IT11. Physical and biological aplications using self-asembled DNA nanostructures

Sung Ha Park
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Abstract

Nanobiotechnology has evolved into a unique interdisciplinary field involving physics, materials science, chemistry, biology, computer science, and multiple enginering fields. Likewise, DNA nanotechnology is a quickly developing field with esentialy no overwhelming technical dificultiesinhibitngprogres toward designing and fabricating new shapes of DNA nanostructures in al dimensions. In this field, researchers create artificial DNA sequences to self-asemble into target molecular nanostructures. The welunderstod Watson-Crick base-pairing rules are used to encode asembly instructions directly into the DNA molecules which provide basic building blocks for constructing functionalized nanostructures with two major features: self-asembly and self-align. In this talk, we present on self-asembled various DNA nanostructures. 1D and 2D periodicalypaterned nanostructures utilzing several distinct DNA motifs such as cros tiles, double crosover tiles as wel as single-stranded tiles wil be discused with unique design schemes and characteristics. We also discus new development of DNA fabrication methods such as Angle Control Scheme, Surface Asisted Growth and Dry & Wet Method. At he end of the talk, we adresaplications of DNA nanotechnology which wil show feasibilty to construct various physical devices and biological/chemical sensors with DNA nanostructures[1,2].
IT11。使用自组装DNA纳米结构的物理和生物应用
纳米生物技术已经发展成为一个独特的跨学科领域,涉及物理学、材料科学、化学、生物学、计算机科学和多个工程领域。同样,DNA纳米技术是一个快速发展的领域,基本上没有压倒性的技术困难阻碍设计和制造全尺寸DNA纳米结构的新形状。在这个领域,研究人员创造人工DNA序列,使其自组装成目标分子纳米结构。沃森-克里克碱基配对规则用于将组装指令直接编码到DNA分子中,为构建具有自组装和自排列两个主要特征的功能化纳米结构提供了基本的构建块。在这次演讲中,我们介绍了自组装的各种DNA纳米结构。利用几种不同的DNA基序(如交叉瓦,双交叉瓦和单链瓦)的一维和二维周期性纳米结构将以独特的设计方案和特征进行讨论。讨论了DNA制备方法的新进展,如角度控制法、表面辅助生长法和干湿法。在讲座的最后,我们讨论了DNA纳米技术的应用,这将显示出用DNA纳米结构构建各种物理设备和生物/化学传感器的可行性[1,2]。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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