Ou Keng-Liang, Hosseinkhani Hossein
Nanomedicine Research Center of Taiwan, College of Oral Medicine, Taipei Medical University, Taipei 110, Taiwan.
Int J Mol Sci. 2014 Oct 8;15(10):17938-62. doi: 10.3390/ijms151017938.
In the past few years, biomaterials technologies together with significant efforts on developing biology have revolutionized the process of engineered materials. Three dimensional (3D) in vitro technology aims to develop set of tools that are simple, inexpensive, portable and robust that could be commercialized and used in various fields of biomedical sciences such as drug discovery, diagnostic tools, and therapeutic approaches in regenerative medicine. The proliferation of cells in the 3D scaffold needs an oxygen and nutrition supply. 3D scaffold materials should provide such an environment for cells living in close proximity. 3D scaffolds that are able to regenerate or restore tissue and/or organs have begun to revolutionize medicine and biomedical science. Scaffolds have been used to support and promote the regeneration of tissues. Different processing techniques have been developed to design and fabricate three dimensional scaffolds for tissue engineering implants. Throughout the chapters we discuss in this review, we inform the reader about the potential applications of different 3D in vitro systems that can be applied for fabricating a wider range of novel biomaterials for use in tissue engineering.
在过去几年中,生物材料技术以及在生物学发展方面所付出的巨大努力,彻底改变了工程材料的制造过程。三维(3D)体外技术旨在开发一系列简单、廉价、便携且耐用的工具,这些工具能够实现商业化,并应用于生物医学科学的各个领域,如药物研发、诊断工具以及再生医学中的治疗方法。细胞在3D支架中的增殖需要氧气和营养供应。3D支架材料应为紧邻其生长的细胞提供这样的环境。能够再生或修复组织和/或器官的3D支架已开始彻底改变医学和生物医学科学。支架已被用于支持和促进组织的再生。人们已开发出不同的加工技术来设计和制造用于组织工程植入物的三维支架。在本综述中我们讨论的各章节中,我们向读者介绍了不同3D体外系统的潜在应用,这些系统可用于制造更广泛的新型生物材料,以用于组织工程。