自愈水凝胶
纳米技术
纳米复合材料
微流控
材料科学
DNA
基质(水族馆)
化学
生物
高分子化学
生物化学
生态学
出处
期刊:Chem
[Elsevier BV]
日期:2022-06-01
卷期号:8 (6): 1554-1566
被引量:7
标识
DOI:10.1016/j.chempr.2022.04.003
摘要
The innovation of DNA hydrogels has led to the development of programmable nanocomposite DNA hydrogels that are now emerging as bioinstructive materials systems for fundamental and applied research at the crossroads of chemistry, materials, and biology. Due to the feasible synthesis of various colloidal materials and DNA-colloid conjugates, nanocomposite DNA hydrogels can be rationally designed and assembled with tunable physiochemical property as well as integrated functionalities, thereby responding to external physical cues, exhibiting catalytic activities, or acting as therapeutic agents. Furthermore, the implementation of such tailorable substrata enables grafting, colonization, and control of eukaryotic and prokaryotic cells for cell-substrate engineering. It can be anticipated that the integration of nanocomposite DNA hydrogels with microfluidic systems or DNA surface technology might facilitate the development of modern integrated systems and platforms for widespread applications in materials and life sciences. The innovation of DNA hydrogels has led to the development of programmable nanocomposite DNA hydrogels that are now emerging as bioinstructive materials systems for fundamental and applied research at the crossroads of chemistry, materials, and biology. Due to the feasible synthesis of various colloidal materials and DNA-colloid conjugates, nanocomposite DNA hydrogels can be rationally designed and assembled with tunable physiochemical property as well as integrated functionalities, thereby responding to external physical cues, exhibiting catalytic activities, or acting as therapeutic agents. Furthermore, the implementation of such tailorable substrata enables grafting, colonization, and control of eukaryotic and prokaryotic cells for cell-substrate engineering. It can be anticipated that the integration of nanocomposite DNA hydrogels with microfluidic systems or DNA surface technology might facilitate the development of modern integrated systems and platforms for widespread applications in materials and life sciences.
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