poster 173asa tian 624 jkjiatian/posters/poster_173...multi-dimensionalphonetic space for phonation...

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Methods Conclusions References and Acknowledgements Participants: 107 native speakers of SH in total. Those born before 1980 (N = 52) still maintain phonation contrast. Speech Materials: monosyllabic words, 5 onset types (stop, fricative, affricate, nasal, zero) * 2 registers ([+Upper], [-Upper]) * 3 different items Measures: Pitch: F0; Spectral : H1*-H2*, H2*-H4*, H1*-A1*, H1*-A2*, H1*-A3*; Noise: Cepstral Peak Prominence (CPP); Formant and bandwidth: F1, B1; Electroglottographic: Contact Quotient (CQ), Peak Increase in Contact (PIC), Speed Quotient (SQ). Within-speaker z-score normalization was done on each measure. Statistics analysis: Multiple linear mixed-effects models to determine which measures differ significantly between registers. (based on measurements taken from the third interval where the contrast is the strongest) Fixed effects: Reduced model: Gender + Register. Full model: Gender x Register. Random intercepts: item, speaker. Random slopes: gender by item random slope when it improves the model. Logistic regression models on acoustic and EGG measures separately to determine which of the measures are most useful. (based on measurements taken from the entire syllable) Results Goals of the study Examine the acoustic and articulatory properties of the non- modal phonation in Shanghainese Make comparison with other languages [1] Cao, J., & Maddieson, I., (1992). An exploration of phonation types in Wu dialects of Chinese. Journal of Phonetics , 20(1), 77- 92. [2] Chao, Y., (1928). Studies in the Modern Wu-Dialects. Peking: Tsing Hua College Research Institute. [3] Gao, J., (2016). Sociolinguistic motivations in sound change: on-going loss of low tone breathy voice in Shanghai Chinese. Papers in Historical Phonology, Vol 1, 166-186. [4] Jiang, B., & Kuang, J., (2016). Consonant effects on tonal registers in Jiashan Wu. 90 th Annual Meeting of LSA. [5] Keating et al., (2012). Multi-dimensional phonetic space for phonation contrasts. Poster presented at LabPhon 13 in 2012. [6] Qian, N., (1992). Dangdai wuyu yanjiu [Studies in the contemporary Wu dialects]. Shanghai: Shanghai Educational Publishing House. [7] Ren, N., (1992). Phonation types and stop consonant distinctions: Shanghai Chinese. Ph.D. dissertation, The University of Connecticut. [8] Rose, P., (1989). Phonetics and phonology of yang tone phonation types in Zhenhai. C.L.A.O. [9] Sherard, M., (1972). Shanghai Phonology, Ph.D. dissertation, Cornell University. [10] Xu, B., & Tang, Z., eds. (1988). Shanghai shiqu fangyan zhi [DocumentaDon of the Shanghai dialect in urban districts]. Shanghai: Shanghai Education Press. [11] Yip, M., (1980). The tonal phonology of Chinese. Ph.D. dissertation, Massachusetts Institute of Technology. [12] Zhang, J., & Yan, H. (2015). Contextually dependent cue weighting for a laryngeal contrast in Shanghai Wu. In Proceedings of the 18 th International Congress of Phonetic Sciences. This study is supported by an Upenn faculty research fund to Prof. Jianjing Kuang. CPP: CQ: Register Tones (Chao numbers) [+Upper] 53 34 5 [-Upper] 23 12 The phonetic properties of the non-modal phonation in Shanghainese: Lower pitch Breathier phonation: Steeper spectral slope (higher H1-An values). However, H1*-H2* and H2*-H4* makes very little contribution to the contrast. Higher noise ratio and less periodicity (smaller CPP). Expanded bandwidth (B1). Smaller Contact Quotient. CPP is the most important acoustic correlates of the non-modal phonation. Various strategies are adopted to make noise. The