Lin Xiang, Fan Lu, Wang Li, Filppula Anne M, Yu Yunru, Zhang Hongbo
Pharmaceutical Sciences Laboratory Åbo Akademi University Turku Finland.
Turku Bioscience Centre University of Turku and Åbo Akademi University Turku Finland.
Smart Med. 2023 Jul 5;2(3):e20230017. doi: 10.1002/SMMD.20230017. eCollection 2023 Aug.
The proper organization of cells and tissues is essential for their functionalization in living organisms. To create materials that mimic natural structures, researchers have developed techniques such as patterning, templating, and printing. Although these techniques own several advantages, these processes still involve complexity, are time-consuming, and have high cost. To better simulate natural materials with micro/nanostructures that have evolved for millions of years, the use of ice templates has emerged as a promising method for producing biomimetic materials more efficiently. This article explores the historical approaches taken to produce traditional biomimetic structural biomaterials and delves into the principles underlying the ice-template method and their various applications in the creation of biomimetic materials. It also discusses the most recent biomedical uses of biomimetic materials created via ice templates, including porous microcarriers, tissue engineering scaffolds, and smart materials. Finally, the challenges and potential of current ice-template technology are analyzed.
细胞和组织的正确组织对于它们在生物体中的功能实现至关重要。为了制造模仿自然结构的材料,研究人员已经开发出了诸如图案化、模板化和打印等技术。尽管这些技术有若干优点,但这些过程仍然复杂、耗时且成本高昂。为了更好地模拟具有数百万年进化历史的微/纳米结构的天然材料,冰模板的使用已成为一种更高效地生产仿生材料的有前途的方法。本文探讨了生产传统仿生结构生物材料所采用的历史方法,并深入研究了冰模板法的基本原理及其在仿生材料制造中的各种应用。它还讨论了通过冰模板制造的仿生材料的最新生物医学用途,包括多孔微载体、组织工程支架和智能材料。最后,分析了当前冰模板技术面临的挑战和潜力。