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引用次数: 5

摘要

只提供摘要形式。摩尔定律是信息时代的决定性特征。摩尔定律最早由戈登·摩尔在1965年提出,它说集成电路上的晶体管数量每一到两年翻一番。在过去的50年里,计算能力、通信、娱乐和电子技术的各个方面都取得了巨大的进步,而成本却越来越低。毫不夸张地说,摩尔定律给社会带来了根本性的变化,对人类文明的影响尚未完全解决。但摩尔定律本身在过去50年里发生了变化。摩尔定律有三个阶段,最新阶段,我称之为摩尔定律3.0,最近开始占据主导地位。本讲座将介绍摩尔定律的历史,以及形成摩尔定律的技术和经济力量。还将讨论坦南特定律,该定律将成本与分辨率联系起来,以及晶圆尺寸的作用(特别是计划向450毫米直径的晶圆移动)。将解释摩尔定律的三个时代,并讨论当前摩尔定律3.0时代对未来技术发展的影响。警告:一些猜测将不可避免。
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Keynote: Moore's Law 3.0
Summary form only given. Moore's Law is the defining feature of the information age. First expressed by Gordon Moore in 1965, Moore's Law says that the number of transistors on an integrated circuit doubles every one to two years. The result over the last fifty years has been dramatic improvements in computational capabilities, communications, entertainment, and all aspects of electronic technology, all at ever lower cost. Quite literally, Moore's Law has brought about a radical change in society, with implications for human civilization that are not fully resolved. But Moore's Law itself has undergone changes over the last 50 years. There have been three phases of Moore's Law, with the latest phase, what I call Moore's Law 3.0, recently becoming dominant. This talk will describe the history of Moore's Law, and the technical and economic forces that have shaped it. Tennant's Law, which relates cost to resolution, and the role of wafer size (and in particular the planned move to 450-mm diameter wafers) will also be discussed. The three Moore's Law eras will be explained, and the implications of the current Moore's Law 3.0 era on the future of technology development will be discussed. Warning: some speculations will be inevitable.
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