纳米技术的源头

TecnoLogicas Pub Date : 2014-01-15 DOI:10.22430/22565337.201
A. Zarzycki
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引用次数: 2

摘要

阿图尔·扎兹基博士Eng。纳米技术是现代科学和工程的一个广泛领域,它创造了潜在的无限可能性。这个术语通常被定义为制备和使用至少一个维度以纳米表示的结构。通常,这些结构的尺寸范围从1到100纳米(更常见的是几百纳米)。1974年,日本科学家谷口典夫首次使用了“纳米技术”一词。他用这个词来描述半导体过程。他对纳米技术的定义如下:“纳米技术主要是由一个原子或一个分子对材料进行分离、固结和变形的处理”[1]。谷口认为纳米技术是一种具有纳米级公差的精密制造技术。这种方法暗示了田口的背景——他研究过机械加工技术的发展。然而,纳米技术的前景有着更深的根源。最早的想法出现在几年前。1959年12月29日,费曼在加州理工学院做了一次题为“底部有很多空间”的演讲。在演讲中,他认为直接操纵单个原子的可能性是一种比当时使用的更强大的合成化学形式。费曼还提出,原则上,应该有可能制造出非常小的机器,能够按照我们想要的方式排列原子,并通过机械操作进行化学合成。在演讲结束时,费曼宣布了两项挑战,并为每项挑战提供了资金。第一个任务是建造一个非常小的马达,小到可以装进每边1/64英寸(0.4毫米)的立方体里。第二个难度要大得多——找到一种方法,将字母缩小到足够小,以便能够将一页书中的信息按线性比例放在比原来小2万分之一的面积上。费曼提出的概念和任务在当时都是非常抽象的;然而,它们给了研究人员强烈的工作动力。1960年11月,让费曼感到惊讶的是,电气工程师威廉·麦克莱伦(William McLellan)提出了一种尺寸符合假设的电动机。马达是纯手工制造的。麦克莱伦没有使用任何尖端设备,而是使用了典型的工具和他的经验。在他的工具中有一根削尖的牙签,它可以把微型部件推到合适的位置——这正好预示了原子力显微镜的原子尖。迎接第二个挑战花了更多的时间。1985年,斯坦福大学研究生汤姆·纽曼(Tom Newman)成功地将《双城记》的第一段缩短了1/ 25000,并获得了第二届费曼奖。费曼提出的概念性愿景启发了当今最著名的纳米技术传播者之一——埃里克·德雷克斯勒。德雷克斯勒不仅遵循了费曼的概念,而且将纳米技术的愿景推向了更远的地方。1986年,德雷克斯勒
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At source of nanotechnology
ARTUR ZARZYCKI, PhD. Eng. Institute of Aviation, Center of Space Technologies, Adaptronics Team Warszawa, Poland Nanotechnology is a broad field of modern science and also engineering, which creates, potentially, endless possibilities. This term is most often defined as the preparation and use of structures in which at least one dimension is expressed in nanometers. Usually, the dimensions of these structures are in the range from 1 to 100 nm (more often up to several hundred nm).The term nano-technology was used first time in 1974 by Japanese scientist Norio Taniguchi. He used the term to describe semiconductor processes. His definition of nano-technology was as follows: "Nano-technology mainly consists of the processing of separation, consolidation, and deformation of materials by one atom or one molecule" [1]. Taniguchi considered nanotechnology as a technology of precision manufacture with nanometer tolerances. Such an approach implied from Tanguchi’s background – he had studied the developments in machining techniques. The vision of nanotechnology, however, has deeper roots. The first ideas appeared several years earlier. On December 29, 1959, at California Institute of Technology, Feynman gave a lecture titled “There's Plenty of Room at the Bottom” [2]. In lecture, he considered the possibility of direct manipulation of individual atoms as a more powerful form of synthetic chemistry than those used at the time. Feynman also suggested that it should be possible, in principle, to make very tiny machines that are able to arrange the atoms the way we want, and do chemical synthesis by mechanical manipulation. At the end of his talk, Feynman announced two challenges and funded price for each one. The first task involved the construction of a very small motor, such small that would fit inside a cube 1/64 inches (0.4 mm) on each side. The second one was much more difficult – to find a way to scale down letters small enough so as to be able to take the information on a page of a book and put it on an area 1/20000 smaller in linear scale. The concepts, as well as tasks presented by Feynman were very abstractive at that time; nevertheless, they gave to researchers a strong motivation to work. In November 1960, to Feynman’s surprising, an electrical engineer William McLellan, presented an electric motor which size met posed assumptions. The motor was pure handcraft engineering. McLellan, to fabricate it, did not use any cut-edge apparatus but typical tools and his experience. Among his tools was a sharpened toothpick which pushed the miniature components into place - appropriately presaging the atom-fine tips of atomic-force microscopes [3]. To meet the second challenge took a little more time. In 1985, Tom Newman, a Stanford graduate student, successfully reduced the first paragraph of A Tale of Two Cities by 1/25,000, and collected the second Feynman prize [3]. The conceptual vision presented by Feynman inspired one of the most famous nowadays propagator of nanotechnology – Eric Drexler. Drexler not only followed the Feynman’s concepts but he pushed the vision of nanotechnology much further. In 1986 Drexler
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