通过惰性物质控制干细胞的命运

P. di Nardo, M. Minieri
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引用次数: 0

摘要

十年的深入研究并没有产生一致的结果,能够在临床环境中安全、经济地使用干细胞。在不同的原因中,干细胞恢复活力的潜力可以压倒所有其他生物线索的观点已被证明是非常薄弱的。相反,现在很清楚,干细胞的命运是由一组复杂的多参数信号控制的,这些信号的对称性是将干细胞限制在确定状态的基础。沿时间尺度的对称水平的调制驱动干细胞向特定表型。体外复制这一机制的尝试表明,由惰性材料制成的支架具有适当的拓扑结构和物理特性,可以释放被干细胞感知为生物学相关的信号。利用这一概念可以在体外重现通常控制细胞命运的生理条件,从而实现对临床应用的干细胞分化的更完整控制。
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Governing stem cell fate through inert materials
A decade of intensive research has not produced consistent results able to allow a safe and cost-effective use of stem cells in the clinical setting. Among the different causes, the vision that the stem cell rejuvenating potential could overwhelm all the other biological cues has demonstrated to be very weak. Instead, it is now clear that stem cell fate is governed by a complex array of multi-parametric signals whose symmetry is fundamental to confine stem sells in a determined state. The modulation of the level of symmetry along the time-scale drives stem cells towards a specific phenotype. Attempts at reproducing in vitro this mechanism has demonstrated that scaffolds made of inert materials but endowed with appropriate topology and physical characteristics can release signals sensed as biologically relevant by stem cells. Exploiting this concept could allow to reproduce in vitro the physiological conditions usually governing cell fate in order to achieve a more complete control of stem cell differentiation for clinical applications.
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