubrynowicz R. (1998), The Polish Database of Spoken Language, Proc. First Int. Conf. on Language Resources and Evaluation, Granada, May, pp.1031-1037.
  • 48. Gubrynowicz R. (1999) Projekt i realizacja bazy danych mowy polskiej w programie BABEL, Speech and Language Technology - Technologia Mowy i Jqzyka, vol. 3,(ed. W Jassem), PTFon, Poznan,257-276.
  • 49. Gubrynowicz R., Le Guennec L., Mercier G. (1985), Detection and recognition of nasal consonants in continuous speech: Preliminary results [in:] New Systems and Architectures for Automatic Speech Recognition (eds. R. De Mori, C. Suen), Springer Vg, Berlin, 613-628.
  • 50. Gubrynowicz R., Marasek K., Mikiel W., Wiqzlak W. (1990), A simplified system for isolated word recognition, Archives of Acoustics, 15, 3-4,287-300.
  • 51. Gubrynowicz R,. Nowakowska W., Zamecki P. (1995), Artykulacyjne modelowanie wybranych polqczen polskich rezonantow, Mat. I Krajowej Konf. „Glosowa Komunikacja Cztowiek-Komputer”, Wroclaw, Politechnika Wroclawska, 37-42.
  • 52. Gubrynowicz R., Wrzoskowicz A. (1993), Labeller - A system for automatic labelling of speech continuous signals, EUROSPEECH '93, Proc. 3rd European Conf. on Speech and Technology, vol. 1,297-300, Berlin.
  • 53. Gubrynowicz R., Wrzoskowicz A. (1996), Speech recognition in simulated adverse conditions, Workshop "Integration of Language and Speech", Moscow, 46-55
  • 54. Hiki S.,Itoh H. (1986), Influence of palate shape on lingual articulation, Speech Com. 5, 2, 141-158.
  • 55. Hirano M. (1977), Structure and vibratory behavior of the vocal folds [in:], Dynamic aspects of speech production, eds. M. Sawashima, F.S. Cooper, University Press Tokyo, 13-27.
  • 56. Ishizaka K.(1966), On models of the larynx, J. Acoust. Soc. Jap. 22, 293-294.
  • 57. Ishizaka K., Flanagan J.L. (1972), Synthesis of voiced sounds from a two-mass model of the vocal cords. Bell System Techn. Joum. 51, 1233-1268.
  • 58. Ishizaka K., Kaneko T. (1968), On equivalent mechanical constants of the vocal cords, Joum. Acoust. Soc. Japan, 24,312-313.
  • 59. Ishizaka K., Matsudaira M. (1968), What makes the vocal cords vibrate?, Proc. of the 6th Int. Congress on Acoustics, vol. II, B-9-B12, Tokyo.
  • 60. Ishizaka K., Matsudaira M. (1972), Fluid mechanical considerations of vocal cord vibration, Monogr. 8, Speech Res. Lab., Santa Barbara, CA.
  • 61. Jassem W. (ed.) (1968-1981), Speech Analysis and Synthesis, vol. 1-5, PWN, Warsaw
  • 62. Jassem W. (1973), Podstawy fonetyki akustycznej, PWN Warszawa.
  • 63. Kacprowski J. (1962), Teoretyczne podstawy syntezy samoglosek polskich w rezonansowych ukladach formantowych, Rozprawy Elektrotechniczne, 8, 127-203.
  • 64. Kacprowski J. (1977a), Physical models of the larynx source, Archives of Acoustics, 2, 1,47-70.
  • 65. Kacprowski J. (1977b), Model symulacyjny kanalu glosowego z uwzgl^dnieniem zjawiska nazalizacji, Archiwum Akustyki, 12, 4, 281-302.
  • 66. Kacprowski J. (1981), An acoustical model of the vocal tract for the diagnostics of cleft palate [in:] Speech Analysis and Synthesis (ed. W. Jassem), vol.5, 165-183.
  • 67. Kacprowski J. Mikiel W. (1965a), Synthesis of Polish C-V syllables by means of the terminal-analog speech synthesizer, Proc. of 5th Int. Congress of Acoustics,A- 14 .Liege
  • 68. Kacprowski J. Mikiel W. (1965b), Simplified rules for parametric synthesis of nasal and stop consonants in C-V syllables by means of the terminal analog speech synthesizer, Acustica, 16, 356-364.
  • 69. Kacprowski J., Mikiel W., Szewczyk A. (1976), Acoustical modelling of cleft palate, Archives of Acoustics, 1,2, 137-158.
  • 70. Kiritani S. (1986), X-ray microbeam for measurement of articulatory dynamics- techniques and results, Speech Com. 5,2,119-140.
  • 71. Koizumi T., Taniguchi S.,Hiromitsou S. (1987), Two-mass models of the vocal cords for natural sounding voice synthesis, J. Acoust. Soc. Am. 82, 4,1179-1192.
