Chakraborty Kasturi, Veetil Aneesh T, Jaffrey Samie R, Krishnan Yamuna
Department of Chemistry, University of Chicago, Chicago, Illinois 60637; email:
Department of Pharmacology, Weill Medical College of Cornell University, New York, New York 10065; email:
Annu Rev Biochem. 2016 Jun 2;85:349-73. doi: 10.1146/annurev-biochem-060815-014244.
The nanoscale engineering of nucleic acids has led to exciting molecular technologies for high-end biological imaging. The predictable base pairing, high programmability, and superior new chemical and biological methods used to access nucleic acids with diverse lengths and in high purity, coupled with computational tools for their design, have allowed the creation of a stunning diversity of nucleic acid-based nanodevices. Given their biological origin, such synthetic devices have a tremendous capacity to interface with the biological world, and this capacity lies at the heart of several nucleic acid-based technologies that are finding applications in biological systems. We discuss these diverse applications and emphasize the advantage, in terms of physicochemical properties, that the nucleic acid scaffold brings to these contexts. As our ability to engineer this versatile scaffold increases, its applications in structural, cellular, and organismal biology are clearly poised to massively expand.
核酸的纳米级工程技术催生了用于高端生物成像的令人兴奋的分子技术。可预测的碱基配对、高可编程性,以及用于获取不同长度和高纯度核酸的卓越新化学和生物学方法,再加上用于其设计的计算工具,使得能够创造出种类惊人的基于核酸的纳米器件。鉴于其生物起源,这类合成器件具有与生物界相互作用的巨大能力,而这种能力正是几种正在生物系统中得到应用的基于核酸的技术的核心所在。我们讨论这些多样的应用,并强调核酸支架在物理化学性质方面为这些应用带来的优势。随着我们对这种多功能支架进行工程设计的能力不断提高,其在结构生物学、细胞生物学和生物体生物学中的应用显然有望大幅扩展。