noise component is potentially also salient in perception. Phonetic properties of the nonmodal phonation in Shanghainese register contrast Jia Tian, Jianjing Kuang Department of Linguistics, University of Pennsylvania, USA [email protected] [email protected] H1*-A1* Tonal registers Related to pitch difference: Pitch range is divided into two halves (Yip, 1980): [+Upper] vs. [-Upper]. Related to phonation difference: Non-modal phonation is associated with the [-Upper] register (Chao, 1928; Sherard, 1972; Qian, 1992, etc). Instrumental studies in the early 1990s found non-modal phonation: More recent studies found the loss of non-modal phonation: F0: Shanghainese (SH) Spoken in Shanghai, one of the largest cities in China. Northern Wu dialect. Five tones (Xu and Tang 1988). Tones in SH (Yip, 1980): Acoustics `17 Boston, 25-29 June 2017 Introduction Underlines denote short tones with glottal stop in coda. Studies Subjects Measures Findings Zhang and Yan 2015 Younger speakers (mean age 25) H1*-H2*, H1*-A1*, H1*-A2*, H1*-A3*, Cepstral Peak Prominence (CPP) Younger speakers generally do not show phonation difference between registers. Gao finds that many older speakers do not produce breathy phonation either. Gao 2016 12 young (aged 20-30) and 10 elderly (aged 60- 80) speakers H1-H2, H1-A1, H1- A2, CPP, F1, Open Quotient (OQ) Studies Subjects Measures Findings Cao and Maddieson 1992 Speakers born in 1950s and 1960s. H1-H2, H1-A1, Airflow/pressure ratio (AF/AP) The [-Upper] register is breathier. Ren 1992 H1-H2, H1-A1. Gender effect n.s. . Selected individual measures Other non-modal phonations (whisper, whispery, growl) were found in Zhenhai, a closely related Wu dialect (Rose, 1989). Female Male First third Middle third Final third First third Middle third Final third 0.5 0.0 0.5 1.0 Mean H1*A1* (zscore) Register Upper Lower Female Male First third Middle third Final third First third Middle third Final third 1 0 1 Mean CPP (zscore) Register Upper Lower Female Male First third Middle third Final third First third Middle third Final third 1.5 1.0 0.5 0.0 0.5 1.0 Mean F0 (zscore) Register Upper Lower Female Male First third Middle third Final third First third Middle third Final third 1.5 1.0 0.5 0.0 0.5 Mean CQ_HT (zscore) Register Upper Lower H1*-H2*: Female Male First third Middle third Final third First third Middle third Final third 0.6 0.3 0.0 0.3 Mean H1*H2* (zscore) Register Upper Lower n.s. n.s. Female speakers show larger F0 difference. Gender effect n.s. . Strongest contrast in the middle third. Gender effect n.s. . Gender effect n.s. . Individual variation: different strategies to make noise in SH More open glottis & more noise in the Lower register. More restricted glottis & more noise in the Lower register. Voiceless. Rose’s “whisper”. Also more noise. Cross-linguistic comparison: relative importance of acoustic measures Male Female 1940 1960 1980 2000 1940 1960 1980 2000 0.5 0.0 0.5 1.0 Speaker Year of Birth H1*A1* (zscore) Register Upper Lower Male Female 1940 1960 1980 2000 1940 1960 1980 2000 1.5 1.0 0.5 0.0 Speaker Year of Birth CPP (zscore) Register Upper Lower PIC: Female Male First third Middle third Final third First third Middle third Final third 0.75 0.50 0.25 0.00 0.25 0.50 Mean PIC (zscore) Register Upper Lower SH, Southern Yi & White Hmong are tonal . Gujarati is not tonal . SH and Southern Yi are register languages. Spectral measures contribute the most in Southern Yi, Gujarati & White Hmong. Noise measure (CPP) is the most salient in SH. Noise measure contributes little in Southern Yi’s tense lax register contrast. Upper Lower Speaker 1 Speaker 2 Speaker 3 Only male speakers show PIC distinction.