  • 72. Kudela K. (1970) A study of optimal formant frequency values of Polish vowels using synthetic speech, Speech Analysis and Synthesis (ed. W. Jassem), vol.2, PWN, Warsaw.
  • 73. Kurcz I. (1976), Psycholingwistyka, PWN, Warszawa
  • 74. Kurowski K.M., Blumstein S.E. (1984), Perceptual integration of the murmur and formant transitions for place articulation in nasal consonants, J. Acoust. Soc. Am., 76, 383-390.
  • 75. Ladefoged P. (1963), Some physiological parameters in speech, Language and Speech, 6, 109-119.
  • 76. Ladefoged P., De Clerk J., Lindau M., Papcun G.A. (1972), An auditory-motor theory of speech production, UCLA Working Papers in Phonetics 22,48-75.
  • 77. Ladefoged P., Harshman R., Goldstein L., Rice L. (1978), Generating vocal tract shapes from formant frequencies, J. Acoust. Soc. Am., 64, 1027-1035.
  • 78. Ladefoged P., Bladon A. (1982), Attempts by human speakers to reproduce Fant's nomograms, UCLA Working Papers in Phonetics, 54,40-56.
  • 79. Lee M. Childers D. G. (1997), Estimation of vocal tract front cavity resonance in unvoiced fricative speech, Proc. 5“* Eurospeech, vol. 5, 2539-2542.
  • 80. Lin Q. (1990), Speech production theory and articulatory speech synthesis, KTH, Stockholm.
  • 81. Lin Q. (1994), Vocal tract computation.: How to make it more robust and faster, J. Acoust. Soc. Am. 96, 2576-2579.
  • 82. Lin Q., Fant G. (1989), Vocal tract area function parameters from formant frequencies, Proc. European Conf. On Speech and Technology, EUROSPEECH, Paris, vol.2, 673-676.
  • 83. Lofquist A. (1997), Theories and Models of Speech Production [in:] The Handbook of Phonetic Sciences, Hardcastle W.J., Laver J. (eds.), Blackwell Pub. Ltd, Oxford
  • 84. Lobacz P. (1970), An acoustic analysis of the opposition /j:i/ and /w:u/ in present- day Polish, Speech Analysis and Synthesis vol. II, (ed. W. Jassem), PWN, Warsaw, 119-134.
  • 85. MacNeilage P.F., DeClerk J. (1969), On the motor control of coarticulation in CVC syllables, J. Acoust. Soc. Am., 45,1217-1233.
  • 86. Maeda S. (1987), Articulatory-acoustic relationship in unvoiced stops: A simulation study, Proc. Xlth Int. Congress on Phonetic Sc., Tallin, 5, 11-14.
  • 87. Maeda S. (1988), Improved articulatory models, J. Acoust. Soc. Am., 84, S146A.
  • 88. Maeda S. (1993), http://www.tsi.enst.fr/tsi/
  • 89. Marasek K. (1997), Electroglottographic Description of Voice Quality, Phonetic AIMS, Universitat Stuttgart.
  • 90. Marchal A. (1983), Coarticulation or coproduction?, Proc. 11th ICA, Paris, v.4, 255- 258
  • 91. Mermelstein P. (1967), Determination of the vocal-tract shape from measured formant frequencies, J. Acoust. Soc. Am. 41, 5, 1283-1294.
  • 92. Miki N., Mastuzaki H., Aoyama K.., Ogawa Y. (1996), Transfer function of 3-D vocal tract model with higher mode, Proc. 1“ ESCA Tutorial and Research Workshop on Speech Production Modeling: From Control Strategies to Acoustics, Autrans, 211- 214.
  • 93. Morse P.M, Ingarden K. (1968), Theoretical Acoustics, McGraw-Hill, New York,
  • 94. Mrayati M. (1976), Contribution aux etudes sur la production de la parole, These d'Etat, Grenoble.
  • 95. Mrayati M., Carre R., Guerin B. (1988), Distinctive regions and modes: A new teory of speech production, Speech Comm.,7, 257-286.
  • 96. Nakajima T., Omura H., Tanaka K.,Ishizaki S., (1975), Estimation of vocal tract area functions by adaptive inverse filtering methods and identification of articulatory model [in:/ Speech Communication (ed. G. Fant), vol. 1, Stockholm, Almqvist&Wiksell, 11-20.
  • 97. Narayan S, Alvan A., Haker K. (1997), Toward articulatory-acoustic models for liquid approximants based on MRI and EPG data. Part I: The laterals, J. Acoust. Soc. Am., 101,1064-77.
  • 98. Nowakowska W., Zamecki P. (1989), Dynamical model of the vocal tract in consonant and nasalized articulation, Archives of Acoustics, 14,1-2,67-96.
  • 99. Nowakowska W., Gubrynowicz R., Zamecki P. (1993), On the model of vocal tract dynamics, Archives of Acoustics, 18,4, 525-537.
  • 100. Öhman S.E.G. (1966), Coarticulation in VCV utterances: Spectrographic measurements, J. Acoust. Soc. Am., 39,1, 151-168.
