Rieth M, Schommers W
Forschungszentrum Karlsruhe, Institut für Materialforschung I, 76021 Karlsruhe, Germany.
J Nanosci Nanotechnol. 2002 Dec;2(6):679-85. doi: 10.1166/153348802321105987.
Small structures with dimensions in the nanometer regime play an important role within a lot of modern technological branches like, for example, genetics, chip fabrication, material science, medicine, or chemistry. While highly sophisticated characterization methods would be necessary to study such nanostructures, computational methods and models have made their entrance into the field of nanotechnology. The present work gives an overview of the problems connected with quantum mechanics, many-particle systems, and nanophysical models. Further, the application of molecular dynamics (MD)--a typical computational method suitable for modelling at the nanolevel--is introduced and outlined. The setup and use of specific MD models, advanced computation techniques, and efficient algorithms are discussed, while the focus is laid on the subjects nanodesign and nanoengineering which are demonstrated for the example of metallic nanostructures. Finally, the introduced techniques and methods are applied to stability studies of theoretical nanomachines.
尺寸处于纳米量级的小结构在许多现代技术领域中发挥着重要作用,例如遗传学、芯片制造、材料科学、医学或化学。虽然研究此类纳米结构需要高度复杂的表征方法,但计算方法和模型已进入纳米技术领域。本工作概述了与量子力学、多粒子系统和纳米物理模型相关的问题。此外,还介绍并概述了分子动力学(MD)——一种适用于纳米级建模的典型计算方法——的应用。讨论了特定MD模型的设置和使用、先进的计算技术和高效算法,重点是纳米设计和纳米工程主题,并以金属纳米结构为例进行了说明。最后,将所介绍的技术和方法应用于理论纳米机器的稳定性研究。