人类学学报 ›› 2020, Vol. 39 ›› Issue (04): 555-563.doi: 10.16359/j.cnki.cn11-1963/q.2020.0023
潘雷1,2,3, 廖卫4,5, 王伟6, 刘建辉7, 吉学平7,8(), 杨晓梅9, 郝以鑫10
收稿日期:
2020-02-07
修回日期:
2020-04-29
出版日期:
2020-11-15
发布日期:
2020-11-23
通讯作者:
吉学平
作者简介:
潘雷,博士,副研究员,主要从事古猿、古人类牙齿及演化研究。
基金资助:
PAN Lei1,2,3, LIAO Wei4,5, WANG Wei6, LIU Jianhui7, JI Xueping7,8(), YANG Xiaomei9, HAO Yixin10
Received:
2020-02-07
Revised:
2020-04-29
Online:
2020-11-15
Published:
2020-11-23
Contact:
JI Xueping
摘要:
禄丰古猿蝴蝶种 (Lufengpithecus hudienensis) 也称蝴蝶古猿,是重要的早期人科成员,化石产自云南元谋盆地竹棚-小河及雷老两个地点群,其年代为中新世晚期。上世纪八、九十年代的发掘工作共获得幼年个体颅骨1具、残上颌骨10件、残下颌骨17件及1500多枚单个牙齿。受限于当时的技术条件,蝴蝶古猿牙齿内部结构及三维形态一直未有报道和对比研究。本文首次使用高精度CT配合三维几何形态测量方法,对6枚产自小河地点的蝴蝶古猿下颌第四前臼齿的釉质-齿质交界面形态进行了观察和对比,对比材料包括步氏巨猿、猩猩(化石)、大猩猩、黑猩猩及现代人。多变量分析显示,蝴蝶古猿釉质-齿质交界面几何形态接近于本文所涉及的大型猿类对比标本,但并没有表现出与某一特定类群的相似性;咬合面轮廓狭长,前凹尺寸明显小于后凹;整体形态介于齿质尖较高的大猩猩和齿质尖较低、釉质-齿质交界面形态扁平的巨猿、猩猩和黑猩猩之间。本文所观察到的类群之间的异同可能与趋同演化有关,也需要更多数据的进一步验证。将釉质-齿质交界面的三维几何形态和其他牙齿内部结构的信息(如釉质厚度及其三维分布规律等)综合,有助于进一步讨论蝴蝶古猿的分类学、系统发育和食性。
中图分类号:
潘雷, 廖卫, 王伟, 刘建辉, 吉学平, 杨晓梅, 郝以鑫. 禄丰古猿蝴蝶种下第四前臼齿釉质-齿质交界面的三维几何形态[J]. 人类学学报, 2020, 39(04): 555-563.
PAN Lei, LIAO Wei, WANG Wei, LIU Jianhui, JI Xueping, YANG Xiaomei, HAO Yixin. Geometric morphometry of the enamel-dentine junction interface of Lufengpithecus hudienensis lower fourth premolars[J]. Acta Anthropologica Sinica, 2020, 39(04): 555-563.
Taxon | n | Provenance | Chronological range | Citation (description of the outer enamel) |
---|---|---|---|---|
Lufengpithecus hudienensis | 6 | Zhupeng-Xiaohe Site, Yuanmou | Biochronology: 9-7 or 8.5-6 Ma[ | Qi and Dong[1], He and Jia[ |
Gigantopithecus blacki | 8 | Gigantopithecus cave, Liucheng | Early Pleistocene[ Cladistic computation: 1.5-1.2 Ma[ | Woo[35], Pei[ |
Fossil Pongo sp. | 10 | Naxian cave, Chongzuo | Middle to Late Pleistocene | unpublished |
Pan troglodytes | 4 | Africa | Extant | - |
Gorilla gorilla | 4 | Africa | Extant | - |
Recent modern human | 10 | Asia/ South Africa | Extant | Pan et al[ |
Tab.1 Composition of the study sample
Taxon | n | Provenance | Chronological range | Citation (description of the outer enamel) |
---|---|---|---|---|
Lufengpithecus hudienensis | 6 | Zhupeng-Xiaohe Site, Yuanmou | Biochronology: 9-7 or 8.5-6 Ma[ | Qi and Dong[1], He and Jia[ |
Gigantopithecus blacki | 8 | Gigantopithecus cave, Liucheng | Early Pleistocene[ Cladistic computation: 1.5-1.2 Ma[ | Woo[35], Pei[ |
Fossil Pongo sp. | 10 | Naxian cave, Chongzuo | Middle to Late Pleistocene | unpublished |
Pan troglodytes | 4 | Africa | Extant | - |
Gorilla gorilla | 4 | Africa | Extant | - |
Recent modern human | 10 | Asia/ South Africa | Extant | Pan et al[ |
Fig.1 Occlusal views of the EDJ of L. hudienensis P4 Left teeth were mirrored to the right side and were marked with an asterisk (*). Abbreviations: B=buccal; D=distal; L=lingual; M=mesial. Scale bar=5 mm
Fig.2 EDJ surface model of a fossil Pongo P4, showing occlusal (A), buccal (B) and lingual (C) views The buccal and lingual views are slightly oblique to show the distribution of landmarks. Yellow spheres are semi-landmarks running between homologous landmarks (numbered, red spheres). Abbreviations: B=buccal; L=lingual; D=distal; M=mesial
Fig.3 A) Result of bgPCA of the semi-landmark configuration of P4. a-f) Lineplots of EDJ ridge curves after Procurstes superimposition and bgPCA A) bgPC1 and bgPC2 represent components of the shape variation. Coloring of a-f: green-bgPC1 Max; red-bgPC1 Min; blue-bgPC2 Max; yellow-bgPC2 Min. The buccal and lingual views (b-f) are slightly oblique to better present the 3D image
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