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Page 1: poster 173ASA Tian 624 jkjiatian/posters/poster_173...Multi-dimensionalphonetic space for phonation contrasts. Poster presented at LabPhon13in 2012. [6] Qian, N., (1992). Dangdai wuyu

www.postersession.com

Methods

Conclusions

References and Acknowledgements

§Participants: 107 native speakers of SH in total. Those born before 1980 (N =52) still maintain phonation contrast.

§Speech Materials: monosyllabic words, 5 onset types (stop, fricative,affricate, nasal, zero) * 2 registers ([+Upper], [-Upper]) * 3 different items§Measures:Pitch: F0; Spectral: H1*-H2*, H2*-H4*, H1*-A1*, H1*-A2*, H1*-A3*;Noise: Cepstral Peak Prominence (CPP); Formant and bandwidth: F1, B1;Electroglottographic: Contact Quotient (CQ), Peak Increase in Contact(PIC), Speed Quotient (SQ).Within-speaker z-score normalizationwas done on each measure.

§Statistics analysis:§Multiple linear mixed-effects models to determine which measures differsignificantly between registers. (based on measurements taken from thethird interval where the contrast is the strongest)§Fixed effects: Reduced model: Gender + Register. Full model: Gender xRegister. Random intercepts: item, speaker. Random slopes: gender by itemrandom slope when it improves the model.§Logistic regression models on acoustic and EGG measures separately todetermine which of the measures are most useful. (based on measurementstaken from the entire syllable)

Results

v Goals of the study• Examine the acoustic and articulatory properties of the non-

modal phonation in Shanghainese• Make comparison with other languages

[1] Cao, J., & Maddieson, I., (1992). An exploration of phonation types in Wu dialects of Chinese. Journal of Phonetics, 20(1), 77-92.

[2] Chao, Y., (1928). Studies in the Modern Wu-Dialects. Peking: Tsing Hua College Research Institute.[3] Gao, J., (2016). Sociolinguistic motivations in sound change: on-going loss of low tone breathy voice in Shanghai Chinese.

Papers in Historical Phonology, Vol 1, 166-186.[4] Jiang, B., & Kuang, J., (2016). Consonant effects on tonal registers in Jiashan Wu. 90th Annual Meeting of LSA.[5] Keating et al., (2012). Multi-dimensional phonetic space for phonation contrasts. Poster presented at LabPhon 13 in 2012.[6] Qian, N., (1992). Dangdai wuyu yanjiu [Studies in the contemporary Wu dialects]. Shanghai: Shanghai Educational Publishing

House.[7] Ren, N., (1992). Phonation types and stop consonant distinctions: Shanghai Chinese. Ph.D. dissertation, The University of

Connecticut.[8] Rose, P., (1989). Phonetics and phonology of yang tone phonation types in Zhenhai. C.L.A.O.[9] Sherard, M., (1972). Shanghai Phonology, Ph.D. dissertation, Cornell University.[10] Xu, B., & Tang, Z., eds. (1988). Shanghai shiqu fangyan zhi [DocumentaDon of the Shanghai dialect in urban districts].

Shanghai: Shanghai Education Press.[11] Yip, M., (1980). The tonal phonology of Chinese. Ph.D. dissertation, Massachusetts Institute of Technology.[12] Zhang, J., & Yan, H. (2015). Contextually dependent cue weighting for a laryngeal contrast in Shanghai Wu. In Proceedings of

the 18th International Congress of Phonetic Sciences.This study is supported by an Upenn faculty research fund to Prof. Jianjing Kuang.

• CPP:

• CQ:

Register Tones(Chao numbers)

[+Upper] 53 34 5

[-Upper] 23 12

v The phonetic properties of the non-modal phonation in Shanghainese:• Lower pitch• Breathier phonation:

• Steeper spectral slope (higher H1-An values). However, H1*-H2*and H2*-H4* makes very little contribution to the contrast.• Higher noise ratio and less periodicity (smaller CPP).• Expanded bandwidth (B1).• Smaller Contact Quotient.

• CPP is the most important acoustic correlates of the non-modalphonation. Various strategies are adopted to make noise. The noisecomponent is potentially also salient in perception.

Phonetic properties of the non-­modal phonation in Shanghainese register contrast Jia Tian, Jianjing Kuang

Department of Linguistics, University of Pennsylvania, [email protected];; [email protected]

• H1*-A1*

v Tonal registers• Related to pitch difference: Pitch range is divided into two

halves (Yip, 1980): [+Upper] vs. [-Upper].• Related to phonation difference: Non-modal phonation is

associated with the [-Upper] register (Chao, 1928; Sherard,1972; Qian, 1992, etc).

