小鼠食管间质细胞的免疫组织化学特征及其与运动神经元的关系。

Emer Ni Bhraonain, Jack Turner, Karen Hannigan, Kenton Sanders, Caroline Cobine
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引用次数: 0

摘要

卡贾尔间质细胞(ICC)和表皮生长因子受体α+细胞可调节胃肠道平滑肌的运动。然而,它们在食管运动中的作用仍不清楚。小鼠食管历来被描述为几乎完全由骨骼肌构成,尽管在其整个长度上都发现了 ICC。目前的研究使用在平滑肌细胞(SMCs)中选择性表达 eGFP 的小鼠评估了食管内骨骼肌和平滑肌的分布情况。研究还考察了 SMC 与 ICC 和 PDGFRα + 细胞的关系。SMC的密度在口腔方向有所下降,但在食管远端,SMC占了约25%的面积,这表明SMC与在人体中观察到的过渡区相似。ANO1 + 肌内 ICC(ICC-IM)沿食管长度方向分布,但与 SMC 一样,在近端有所下降。ICC-IM 与 SMC 密切相关,但在没有 SMC 的区域也有发现。肌内和粘膜下的 PDGFRα + 细胞密集分布于整个食管,但只有 LES 和食管远端的肌内 PDGFRα + 细胞高度表达 SK3。在整个 LES 和食管远端,ICC-IM 和 PDGFRα + 细胞与 nNOS + 、VIP + 、VAChT + 和 TH + 神经元密切相关。在肌肉内观察到类似肌肉内肠胶质细胞的 GFAP + 细胞,它们与 ICC-IM 和 PDGFRα + 细胞密切相关,占据与运动神经纤维相似的位置。这些数据表明,小鼠食管与人类食管的相似性比以前想象的要高,从而为今后利用转基因小鼠进行功能和分子研究奠定了基础。
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Immunohistochemical characterization of interstitial cells and their relationship to motor neurons within the mouse esophagus.

Interstitial cells of Cajal (ICC) and PDGFRα+ cells regulate smooth muscle motility in the gastrointestinal (GI) tract. However, their role(s) in esophageal motility are still unclear. The mouse esophagus has traditionally been described as almost entirely skeletal muscle in nature though ICC have been identified along its entire length. The current study evaluated the distribution of skeletal and smooth muscle within the esophagus using a mouse selectively expressing eGFP in smooth muscle cells (SMCs). The relationship of SMCs to ICC and PDGFRα+ cells was also examined. SMCs declined in density in the oral direction however SMCs represented ~ 25% of the area in the distal esophagus suggesting a likeness to the transition zone observed in humans. ANO1+ intramuscular ICC (ICC-IM) were distributed along the length of the esophagus though like SMCs, declined proximally. ICC-IM were closely associated with SMCs but were also found in regions devoid of SMCs. Intramuscular and submucosal PDGFRα+ cells were densely distributed throughout the esophagus though only intramuscular PDGFRα+ cells within the LES and distal esophagus highly expressed SK3. ICC-IM and PDGFRα+ cells were closely associated with nNOS+, VIP+, VAChT+ and TH+ neurons throughout the LES and distal esophagus. GFAP+ cells resembling intramuscular enteric glia were observed within the muscle and were closely associated with ICC-IM and PDGFRα+ cells, occupying a similar location to c. These data suggest that the mouse esophagus is more similar to the human than thought previously and thus set the foundation for future functional and molecular studies using transgenic mice.

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