Department of Organic Chemistry, Faculty of Chemistry, University of Sevilla, C/Prof. García González 1, 41012, Sevilla, Spain.
Chemistry. 2010 Jun 18;16(23):6728-42. doi: 10.1002/chem.201000076.
Viruses represent a paradigmatic example of multicomponent, self-organized supramolecular systems specialized in the delivery and replication of their genetic material. Mimicking their functioning by artificial synthetic molecules represents a fantastic challenge that will lead to the future development of gene therapy. This is only possible if general approaches towards the construction of nanoscale vehicles for DNA are developed and the key rules governing their capacity to compact genetic material and its active transport/delivery through cell membranes are understood. In this area of research, synthetic organic chemistry plays an important role by providing tools to create tailor-made molecules of increasing complexity. Preorganization of functional elements onto macromolecular platforms has the potential to allow control of the self-assembling behavior of discrete architectures to produce nanometric objects that can be programmed to complex, compact, deliver, and release plasmid DNA in a target cell.
病毒是多组分、自组织超分子系统的典范,专门用于输送和复制其遗传物质。通过人工合成分子来模拟它们的功能是一项极具挑战性的工作,将为未来的基因治疗发展铺平道路。如果能够开发出用于 DNA 的纳米级车辆构建的一般方法,并理解控制其压缩遗传物质的能力及其通过细胞膜的主动转运/输送的关键规则,这才成为可能。在这个研究领域,合成有机化学通过提供工具来创建越来越复杂的定制分子,发挥着重要作用。将功能元件预组织到大分子平台上有可能控制离散结构的自组装行为,从而产生纳米级物体,可以对其进行编程,使其能够复杂、紧凑、输送和在靶细胞中释放质粒 DNA。