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欧洲狍(Capreolus capreolus)的脊柱和硬鹿角骨的结构:光学显微镜和背散射电子成像研究。

The structure of pedicle and hard antler bone in the European roe deer (Capreolus capreolus): a light microscope and backscattered electron imaging study.

机构信息

Department of Biology, University of Hildesheim, Hildesheim, Germany.

出版信息

J Anat. 2013 Oct;223(4):364-84. doi: 10.1111/joa.12091. Epub 2013 Aug 20.

Abstract

Deer antlers are deciduous bony structures that develop from permanent frontal outgrowths, the pedicles. While growth and bone architecture of antlers have been studied in greater detail, information on pedicle formation and structure is scarce. The present study provides information on the structure of pedicle and hard antler bone in the European roe deer. A pronounced seasonal variation in pedicle architecture was observed, with high porosity around antler casting and a very compact bone structure during the hard antler stage. These observations suggest a corresponding marked variation also in the biomechanical properties of the pedicles. The seasonally alternating extensive resorption and formation processes make the pedicles of older deer heavily remodeled structures. Pedicles increase in thickness by apposition of primary bone that subsequently becomes replaced by secondary osteons. The antler cortex of roe deer is largely composed of a tubular framework of woven bone trabeculae with some remnants of mineralized cartilage, and primary osteons that have filled in the intertrabecular spaces. Secondary osteons are scarce, denoting little remodeling in antlers, which can be related to their short lifespan. The occurrence of cement lines around primary osteons indicates resorption on the trabecular scaffold prior to infilling of the intertrabecular spaces. The outer cortex showed a higher autofluorescence and a more immature structure than the main cortex, suggesting that it was secondarily formed by periosteal activity. Pedicles and antlers constitute a functional entity, and future histological and/or biomechanical studies should therefore consider both components of the cranial appendages.

摘要

鹿茸是从永久性额骨突起(即角柄)上发育出来的可脱落的骨结构。虽然鹿茸的生长和骨结构已经得到了更详细的研究,但关于角柄形成和结构的信息却很少。本研究提供了有关欧洲狍角柄和硬鹿茸骨结构的信息。观察到角柄结构具有明显的季节性变化,在鹿茸铸造时周围具有高孔隙度,而在硬鹿茸阶段具有非常致密的骨结构。这些观察结果表明,角柄的生物力学特性也相应地有明显变化。季节性交替的广泛吸收和形成过程使老年鹿的角柄成为严重重塑的结构。角柄通过初级骨的附加而增厚,随后这些初级骨被次级骨单位所取代。狍的鹿茸皮质主要由编织骨小梁的管状框架组成,其中含有一些矿化软骨的残余物,以及填充在骨小梁间空间的初级骨单位。次级骨单位很少,表明鹿茸的重塑很少,这可能与其较短的寿命有关。初级骨单位周围存在水泥线表明在骨小梁支架填充骨小梁间空间之前发生了吸收。外皮质的自发荧光比主要皮质高,结构也比主要皮质不成熟,表明它是由骨膜活动形成的次生结构。角柄和鹿茸构成一个功能实体,因此未来的组织学和/或生物力学研究应该同时考虑颅骨附属物的这两个组成部分。

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