自愈水凝胶
组织工程
生物医学工程
材料科学
再生医学
弹性(物理)
声学显微镜
显微镜
复合材料
弹性成像
纳米技术
超声波
细胞
工程类
化学
光学
声学
物理
高分子化学
生物化学
作者
Hsiao‐Chuan Liu,Bipin Gaihre,Piotr Kijanka,Lichun Lu,Matthew W. Urban
标识
DOI:10.1109/tbme.2022.3203435
摘要
Hydrogel scaffolds have attracted attention to develop cellular therapy and tissue engineering platforms for regenerative medicine applications. Among factors, local mechanical properties of scaffolds drive the functionalities of cell niche. Dynamic mechanical analysis (DMA), the standard method to characterize mechanical properties of hydrogels, restricts development in tissue engineering because the measurement provides a single elasticity value for the sample, requires direct contact, and represents a destructive evaluation preventing longitudinal studies on the same sample. We propose a novel technique, acoustic force elastography microscopy (AFEM), to evaluate elastic properties of tissue engineering scaffolds.
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