From Atoms and Molecules to Information and Knowledge: New Driving Forces in Manufacturing

E. S. Meieran
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Abstract

In the 40 years since Gordon Moore articulated his famous Moore's Law, enormous changes have taken place in all industries and particularly in the semiconductor industry. The first decade of Moore's Law, the 60's and early 70's was dominated by semiconductor process development, which gave the world the foundation devices that now empower the world through advanced communication and computation capabilities. The second decade, the late 70's and early 80's, was dominated by computer architects, who defined the memory and microprocessor devices that led to the personal computer industry. The third decade, the mid 80's to the mid 90's, saw device design as a core competency; as the ability to link millions and tens of millions of devices to make more sophisticated circuits led to vastly more sophisticated devices. The next decade, the 90's to the present time, was dominated by manufacturing, where making these great devices by the hundreds of millions became a competitive advantage, leading to advanced computing, communication and Internet capabilities. So what's next; what will emerge from this decade? The most significant attributes of the coming generations are the introduction of ever newer, lower cost, more sophisticated devices and the opening of new markets, particularly in emerging economies; consequently, there will be a major emphasis on the manufacturing domain as pressure continues to be competitive in price, quality, performance and in particular, delivery time. This paper discusses some of the major trends that will impact manufacturing, given these competitive product pressure; it seems to me that the most significant impact will be through sharing and leveraging of manufacturing-related knowledge, as process complexity increases and the work is more globally distributed. Maybe knowledge is power, but globally distributed shared knowledge is certainly GREAT power!
从原子和分子到信息和知识:制造业的新驱动力
自戈登·摩尔提出著名的摩尔定律以来的40年里,所有行业都发生了巨大的变化,尤其是半导体行业。摩尔定律的第一个十年,即60年代和70年代早期,是由半导体工艺发展主导的,它为世界提供了基础设备,现在通过先进的通信和计算能力使世界变得强大。第二个十年,即70年代末和80年代初,由计算机架构师主导,他们定义了内存和微处理器设备,从而导致了个人计算机行业的发展。第三个十年,也就是80年代中期到90年代中期,设备设计被视为核心竞争力;因为连接数以百万计的设备来制造更复杂的电路的能力导致了更复杂的设备。接下来的十年,从90年代到现在,都是由制造业主导的,数以百万计的制造这些伟大的设备成为了一种竞争优势,导致了先进的计算、通信和互联网能力。接下来是什么?这十年将会出现什么?未来几代人最显著的特点是,他们会推出更新、成本更低、更复杂的设备,并打开新市场,尤其是在新兴经济体;因此,随着价格、质量、性能,尤其是交货时间方面的竞争压力持续加大,制造领域将成为重点。本文讨论了一些将影响制造业的主要趋势,考虑到这些竞争产品的压力;在我看来,最重要的影响将是通过共享和利用与制造相关的知识,因为过程复杂性增加,工作更加全球化。也许知识就是力量,但全球分布的共享知识肯定是巨大的力量!
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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