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猩猩牙齿中的氧同位素揭示了近期和古代的气候变化。

Oxygen isotopes in orangutan teeth reveal recent and ancient climate variation.

机构信息

Griffith Centre for Social and Cultural Research, Griffith University, Southport, Australia.

Australian Research Centre for Human Evolution, Griffith University, Southport, Australia.

出版信息

Elife. 2024 Mar 8;12:RP90217. doi: 10.7554/eLife.90217.

DOI:10.7554/eLife.90217
PMID:38457350
原文链接:https://pmc.ncbi.nlm.nih.gov/articles/PMC10942278/
Abstract

Studies of climate variation commonly rely on chemical and isotopic changes recorded in sequentially produced growth layers, such as in corals, shells, and tree rings, as well as in accretionary deposits-ice and sediment cores, and speleothems. Oxygen isotopic compositions (δO) of tooth enamel are a direct method of reconstructing environmental variation experienced by an individual animal. Here, we utilize long-forming orangutan dentitions ( spp.) to probe recent and ancient rainfall trends on a weekly basis over ~3-11 years per individual. We first demonstrate the lack of any consistent isotopic enrichment effect during exclusive nursing, supporting the use of primate first molar teeth as environmental proxies. Comparisons of δO values (n=2016) in twelve molars from six modern Bornean and Sumatran orangutans reveal a high degree of overlap, with more consistent annual and bimodal rainfall patterns in the Sumatran individuals. Comparisons with fossil orangutan δO values (n=955 measurements from six molars) reveal similarities between modern and late Pleistocene fossil Sumatran individuals, but differences between modern and late Pleistocene/early Holocene Bornean orangutans. These suggest drier and more open environments with reduced monsoon intensity during this earlier period in northern Borneo, consistent with other Niah Caves studies and long-term speleothem δO records in the broader region. This approach can be extended to test hypotheses about the paleoenvironments that early humans encountered in southeast Asia.

摘要

研究气候变化通常依赖于化学和同位素变化的记录,这些记录在珊瑚、贝壳、树木年轮以及增生沉积物——冰芯和沉积物芯以及石笋中,都是按顺序产生的生长层中记录的。牙齿珐琅质的氧同位素组成 (δO) 是重建个体动物经历的环境变化的直接方法。在这里,我们利用形成时间较长的猩猩牙齿 ( spp.) 每周探测个体最近和古代的降雨趋势,每个个体的探测时间约为 3-11 年。我们首先证明在单独哺乳期间没有任何一致的同位素富集效应,支持将灵长类动物第一磨牙用作环境示踪剂。比较十二颗现代婆罗洲和苏门答腊猩猩的六颗牙齿的 δO 值(n=2016),发现高度重叠,苏门答腊个体的年降雨量和双峰模式更为一致。与化石猩猩 δO 值(n=955 颗牙齿的测量值)的比较表明,现代和更新世晚期苏门答腊化石个体之间存在相似之处,但现代和更新世晚期/全新世早期婆罗洲猩猩之间存在差异。这表明在北婆罗洲的早期,环境更加干燥和开放,季风强度降低,这与尼亚洞穴的其他研究和该地区更广泛的石笋 δO 记录一致。这种方法可以扩展到测试关于早期人类在东南亚遇到的古环境的假设。

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