Abstract
Absolute spatial orientation systems are pervasive and diverse among Austronesian languages, and decades of research has suggested that such systems are motivated at least in part by environmental and cultural factors. In this paper, we take a quantitative approach to the study of orientation systems by presenting the results of an exploratory multifactorial analysis of spatial orientation systems across 131 Austronesian languages, representing nearly all available data on orientation systems for the family. We analyze these data using multinomial logistic regression to uncover correlations between orientation type and four predictor variables representing cultural and environmental factors: geographic distribution, economy, geography (proximity to the sea), and ruggedness of terrain. Our model suggests that while not entirely predictive of the type of orientation system, the factors geography and economy alone account for much of the variation among spatial orientation systems in our sample, supporting a “weak” form of the Sociotopographic Model (Palmer, Bill, Jonathon Lum, Jonathan Schlossberg & Alice Gaby. 2017. How does the environment shape spatial language? Evidence for sociotopography. Linguistic Typology 21(3). 457–491). Additionally, this study demonstrates the potential of quantitative analytical methods for exploring the relationship between culture, environment, and spatial orientation systems.
Funding source: US National Science Foundation 10.13039/100000001
Award Identifier / Grant number: 1761223
Award Identifier / Grant number: 2025315
Acknowledgment
This paper benefited enormously from the feedback of two anonymous reviewers, as well as discussions with the volume editors. Any remaining errors or misrepresentations are solely the responsibility of the authors.
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Research funding: This paper was supported in part by US National Science Foundation grants 1761223 and 2025315 (DOI: 10.13039/100000001).
Appendix: Additional data
Tables 4 and 5 present the model results (log odds) using all four predictors, for the combined and doubled methods, respectively. Table 6 presents the values of Akaike’s Information Criterion (AIC) for models run with all subsets of the four predictors. For both methods the lowest AIC, and hence best model fit, occurs with the economy and geography predictors.
Log odds (combined method, all four predictors).
| Orientation type | ||||||||
|---|---|---|---|---|---|---|---|---|
| Cardinal | Coastal | Elevation | Land–sea* | Riverine | Land–sea + cardinal | Land–sea + elevation | Riverine + cardinal | |
| Island | −0.64 | −2.49† | 32.66††† | −0.9 | −0.52 | 0.86 | 27.06 | −4.63††† |
| (0.58) | (0.05) | (0.00) | (0.46) | (0.78) | (0.62) | (0.83) | (0.00) | |
| Village | −0.96 | −1.04 | 32.74††† | −0.19 | 0.22 | −39.63 | 26.54 | 32.58††† |
| (0.46) | (0.35) | (0.00) | (0.87) | (0.92) | (0.00) | (0.83) | (0.00) | |
| Agriculture | −0.71 | −1.52 | −2.18 | −1.71 | −1.12 | −0.1 | −18.83††† | −77.28††† |
| (0.58) | (0.34) | (0.31) | (0.29) | (0.58) | (0.96) | (0.00) | (0.00) | |
| Subsistence | −1.54 | 0.93 | −2.66 | 0.42 | −1.21 | −39.19 | 12.14 | −4.1†† |
| (0.22) | (0.48) | (0.14) | (0.75) | (0.52) | (0.99) | (0.03) | ||
| Coast | −1.93 | −1.28 | 34.59††† | 28.71††† | −3.08† | −1.97 | 32.05 | 10.58††† |
| (0.13) | (0.37) | (0.00) | (0.00) | (0.08) | (0.3) | (0.9) | (0.00) | |
| Inland | −32.54††† | −26.3 | 65.13††† | 6.3 | 30.65††† | −2.07 | 2.95††† | 42.23††† |
| (0.00) | (0.00) | (0.00) | (0.00) | (0.00) | (0.00) | |||
| Mountainous | −0.88 | 1.34 | 0.03 | 1.85 | 0.96 | 0.73 | 29.0 | 0.23 |
| (0.36) | (0.24) | (0.99) | (0.15) | (0.52) | (0.65) | (0.91) | (0.91) | |
| Intercept | 3.48†† | 0.99 | −66.83††† | −29.54††† | 0.8 | 0.31 | −100.2 | −41.33††† |
| (0.01) | (0.53) | (0.00) | (0.00) | (0.65) | (0.88) | (0.68) | (0.00) | |
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p-values in parentheses. AIC: 363.480, McFadden’s R 2: 0.556. † p < 0.1. †† p < 0.05. ††† p < 0.01.
