Fairman Robert, Akerfeldt Karin S
Department of Biology, Haverford College, 370 Lancaster Avenue, Haverford, PA 19041, USA.
Curr Opin Struct Biol. 2005 Aug;15(4):453-63. doi: 10.1016/j.sbi.2005.07.005.
Important challenges in biomaterials design include predicting the formation of large-scale self-assembled structures based on local atomic-level interactions and then endowing such structures with the ability to respond sensitively to environmental cues. This responsiveness is referred to as smartness. With the advent of key technological advances in imaging, peptides have recently begun to be exploited for their potential use as biomaterials, such as filaments and fibrils, hydrogels, surfactants and peptide hybrids. Peptides offer attractive features, principally because of our detailed understanding of their ability to fold into specific structures, and the rich chemistry with which their structure and function can be manipulated for environmental response.
生物材料设计中的重要挑战包括基于局部原子水平的相互作用预测大规模自组装结构的形成,然后赋予这些结构对环境线索做出敏感响应的能力。这种响应性被称为智能性。随着成像技术的关键进展的出现,肽最近开始因其作为生物材料的潜在用途而被开发,例如细丝和原纤维、水凝胶、表面活性剂和肽杂化物。肽具有吸引人的特性,主要是因为我们对它们折叠成特定结构的能力有详细的了解,以及可以操纵其结构和功能以实现环境响应的丰富化学性质。