Center for Advanced Biomaterials for Health Care@CRIB, Istituto Italiano di Tecnologia and Interdisciplinary Research Center on Biomaterials, University of Naples Federico II, Napoli, Italy.
J R Soc Interface. 2012 Sep 7;9(74):2017-32. doi: 10.1098/rsif.2012.0308. Epub 2012 Jun 29.
The development of novel biomaterials able to control cell activities and direct their fate is warranted for engineering functional biological tissues, advanced cell culture systems, single-cell diagnosis as well as for cell sorting and differentiation. It is well established that crosstalk at the cell-material interface occurs and this has a profound influence on cell behaviour. However, the complete deciphering of the cell-material communication code is still far away. A variety of material surface properties have been reported to affect the strength and the nature of the cell-material interactions, including biological cues, topography and mechanical properties. Novel experimental evidence bears out the hypothesis that these three different signals participate in the same material-cytoskeleton crosstalk pathway via adhesion plaque formation dynamics. In this review, we present the relevant findings on material-induced cell response along with the description of cell behaviour when exposed to arrays of signals-biochemical, topographical and mechanical. Finally, with the aid of literature data, we attempt to draw unifying elements of the material-cytoskeleton-cell fate chain.
新型生物材料的开发能够控制细胞活动并指导其命运,这对于工程功能性生物组织、先进的细胞培养系统、单细胞诊断以及细胞分选和分化是必要的。细胞与材料界面的相互作用已经得到充分证实,这对细胞行为有深远的影响。然而,细胞-材料通讯代码的完全破译还遥遥无期。已经有多种材料表面特性被报道会影响细胞-材料相互作用的强度和性质,包括生物线索、形貌和机械性能。新的实验证据支持了这样一种假设,即这三种不同的信号通过黏附斑形成动力学参与同一材料-细胞骨架的串扰途径。在这篇综述中,我们介绍了与材料诱导的细胞反应相关的发现,以及细胞在暴露于一系列信号(生化、形貌和机械)时的行为描述。最后,借助文献数据,我们试图总结出材料-细胞骨架-细胞命运链的统一要素。