Design for manufacturability: a key to semiconductor manufacturing excellence

R. Wilcox, T. Forhan, G. Starkey, D. Turner
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引用次数: 5

Abstract

This paper reviews measures of manufacturing excellence and presents a design-for-manufacturability (DFM) program organized around early design and manufacturing teamwork and the economic analysis of design options. Typical measures of manufacturing excellence for a semiconductor fabricator are expressed in terms of either operational or economic results. Those expressed in terms of operational results are independent of the product mix in the fabricator while those expressed in terms of economic results integrate both fabricator and product design attributes into a single parameter such as revenue/wafer. Improvements in the operational measures of manufacturing excellence focus upon increases in capacity and throughput, defect density reductions, and cost containment. Improvements in the economic measures of manufacturing excellence must focus on both fabricator processing efficiency and the productivity of the design. Design-for-manufacturability practices can improve design productivity, time-to-market, and product performance and reliability by closely coupling semiconductor fabrication knowledge with product requirements during the initial phase of a product design. Every design decision produces both technical and economic consequences; understanding these consequences and using this knowledge in the design process to optimize product productivity and profitability is key to achieving manufacturing excellence for that product.
可制造性设计:半导体制造卓越的关键
本文回顾了制造卓越的衡量标准,并提出了一个围绕早期设计和制造团队合作以及设计选择的经济分析组织的可制造性设计(DFM)计划。对于半导体制造商来说,典型的制造卓越的衡量标准是用运营或经济结果来表示的。以运营结果表示的那些独立于制造商的产品组合,而以经济结果表示的那些将制造商和产品设计属性集成到单个参数中,如收入/晶圆。制造卓越的操作措施的改进集中在能力和吞吐量的增加、缺陷密度的减少和成本控制上。在制造卓越的经济措施的改进必须集中在制造商的加工效率和生产力的设计。在产品设计的初始阶段,通过将半导体制造知识与产品需求紧密结合,可制造性设计实践可以提高设计效率、上市时间、产品性能和可靠性。每个设计决策都会产生技术和经济后果;了解这些后果并在设计过程中使用这些知识来优化产品生产率和盈利能力是实现产品卓越制造的关键。
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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