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一组用于成年猪视网膜的细胞和结构特异性标记物。

A battery of cell- and structure-specific markers for the adult porcine retina.

机构信息

Department of Clinical Sciences, Division of Ophthalmology, Lund University BMC B13 22184, Lund, Sweden.

出版信息

J Histochem Cytochem. 2010 Apr;58(4):377-89. doi: 10.1369/jhc.2009.954933. Epub 2010 Jan 19.

Abstract

The pig is becoming an increasingly used non-primate model in experimental studies of human retinal diseases and disorders. The anatomy, size, and vasculature of the porcine eye and retina closely resemble their human counterparts, which allows for application of standard instrumentation and diagnostics used in the clinic. Despite many reports that demonstrate immunohistochemistry as a useful method for exploring neuropathological changes in the mammalian central nervous system, including the pig, the porcine retina has been sparsely described. Hence, to facilitate further immunohistochemical analysis of the porcine retina, we report on the successful use of a battery of antibodies for staining of paraformaldehyde-fixed cryosectioned retina. The following antibodies were evaluated for neuronal cells and structures: recoverin (cones and rods), Rho4D2 (rods), transducin-gamma (cones), ROM-1 (photoreceptor outer segments), calbindin (horizontal cells), PKC-alpha (bipolar cells), parvalbumin (amacrine and displaced amacrine cells), and NeuN (ganglion cells and displaced amacrines). For detecting synaptic connections in fiber layers, we used an antibody against synaptobrevin. For detecting retinal pigment epithelium, we studied antibodies against cytokeratin and RPE65, respectively. The glial cell markers used were bFGF (Müller cells and displaced amacrine cells), GFAP (Müller cells and astrocytes), and vimentin (Müller cells). Each staining effect was evaluated with regard to its specificity, sensitivity, and reproducibility in the identification of individual cells, specific cell structures, and fiber layers, respectively. The markers parvalbumin and ROM-1 were tested here for the first time for the porcine retina. All antibodies tested resulted in specific staining of high quality. In conclusion, all immunohistochemical protocols presented here will be applicable in fixed, cryosectioned pig retina.

摘要

猪正逐渐成为用于人类视网膜疾病和障碍的实验研究中的非灵长类模型。猪眼和视网膜的解剖结构、大小和脉管系统与人类非常相似,这使得可以应用于临床中使用的标准仪器和诊断方法。尽管有许多报道表明免疫组织化学是一种用于研究哺乳动物中枢神经系统(包括猪)神经病理学变化的有用方法,但猪视网膜的描述却很少。因此,为了促进对猪视网膜的进一步免疫组织化学分析,我们报告了成功使用一系列抗体对多聚甲醛固定的冷冻切片视网膜进行染色的情况。评估了以下抗体用于神经元细胞和结构的染色:回收蛋白(视锥和视杆)、Rho4D2(视杆)、转导蛋白-γ(视锥)、ROM-1(光感受器外节)、钙结合蛋白(水平细胞)、PKC-α(双极细胞)、副甲状腺蛋白(无长突细胞和移位的无长突细胞)和神经元核(神经元和移位的无长突细胞)。为了检测纤维层中的突触连接,我们使用了针对突触小泡蛋白的抗体。为了检测视网膜色素上皮,我们分别研究了针对细胞角蛋白和 RPE65 的抗体。使用的神经胶质细胞标志物是碱性成纤维细胞生长因子(Müller 细胞和移位的无长突细胞)、GFAP(Müller 细胞和星形胶质细胞)和波形蛋白(Müller 细胞)。分别评估了每种染色效果在鉴定单个细胞、特定细胞结构和纤维层方面的特异性、敏感性和重现性。副甲状腺蛋白和 ROM-1 是首次在猪视网膜中进行测试的标志物。所有测试的抗体均产生了高质量的特异性染色。总之,本文介绍的所有免疫组织化学方案都将适用于固定的、冷冻切片的猪视网膜。

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