iFlow设计工厂:通过自适应资源管理和合格的数据交换,将芯片设计从艺术发展到过程

Gilles-Eric Descamps, S. Bagalkotkar, S. Ganesan, S. Subramaniam, H. Hingarh
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引用次数: 0

摘要

随着半导体技术的进步和设计复杂性的增加,许多公司已经转向全球设计团队来构建他们的芯片系统(SoC)。主要的挑战是扩展基础设施和方法的能力,以及ASIC设计。Silicon Access Networks最近从first Silicon获得了收入,这是一个由四个高性能SoC产品组成的家族。这些高端网络产品采用最先进的0.13 /spl mu/m工艺设计,共有约7.5亿个晶体管和各种模拟、数字和存储功能块,可提供业界最高性能的OC-192数据平面处理解决方案。本文描述了硅接入网络设计方法的一些关键方面,这些方法能够实现可重复的“首次通过硅”成功。通过对流程的实时可见性,我们在芯片设计周期中获得了可预测性。将质量提升策略应用于芯片设计周期。自适应资源管理和合格的数据交换是两种主要技术。在不同时区工作的多站点设计团队可能是一个陷阱,或者可能允许真正的24/7操作,这取决于是否有正确的数据和资源可用。并行构建如此庞大的设计需要在透明但真正全球化的环境中对资源(机器、工具和用户)进行有效管理。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
The iFlow design factory: evolving chip design from an art to a process, through adaptive resource management, and qualified data exchange
With advancing semiconductor technology, growing design complexities, companies have turned to a global design team to build their system on a chip (SoC). The major challenge is the capacity to scale infrastructure and methodology, along with ASIC design. Silicon Access Networks recently shipped for revenue from first silicon, a family of four high performance SoC products. These high-end networking products were designed in state-of-the-art 0.13 /spl mu/m process and collectively had about 750-million transistors and a variety of analog, digital and memory functional blocks to provide the industry's highest performance OC-192 Data Plane Processing solution. This paper describes some of the key aspects of Silicon Access Networks' design methodology that enabled to accomplish repeatable "first pass silicon" successes. We gained predictability in our chip design cycle through real-time visibility of the processes. Quality enhancing strategies were applied to the chip design cycles. Adaptive resource management, and qualified data exchange were the two main techniques. Multi site design teams working in different time zones may be a pitfall, or may allow for true 24/7 operation, depending on whether the right data and resources are available. Building such large designs in parallel requires efficient management of resources - machines, tools and users - in a transparent but truly global environment.
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