Norris Emma G, Dalecki Diane, Hocking Denise C
Department of Pharmacology and Physiology, University of Rochester, Rochester, New York, USA.
Department of Biomedical Engineering, University of Rochester, Rochester, New York, USA.
Recent Prog Mater. 2020;2(3). doi: 10.21926/rpm.2003018. Epub 2020 Jul 21.
Ultrasound is emerging as a promising tool for both characterizing and fabricating engineered biomaterials. Ultrasound-based technologies offer a diverse toolbox with outstanding capacity for optimization and customization within a variety of therapeutic contexts, including improved extracellular matrix-based materials for regenerative medicine applications. Non-invasive ultrasound fabrication tools include the use of thermal and mechanical effects of acoustic waves to modify the structure and function of extracellular matrix scaffolds both directly, and indirectly via biochemical and cellular mediators. Materials derived from components of native extracellular matrix are an essential component of engineered biomaterials designed to stimulate cell and tissue functions and repair or replace injured tissues. Thus, continued investigations into biological and acoustic mechanisms by which ultrasound can be used to manipulate extracellular matrix components within three-dimensional hydrogels hold much potential to enable the production of improved biomaterials for clinical and research applications.
超声正成为一种用于表征和制造工程生物材料的有前景的工具。基于超声的技术提供了一个多样化的工具库,在各种治疗环境中具有出色的优化和定制能力,包括用于再生医学应用的改进的基于细胞外基质的材料。非侵入性超声制造工具包括利用声波的热效应和机械效应,直接以及通过生化和细胞介质间接改变细胞外基质支架的结构和功能。源自天然细胞外基质成分的材料是工程生物材料的重要组成部分,旨在刺激细胞和组织功能以及修复或替换受损组织。因此,持续研究超声可用于在三维水凝胶中操纵细胞外基质成分的生物学和声学机制,对于生产用于临床和研究应用的改良生物材料具有很大潜力。