• Instrumental studies in the early 1990s found non-modalphonation:

• More recent studies found the loss of non-modal phonation:

• F0:v Shanghainese (SH)• Spoken in Shanghai, one of the largest cities in China.• Northern Wu dialect.• Five tones (Xu and Tang 1988).

v Tones in SH (Yip, 1980):

Acoustics `17 Boston, 25-29 June 2017

Introduction

Underlines denote short toneswith glottal stop in coda.

Studies Subjects Measures Findings

Zhang and Yan2015

Younger speakers(mean age 25)

H1*-H2*, H1*-A1*,H1*-A2*, H1*-A3*,Cepstral PeakProminence (CPP)

Younger speakersgenerally do notshow phonationdifferencebetween registers.Gao finds thatmany olderspeakers do notproduce breathyphonation either.

Gao 2016 12 young (aged20-30) and 10elderly (aged 60-80) speakers

H1-H2, H1-A1, H1-A2, CPP, F1, OpenQuotient (OQ)

Studies Subjects Measures FindingsCao andMaddieson 1992

Speakers bornin 1950s and1960s.

H1-H2, H1-A1,Airflow/pressureratio (AF/AP)

The [-Upper]register isbreathier.

Ren 1992 H1-H2, H1-A1.

Gender effect n.s. .

§Selected individual measures

• Other non-modal phonations (whisper, whispery, growl)were found in Zhenhai, a closely related Wu dialect (Rose,1989).

Female Male

First third Middle third Final third First third Middle third Final third

−0.5

0.0

0.5

1.0

Mea

n H

1*−A

1* (z−s

core

)

RegisterUpper

Lower

Female Male

First third Middle third Final third First third Middle third Final third

−1

0

1

Mea

n C

PP (z−s

core

)

RegisterUpper

Lower

Female Male

First third Middle third Final third First third Middle third Final third−1.5

−1.0

−0.5

0.0

0.5

1.0

Mea

n F0

(z−s

core

)

RegisterUpper

Lower

Female Male

First third Middle third Final third First third Middle third Final third

−1.5

−1.0

−0.5

0.0

0.5

Mea

n C

Q_H

T (z−s

core

)

RegisterUpper

Lower

• H1*-H2*:

**Female Male

First third Middle third Final third First third Middle third Final third

−0.6

−0.3

0.0

0.3

Mea

n H1

*−H2

* (z−

scor

e)

RegisterUpper

Lower

n.s. n.s.

Female speakers show larger F0 difference.

Gender effect n.s. .

** *

Strongest contrast in the middle third.Gender effect n.s. .

* *

Gender effect n.s. .

§Individual variation: different strategies to make noise in SH

More open glottis & more noisein the Lower register.

More restricted glottis & more noisein the Lower register.

Voiceless.Rose’s “whisper”.Also more noise.

§Cross-linguistic comparison: relative importance of acoustic measures

Male Female

1940 1960 1980 20001940 1960 1980 2000

−0.5

0.0

0.5

1.0

Speaker Year of Birth

H1*−A

1* (z−s

core

)

RegisterUpper

Lower

Male Female

1940 1960 1980 20001940 1960 1980 2000−1.5

−1.0

−0.5

0.0

Speaker Year of Birth

CPP

(z−s

core

)

RegisterUpper

Lower

• PIC:Female Male

First third Middle third Final third First third Middle third Final third

−0.75

−0.50

−0.25

0.00

0.25

0.50

Mea

n PI

C (z−s

core

)

RegisterUpper

Lower

• SH, Southern Yi & White Hmong are tonal. • Gujarati is not tonal. • SH and Southern Yi are register languages. • Spectral measures contribute the most in Southern Yi, Gujarati & White Hmong.

• Noise measure (CPP) is the most salient in SH.

• Noise measure contributes little in Southern Yi’s tense lax register contrast.

•Upper

•Lower

• Speaker 1 • Speaker 2 • Speaker 3

Only male speakers show PIC distinction.