Lim Yong-beom, Lee Myongsoo
Center for Supramolecular Nano-Assembly and Department of Chemistry, Yonsei University, Seoul, 120-749, Korea.
Org Biomol Chem. 2007 Feb 7;5(3):401-5. doi: 10.1039/b615744k. Epub 2006 Dec 14.
Materials that display multiple carbohydrate residues have gained much attention due to their potential to inhibit or modulate biological multivalent interactions. These materials can be grouped accordingly to the way they are prepared, as unimolecular or as self-assembled systems. Both systems take advantage of the fact that multivalent interactions have significantly higher binding affinity than the corresponding monovalent interactions. The self-assembled system is a more recent field of research compared to the unimolecular system. In this review, we describe current efforts to realize multivalent carbohydrate interactions from the perspective of synthetic self-assembled systems. We limit the scope to self-assembled systems that are stable, soluble in aqueous solution and morphologically discrete. We grouped them into two separate categories. In the first category carbohydrate ligands self-assemble onto a pre-organized nanostructure, and in the second carbohydrate-conjugated block molecules spontaneously assemble to construct morphologically distinct nanostructures.
由于具有抑制或调节生物多价相互作用的潜力,展示多个碳水化合物残基的材料备受关注。这些材料可根据其制备方式分为单分子体系或自组装体系。这两种体系都利用了多价相互作用比相应单价相互作用具有显著更高结合亲和力这一事实。与单分子体系相比,自组装体系是一个较新的研究领域。在本综述中,我们从合成自组装体系的角度描述了实现多价碳水化合物相互作用的当前研究进展。我们将范围限制在稳定、可溶于水溶液且形态离散的自组装体系。我们将它们分为两个不同的类别。第一类是碳水化合物配体自组装到预先构建的纳米结构上,第二类是碳水化合物共轭嵌段分子自发组装以构建形态独特的纳米结构。