Even-Tzur Nurit, Elad David, Zaretsky Uri, Randell Scott H, Haklai Roni, Wolf Michael
Department of Biomedical Engineering, Faculty of Engineering, Tel Aviv University, Tel Aviv, 69978, Israel.
Ann Biomed Eng. 2006 Dec;34(12):1890-5. doi: 10.1007/s10439-006-9211-8. Epub 2006 Oct 25.
The effects of mechanical stimuli such as wall shear stresses (WSS) on cellular processes have been studied in vitro in numerous cell types. In order to study WSS effects on cells cultured under air-liquid interface (ALI) conditions, we developed a custom-designed well that can be disassembled into sub-units that allow installation of the cultured cells in a flow chamber, and then, re-assembled for further incubation or biological tests. Human nasal epithelial cells were cultured in the new wells under ALI conditions, and some of their biological characteristics were compared with those cultured in commercial Millicells. The cultured cells from both types of wells secreted the same amount of mucin and had similar cytoskeletal structures. Preliminary WSS experiments demonstrated the advantage of the new wells and provided initial indications that WSS affects the performance of ALI cultured respiratory epithelial cells.
诸如壁面剪应力(WSS)等机械刺激对细胞过程的影响已在体外对多种细胞类型进行了研究。为了研究WSS对在气液界面(ALI)条件下培养的细胞的影响,我们开发了一种定制设计的孔板,该孔板可以拆卸成多个子单元,以便将培养的细胞安装在流动腔室中,然后重新组装以进行进一步孵育或生物学测试。人鼻上皮细胞在ALI条件下在新孔板中培养,并将其一些生物学特性与在商用Millicells中培养的细胞进行比较。两种孔板培养的细胞分泌的粘蛋白量相同,并且具有相似的细胞骨架结构。初步的WSS实验证明了新孔板的优势,并提供了WSS影响ALI培养的呼吸道上皮细胞性能的初步迹象。