具有工程几何和生理相关刚度的单细胞3D生物mems环境

M. Marelli, Neha Gadhari, G. Boero, M. Chiquet, J. Brugger
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引用次数: 1

摘要

我们提出了一个三维(3D)微环境芯片上的细胞培养,具有工程的几何和机械性能。该装置被命名为μ-flower,是基于被双层结构的固有应力弯曲出平面的微制造悬臂梁。使用不同厚度的Ti-SiO2双层材料可以在保持尺寸几乎不变的情况下跨越大范围的刚度。因此,器件的几何和力学性能解耦,并且几个生理组织的刚度度是匹配的。这些特性使μ花成为一种微制造细胞培养基质,旨在以精确控制的方式模拟体内环境的基本物理特性(尺寸,形状和刚性),在单细胞尺度上,具有高度并行化。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Single-cell 3D Bio-MEMS environment with engineered geometry and physiologically relevant stiffnesses
We present a three dimensional (3D) microenvironment for on-chip cell culture, with engineered geometrical and mechanical properties. The device, named μ-flower, is based on micorfabricated cantilever beams bent out of plane by the intrinsic stresses of a bilayer structure. The use of Ti-SiO2 bilayers with various thicknesses allows spanning a large range of rigidities while keeping the size nearly constant. The geometrical and mechanical properties of the devices are thus decoupled, and the degrees of stiffness of several physiological tissues are matched. These characteristics make μ-flowers a microfabricated cell-culture substrate designed to mimic essential physical properties of the in vivo environment (dimensionality, shape and rigidity) in a precisely controlled way, at the single-cell scale, and with a high degree of parallelization.
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