School of Electrical Engineering and Computer Science, Kyungpook National University 1370 Sankyuk-dong, Bukgu, 702-701 Daegu, South Korea.
Front Biosci (Landmark Ed). 2011 Jan 1;16(3):997-1023. doi: 10.2741/3731.
In the 21(st) century, it is widely recognized that along with information technology (IT) and biotechnology (BT), nanotechnology (NT) will be a key field of science that will drive future developments. NT is expected to allow innovations in industrial fields such as electrical and electronics, biochemistry, environment, energy, as well as materials science by enabling the control and operation of materials at the atomic and molecular levels. In particular, the application of NT in the field of biochemistry is now enabling the realization of previously unachievable objectives.This review discusses the growth, synthesis, and biocompatible functionalization of each materials, with an emphasis on 1D nanomaterials such as CNTs, inorganic nanowires (made of Si, metals, etc.), and conducting polymer nanowires, along with 0D nanomaterials such as nanoparticles. This review also investigates the sensing principle and features of nanobiosensors made using the abovementioned materials and introduce various types of biosensors with nanostructure 0-D and 1-D. Finally, the review discusses future research objectives and research directions in the field of nanotechnology.
在 21 世纪,人们普遍认识到,与信息技术 (IT) 和生物技术 (BT) 一样,纳米技术 (NT) 将成为推动未来发展的关键科学领域。NT 有望通过控制和操作原子和分子水平的材料,在电气和电子、生物化学、环境、能源以及材料科学等工业领域实现创新。特别是,NT 在生物化学领域的应用现在正在实现以前无法实现的目标。
本综述讨论了每种材料的生长、合成和生物相容性功能化,重点介绍了一维纳米材料,如 CNTs、无机纳米线(由 Si、金属等制成)和导电聚合物纳米线,以及零维纳米材料,如纳米粒子。本综述还研究了使用上述材料制造的纳米生物传感器的传感原理和特点,并介绍了各种具有纳米结构的 0-D 和 1-D 生物传感器。最后,本文讨论了纳米技术领域的未来研究目标和研究方向。