  • 101. Perrier P., Boe L.J., Sock R. (1992), Vocal tract area function estimation from midsagittal dimensions with CT scans and a vocal tract cast: modelling the transition with two sets of coefficients, J. of Speech and Hearing Reaserch, 35, 1, 53-67.
  • 102. Roach P., Amfield S., Barry W., Baltova J., Boldea M., Fourcin A., Gonet W., Gubrynowicz R., Hallum E., Lamel L., Marasek K., Marchal A., Meister E., Vicsi K.(1996), BABEL: An Eastern European Multi-language Database, Proc. ISLP 1996 paper SaP2Pl .1
  • 103. Repp B. (1986), Perception of the [m]-[n] distinction in CV syllables, J. Acoust. Soc. Am., 87,351-358
  • 104. Rothenberg M. (1980), Acoustic interaction between the glottal source and the vocal tract, [in:] Vocal fold physiology, (ed. K. N. Stevens and M. Hirano), University Tokyo Press, chapt. 21, 305-323.
  • 105. Rothenberg M. (1981), An interactive model for the voice source, STL-QPSR 4/1981, 1-17.
  • 106. RuwetN., (1982), Wprowadzenie do gramatyki generatywnej, Ossolineum, Wrocław.
  • 107. Saussure de F. (1961), Kurs językoznawstwa ogolnego, Warszawa.
  • 108. Sawicka I. (1995), Fonologia [w:] Fonetyka i Fonologia (L. Dukiewicz i I. Sawicka), Wyd. Inst. J?z. Polskiego PAN, Krakow.
  • 109. Schoentgen J., Ciocea S. (1995), Kinematic acoustic-to-geometric mapping, Proc. XIII Int. Congress on Phonetic Sc., vol. 2,194-197.
  • 110. Schroeder M. (1967), Determination of the geometry of the human vocal tract by acoustic measurements, J. Acoust. Soc. Am., 41, 4 (Part 2), 1002 -1010.
  • 111. Schroeter J., Sondhi M. (1994), Techniques for estimating vocal-tract shapes from the speech signal, IEEE Trans. On Speech and Audio Processing, 2, 1,133-150.
  • 112. Shirai K., Kobayashi T. (1986), Estimation and generation of the articulatory motion from speech wave, Speech Comm., 5,159-170.
  • 113. Shirai K. (1993), Estimation and generation of the articulatory motion using neural networks, Speech. Comm., 13, 1,45-51.
  • 114. Stevens K.N. (1971), Aifrflow and Turbulence Noise for Fricative and Stop Consonants: Static Considerations, J. Acoust. Soc. of Am., 50, nr 4 (part 2), 1180-1192.
  • 115. Stevens K.N. (1993), Modelling affricate consonants, Speech Comm., 13, 1, 33-43.
  • 116. Stevens K.N. (1998), Acoustic Phonetics, MIT Press, Cambridge.
  • 117. Story B., Titze I., Hoffman E. (1996), Vocal tract area functions from magnetic resonance imaging, J. Acoust. Soc. of Am., 100, 537-554.
  • 118. Sundberg J., Johansson C.,Wilbrand H., Ytterbergh C. (1987), From sagittal distance to area. A study of transverse, vocal tract cross-sectional area, Phonetica, 44, 1, 76-90
  • 119. Titze I.R. (1988), The physics of small-amplitude oscillation of the vocal folds, J. Acoust. Soc. Am., 83, 4, 1536-1552.
  • 120. Titze I.R. (1994), Principle of Voice Production, Prentice Hall, Englewood Cliffs.
  • 121. Titze I.R., Strong W. (1975), Normal modes in vocal cord tissues, J. Acoust. Soc. Am., 57,736-744.
  • 122. Vygotski L.S. (1962) Thought and Language, M.l.T. Press, Cambridge.
  • 123. Wakita H.(1973), Direct estimation of the vocal tract shape by inverse filtering of acoustic speech waveform,IEEE Trans. Audio Electroacoust. AU-21. 417-427.
  • 124. Wakita H., Fant G. (1978), Toward a better vocal tract model, STL-QPSR 1/1978, 9-29.
  • 125. Wierzchowska B.,(1980), Fonetyka i fonologia jqzyka polskiego, Ossolineum, Warszawa-Wroclaw.
  • 126. Wrzoskowicz A. (1996), Analiza efektywnosci niejawnych modeli Markowa w rzeczywistych systemach automatycznego rozpoznawania mowy polskiej, Rozpr. dokt., IPPT PAN.
  • 127. Young S., Bloothoof G. eds., (1997) Corpus-based methods in language and speech processing, Kluver Ac Pub. Dordrecht.
Typ dokumentu
Bibliografia
Identyfikator YADDA
bwmeta1.element.baztech-article-BPB4-0009-0004
JavaScript jest wyłączony w Twojej przeglądarce internetowej. Włącz go, a następnie odśwież stronę, aby móc w pełni z niej korzystać.