Log odds (doubled method, all four predictors).
| Orientation type | |||||
|---|---|---|---|---|---|
| Cardinal | Coastal | Elevation | Land–sea* | Riverine | |
| Island | −0.34 | −1.78† | 16.47††† | −0.12 | −0.00 |
| (0.7) | (0.08) | (0.00) | (0.9) | (1.0) | |
| Village | 0.04 | −0.54 | 15.65††† | 0.1 | 2.18 |
| (0.97) | (0.48) | (0.00) | (0.91) | (0.15) | |
| Agriculture | 1.0 | 0.96 | 0.24 | 0.93 | 0.53 |
| (0.29) | (0.49) | (0.89) | (0.52) | (0.68) | |
| Subsistence | −1.8† | 1.45 | −0.76 | 0.95 | −2.15† |
| (0.08) | (0.24) | (0.59) | (0.44) | (0.09) | |
| Coast | 1.19 | 0.92 | −16.42††† | −15.41††† | 1.62 |
| (0.18) | (0.43) | (0.00) | (0.00) | (0.23) | |
| Inland | −32.54 | −3.53††† | 16.28††† | −3.77††† | 18.72††† |
| (0.99) | (0.00) | (0.00) | (0.00) | (0.00) | |
| Mountainous | 0.97 | −0.85 | −0.71 | −1.27 | 0.47 |
| (0.2) | (0.39) | (0.6) | (0.29) | (0.67) | |
| Intercept | −0.64 | −1.07 | −16.54††† | −1.11 | −2.71† |
| (0.47) | (0.36) | (0.00) | (0.35) | (0.09) | |
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p-values in parentheses. AIC: 373.417, McFadden’s R 2: 0.498. † p < 0.1. †† p < 0.05. ††† p < 0.01.
Akaike’s Information Criterion for subsets of the four predictors.
| Subset of predictors | Combined | Doubled |
|---|---|---|
| All predictors | 363.48 | 373.42 |
| Predictors excluding distribution | 351.50 | 370.56 |
| Predictors excluding economy | 468.97 | 486.37 |
| Predictors excluding geography | 367.73 | 386.74 |
| Predictors excluding terrain | 358.38 | 369.67 |
| Distribution and economy | 367.23 | 386.90 |
| Distribution and geography | 478.25 | 497.76 |
| Distribution and terrain | 516.16 | 551.83 |
| Economy and geography | 347.93 | 368.84 |
| Economy and terrain | 374.52 | 397.29 |
| Geography and terrain | 454.09 | 479.38 |
| Distribution only | 528.05 | 567.83 |
| Economy only | 376.07 | 399.25 |
| Geography only | 473.41 | 505.37 |
| Terrain only | 525.41 | 564.46 |
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Supplementary Material
The online version of this article offers supplementary material (https://doi.org/10.1515/lingvan-2020-0044).
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Articles in the same Issue
- Frontmatter
- Research Articles
- Diversity in representing space within and between language communities
- A quantitative approach to sociotopography in Austronesian languages
- Directionals, topography, and cultural construals of landscape in Lamaholot
- A socially anchored approach to spatial language in Kalaallisut
- River-based and egocentric spatial orientation in Yine
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- The irrelevance of scale and fixedness in landscape terms in two Australian languages
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- Conflation of spatial reference frames in deaf community sign languages
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Articles in the same Issue
- Frontmatter
- Research Articles
- Diversity in representing space within and between language communities
- A quantitative approach to sociotopography in Austronesian languages
- Directionals, topography, and cultural construals of landscape in Lamaholot
- A socially anchored approach to spatial language in Kalaallisut
- River-based and egocentric spatial orientation in Yine
- Geocentric directional systems in Australia: a typology
- The irrelevance of scale and fixedness in landscape terms in two Australian languages
- Changes in spatial frames of reference use in Iwaidja in different intergenerational contexts
- Cross-generational differences in linguistic and cognitive spatial frames of reference in Negev Arabic
- Sociotopography meets Dialectology: the case of Aquilan
- Conflation of spatial reference frames in deaf community sign languages
- Linguistic spatial reference systems across domains: How people talk about space in sailing, dancing, and other specialist areas
- The influence of language, culture, and environment on the use of spatial referencing in a multilingual context: Taiwan as a test case
- Reference frames in language and cognition: cross-population mismatches
- From the field into the lab: causal approaches to the evolution of spatial language