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A long way from New York City: Socially stratified contact-induced phonological convergence in Ganluo Ersu (Sichuan, China)

Published online by Cambridge University Press:  22 May 2018

Katia Chirkova
Affiliation:
Centre National de la Recherche Scientifique
James N. Stanford
Affiliation:
Dartmouth College
Dehe Wang
Affiliation:
Xichang College
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Abstract

Labov's classic study, The Social Stratification of English in New York City (1966), paved the way for generations of researchers to examine sociolinguistic patterns in many different communities (Bell, Sharma, & Britain, 2016). This research paradigm has traditionally tended to focus on Western industrialized communities and large world languages and dialects, leaving many unanswered questions about lesser-studied indigenous minority communities. In this study, we examine whether Labovian models for age, sex, and social stratification (Labov, 1966, 2001; Trudgill, 1972, 1974) may be effectively applied to a small, endangered Tibeto-Burman language in southwestern China: Ganluo Ersu. Using new field recordings with 97 speakers, we find evidence of phonological change in progress as Ganluo Ersu consonants are converging toward Chinese phonology. The results suggest that when an endangered language undergoes convergence toward a majority language due to intense contact, this convergence is manifested in a socially stratified way that is consistent with many of the predictions of the classic Labovian sociolinguistic principles.

Information

Type
Research Article
Copyright
Copyright © Cambridge University Press 2018 
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Figure 1. A long way from New York City: a small Ganluo Ersu village in rural Sichuan Province, western China.

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Figure 2. Distribution of the Ersu language (adapted from Chirkova et al., 2015:188).

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Figure 3. Histograms of speaker age, organized by sex.

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Table 1. The 1 to 6 educational scale

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Table 2. Occupational scales

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Figure 4. Correlation of education and occupation for adult speakers. R2 = .502; p < .0001. Jitter added so that individual speakers are visible.

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Table 3. Functional domains and language choice versus occupation

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Table 4. Examples of words with retroflexes in conservative Ganluo Ersu pronunciation

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Figure 5. Percentage of retroflexes in syllables that may contain a retroflex, as a function of speaker age. Female = black dots; male = gray triangles. Regression on percentage of retroflex versus age: .748% higher per year older; R2 = .296; p < .0001. All speakers, including children.

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Figure 6. Percentage of retroflexes as a function of Combined Index (SES), p = .004, 6.5% lower percentage of retroflexes for each step higher on the occupation scale. R2 = .104. Adult speakers. Jitter added.

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Table 5. Retroflexes by age, logistic regression results, best-fit model (Rbrul; Johnson, 2009)

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Figure 7. Percentage of retroflex in terms of age and SES (Combined Index). Black dots = low SES level; gray dots = medium SES level; white dots = high SES level. Adult speakers only.

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Figure 8. Age versus SES (Combined Index). Black dots = women; gray triangles = men. For women: −.064 SES steps per year older; R2 = .35; p < .0001. For men: −.035 SES steps per year older; R2 = .04; n.s. (p = .2099). Jitter added.

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Figure 9. Percentage of retroflex as a function of SES for the 84 adult speakers. Black dots = women; R2 = .288; p < .0001. Gray triangles = men; R2 = .061; n.s. (p = .129). Jitter added.

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Table 6. Retroflexes by sex, logistic regression results (best-fit model), not including children

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Figure 10. Percentage of laterals versus age. Black dots = female speakers; .922% per year; R2 = .268; p < .0001; 52 female speakers. Gray triangles = male speakers; R2 = .043; n.s. (p = .175); 44 male speakers. Jitter added.

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Table 7. Lateral fricatives: Logistic regression results (best-fit model), including children

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Figure 11. Percentage of devoiced stops/affricates as a function of speaker age. Black dots = female speakers; −.186% per year; R2 = .097; p = .026; n = 51. Gray triangles = male speakers; R2 = .001, n.s. (p = .807); n = 43. Jitter added.

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Table 8. Devoicing of stops/affricates, including children: Logistic regression results (best-fit model)

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Table 9. Devoicing of stops/affricates: Gendered logistic regression results (best-fit model), including children

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Figure 12. Percentage of simplified onsets as a function of speaker age, including children. Black dots = female speakers; −.68% per year; R2 = .514; p < .0001; n = 52. Gray triangles = male speakers; −.60% per year; R2 = .215; p = .0029; n = 39. Jitter added.

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Table 10. Onset simplification, not including children: Multiple regression results (best-fit model)

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Table 11. Onset simplification, including children: Multiple regression results (best-fit model)