The Transistor, an Emerging Invention: Bell Labs as a Systems Integrator Rather Than a ‘House of Magic’

Florian Metzler
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引用次数: 1

Abstract

The transistor is one of the most consequential human inventions with dissemination of the eventual MOS-FET design estimated to exceed one quintillion devices. However, the transistor’s genesis remains poorly understood. Many received accounts associate transistor invention closely with a small group of Bell Labs scientists during the 1947-1948 period. This paper argues that such a view is too narrow. Rather, the transistor – as a solid-state amplifier – emerged over a period of several decades starting with early observations of anomalous amplification in semiconductor crystals and early device designs during the 1910s and 1920s. Other types of relevant knowledge evolved in the form of advances in solid-state physics and materials processing techniques during the 1930s and early 1940s. Bell Labs identified, absorbed, evaluated, and integrated such diverse but interrelated knowledge streams – making Bell Labs appear much more like a systems integrator than the prototypical closed innovation organization it is often portrayed as. The Bell Labs transistor effort was both mission- and device-oriented with the specific goal of turning existing but imperfect solid-state amplifier designs into reliable substitutes for vacuum tubes – as such the research program is better described as applied industrial research rather than basic research. Through its systems integration activities, Bell Labs catalyzed a qualitative shift in the hitherto fragmented semiconductor field, enabling greater resource allocation and intensified research activity, as reflected in a hike in publication growth rates and the later introduction of marketed products. Thus expanded research activity eventually led to the 1959 MOS-FET design as the transistor’s dominant design used in large-scale dissemination such as in modern computer chips. Consequently, I propose to view the transistor as an emerging invention – in contrast to a discrete or singular one – with an emergence period spanning several decades. I propose to distinguish between an exploration phase (~1920-1945), a consolidation phase (1945-1950), and a maturation phase (1950-) whereas the intermediate consolidation phase represents a topological transition as is characteristic of emerging fields. Another emphasis of this article lies on the role of informal knowledge in the invention process. In the transistor case, such informal knowledge included patent specifications with proposed device designs, amateur radio magazine articles with reported anomalies, and oral anecdotes in practitioner circles describing experimental configurations of interest. This research asserts that such kinds of informal knowledge played an important role early on in the invention process as they guided both early research campaigns and managerial decisions, including at Bell Labs.
晶体管,一个新兴的发明:贝尔实验室是一个系统集成商而不是一个“魔法之家”
晶体管是人类最重要的发明之一,其最终的MOS-FET设计的传播估计超过1万亿器件。然而,人们对晶体管的起源仍然知之甚少。许多收到的报告将晶体管的发明与1947年至1948年期间贝尔实验室的一小群科学家紧密联系在一起。本文认为,这种观点过于狭隘。相反,晶体管——作为一种固态放大器——从20世纪10年代和20年代对半导体晶体中异常放大的早期观察和早期器件设计开始,在几十年的时间里出现了。在20世纪30年代和40年代早期,其他类型的相关知识以固态物理和材料加工技术的进步形式发展。贝尔实验室识别、吸收、评估和整合了这些多样但相互关联的知识流——使贝尔实验室看起来更像一个系统集成商,而不是通常被描绘成的典型的封闭创新组织。贝尔实验室对晶体管的研究既是以任务为导向的,也是以设备为导向的,其具体目标是将现有但不完善的固态放大器设计转化为真空管的可靠替代品——因此,该研究项目更适合被描述为应用工业研究,而不是基础研究。通过其系统集成活动,贝尔实验室催化了迄今为止分散的半导体领域的质的转变,使更多的资源分配和加强的研究活动得以实现,这反映在出版物增长率的提高和后来推出的市场产品上。因此,扩大的研究活动最终导致1959年MOS-FET设计成为晶体管的主导设计,用于大规模推广,如现代计算机芯片。因此,我建议把晶体管看作是一个新兴的发明,而不是一个分立的或单一的发明,它的出现周期跨越了几十年。我建议区分勘探阶段(~1920-1945)、巩固阶段(1945-1950)和成熟阶段(1950-),而中间巩固阶段代表了新兴油田特征的拓扑过渡。本文的另一个重点在于非正式知识在发明过程中的作用。在晶体管的案例中,这些非正式的知识包括提出设备设计的专利规范,报道异常的业余无线电杂志文章,以及从业者圈子中描述感兴趣的实验配置的口头轶事。这项研究断言,这类非正式知识在发明过程的早期发挥了重要作用,因为它们指导了早期的研究活动和管理决策,包括在贝尔实验室。
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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