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关节软骨的弹性网络:弹力纤维和微纤维的免疫组织化学研究。

The elastic network of articular cartilage: an immunohistochemical study of elastin fibres and microfibrils.

机构信息

Department of Physiology, Anatomy and Genetics, University of Oxford, Oxford, UK.

出版信息

J Anat. 2010 Apr;216(4):533-41. doi: 10.1111/j.1469-7580.2009.01207.x. Epub 2010 Feb 10.

Abstract

The elastic network of articular cartilage was investigated by immunohistochemistry using specific antibodies to elastin and fibrillin-1. Articular cartilage was dissected from defined regions of bovine metacarpophalangeal joints. Elastin fibres and microfibrils were dual-immunostained by labelling with distinct fluorescent dyes. A conventional fluorescence microscope combined with a polarized light filter was used to study the organization and degree of colocalization of elastin fibres, microfibrils and of the collagen network. We observed an elaborately organized elastic network. In the uppermost superficial zone, where few cells were present, elastin fibres and microfibrils formed a dense three dimensional network showing some degree of colocalization. The thickness and organization of this elastic network varied dramatically from region to region and was most extensive in the metacarpal palmar region. In the middle and deep zones, very few elastin fibres were observed but microfibrils formed a network in the inter-territorial matrix and dense network around the cells. Our finding of a three dimensional network of dense, well organized elastin fibres and microfibrils in the surface zone of the articular cartilage matrix, and a dense network of microfibrils around the cells deeper into the tissue suggests the elastic network could play both a mechanical and a biological role in articular cartilage.

摘要

采用针对弹性蛋白和原纤维-1 的特异性抗体,通过免疫组织化学方法研究关节软骨的弹性网络。从牛掌指关节的特定区域解剖关节软骨。通过用不同的荧光染料进行双重标记,对弹性纤维和微纤维进行双重免疫染色。使用配备偏光滤光片的传统荧光显微镜来研究弹性纤维、微纤维和胶原网络的组织和共定位程度。我们观察到一个精心组织的弹性网络。在细胞数量较少的最上层表面区域,弹性纤维和微纤维形成了一个具有一定共定位程度的密集三维网络。这个弹性网络的厚度和组织从区域到区域变化很大,在掌侧的掌骨区域最为广泛。在中间和深层区域,几乎观察不到弹性纤维,但微纤维在细胞间基质和细胞周围形成了一个密集的网络。我们发现关节软骨基质表面区域有一个密集、组织良好的弹性纤维和微纤维三维网络,在组织的更深层,细胞周围有一个密集的微纤维网络,这表明弹性网络在关节软骨中可能具有机械和生物学作用。

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