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Ladin, varieties of Val di Fassa

Published online by Cambridge University Press:  10 February 2021

Yifan Yang
Affiliation:
University of Southern California yangyifa@usc.edu
Rachel Walker
Affiliation:
University of Southern California rwalker@usc.edu
Alessandro Vietti
Affiliation:
Free University of Bozen-Bolzano alessandro.vietti@unibz.it
Armin Chiocchetti
Affiliation:
Uppsala University armin.92@live.it
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Extract

Ladin (ISO 639-3: lld) is a Romance language spoken in the Italian Central-Eastern Alps by a community of about 30,000 speakers (Dell’Aquila 2010). The classification of Ladin within Western Romance has been the subject of a long-lasting scientific and at times ideological debate, particularly because at the end of the 19th century the region was contested between the new-born Italian state and the Habsburg empire. The varieties of Ladin share phonetic-phonological, morphological, syntactic and lexical features with the other languages spoken in the Central-Eastern Alps, such as Friulian and Romansh, thus leading to the identification of the Rhaeto-Romance group (Haiman & Benincà 1992). However, in Ladin there are still many linguistic phenomena that connect it to the Romance dialects of Northern Italy. Therefore, a clear assignment of Ladin to a group is by no means a simple and uncontroversial operation (Salvi 2016).

Information

Type
Illustration of the IPA
Copyright
© The Author(s), 2021. Published by Cambridge University Press on behalf of the International Phonetic Association
Figure 0

Figure 1 Location of the Ladin community.

Figure 1

Figure 2 Waveforms of three words pronounced by the Moenat speaker. Intensity is scaled to −70 dB. The duration of VOT is demarcated by two dashed lines in each panel.

Figure 2

Figure 3 Waveforms of dime bal and dime pal produced by a Brach speaker. Intensity is scaled to −70 dB. The duration of VOT of /b/ and /p/ is demarcated by two dashed lines in each panel. Panel (a) shows prevoicing of bal, comparing to pal in panel (b).

Figure 3

Figure 4 Waveforms of dime bal and dime pel produced by the Cazet speaker. Intensity is scaled to −70 dB. The duration of VOT of /b/ and /p/ is demarcated by two dashed lines in each panel. Panel (a) shows prevoicing of bal, comparing to pel in panel (b).

Figure 4

Figure 5 Waveform of two tokens of dime gas and a token of dime cai produced by the Cazet speaker. Intensity is scaled to −70 dB. The prevoicing portion of onset /g/ is between two dashed lines. The token in panel (a) shows more intense prevoicing than the token in panel (b). Additionally, no prevoicing is observed in panel (c), dime cai /ˈdime kai/. The duration of VOT of the voiceless aspirated /k/ is marked by two dashed lines.

Figure 5

Table 1 Words for spectral analyses of /s̠/.

Figure 6

Figure 6 Averaged raw spectra of voiceless postalveolar sibilant /s̠/. Spectra are averaged by speaker: ‘B1’ (Brach speaker 1), ‘B2’ (Brach speaker 2), ‘C’ (Cazet speaker), and ‘M’ (Moenat speaker). Upper panel shows spectra for /s̠/ in all positions, lower left panel for /s̠/ in onset position, and lower right panel for /s̠/ in coda position.

Figure 7

Figure 7 Two tokens of dasc compared with a token of das produced by a Brach speaker. The spectra of the sibilants were extracted and plotted. Panel (a) shows a distinctive spectral shape with a peak at lower frequency for the sibilant in dasc; panel (b) shows near-merger.

Figure 8

Figure 8 Two tokens of gasc compared with a token of gas produced by a Cazet speaker. The spectra of the sibilants were extracted and plotted. Panel (a) shows a distinctive spectral shape with a peak at lower frequency for gasc; panel (b) shows near-merger, especially below 7000 Hz, though some difference can be still observed at higher frequencies.

Figure 9

Figure 9 The sibilants in jà and śal pronounced by the Cazet speaker and a Brach speaker. Panel (a) shows near-merger between the sibilants in jà and śal; panel (b) shows distinctive spectral shapes.

Figure 10

Figure 10 Vowel formants in Bark scale for each of two female Brach speakers. The ellipsis indicates 95$\% $ confidence level.

Note: For Brach speaker 1, 70 tokens were analyzed, while 67 were plotted; 2 outliers were excluded and 1 token was discarded due to poor recording quality. For Brach speaker 2, 70 tokens were analyzed, while 66 were plotted; 3 outliers were excluded.
Figure 11

Figure 11 Vowel formants in Bark scale for a female Cazet speaker. The ellipsis indicates 95$\% $ confidence level.

Note: For Cazet, 70 tokens were analyzed, while 65 were plotted; 5 outliers were excluded.
Figure 12

Figure 12 Vowel formants in Bark scale for a male Moenat speaker. The ellipsis indicates 95$\% $ confidence level.

Note: For Moenat, 80 tokens were analyzed, while 73 were plotted; 7 outliers were excluded.
Figure 13

Figure 13 F1 and F2 trajectories of /ɛi/ and /ei/ in words produced by the Moenat speaker, extracted from multiple tokens of gei /d̠z̠ɛi/ (two tokens), ei /ɛi/ (two tokens), deit /deit/ (two tokens), deic /deit̠s̠/ (two tokens), and pei /pei/ (two tokens). The formants are time-normalized automatically by FormantPro (Xu & Gao 2018). The dashed lines indicate the raw trajectories of each token; the solid lines are the average trajectories.

Figure 14

Figure 14 Spectrogram of miöi.

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