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一种贝叶斯系统发育方法,用于估计语言特征的稳定性和声调的遗传偏向。

A Bayesian phylogenetic approach to estimating the stability of linguistic features and the genetic biasing of tone.

机构信息

Max Planck Institute for Psycholinguistics, Wundtlaan 1, 6525 XD Nijmegen, The Netherlands.

出版信息

Proc Biol Sci. 2011 Feb 7;278(1704):474-9. doi: 10.1098/rspb.2010.1595. Epub 2010 Sep 1.

Abstract

Language is a hallmark of our species and understanding linguistic diversity is an area of major interest. Genetic factors influencing the cultural transmission of language provide a powerful and elegant explanation for aspects of the present day linguistic diversity and a window into the emergence and evolution of language. In particular, it has recently been proposed that linguistic tone-the usage of voice pitch to convey lexical and grammatical meaning-is biased by two genes involved in brain growth and development, ASPM and Microcephalin. This hypothesis predicts that tone is a stable characteristic of language because of its 'genetic anchoring'. The present paper tests this prediction using a Bayesian phylogenetic framework applied to a large set of linguistic features and language families, using multiple software implementations, data codings, stability estimations, linguistic classifications and outgroup choices. The results of these different methods and datasets show a large agreement, suggesting that this approach produces reliable estimates of the stability of linguistic data. Moreover, linguistic tone is found to be stable across methods and datasets, providing suggestive support for the hypothesis of genetic influences on its distribution.

摘要

语言是人类的标志,研究语言多样性是一个主要的兴趣领域。影响语言文化传播的遗传因素为当今语言多样性的某些方面提供了一个强大而优雅的解释,并为语言的出现和演变提供了一个窗口。特别是,最近有人提出,语言声调——使用音高传达词汇和语法意义——受到两个与大脑生长和发育有关的基因的影响,即 ASPM 和 Microcephalin。这一假设预测,由于其“遗传锚定”,声调是语言的一个稳定特征。本文使用贝叶斯系统发育框架,应用于大量语言特征和语言家族,使用多种软件实现、数据编码、稳定性估计、语言分类和外群选择,对这一预测进行了检验。这些不同方法和数据集的结果非常一致,表明这种方法可以可靠地估计语言数据的稳定性。此外,在不同的方法和数据集中都发现了声调的稳定性,这为基因对其分布的影响的假设提供了有说服力的支持。

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