芯片上的网络:未来芯片上系统的可扩展互连

Muhammad Ali, Michael Welzl, Martin. Zwicknagl, Muhammad Ali
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引用次数: 37

摘要

根据国际半导体技术路线图(ITRS),在这个十年结束之前,我们将进入一个单芯片上有10亿个晶体管的时代。据称,不久我们将拥有50-100纳米的芯片,其中包括大约40亿个晶体管,工作频率为10 Ghz。这样的发展意味着,在不久的将来,我们可能会拥有具有如此复杂功能的设备,从单纯的移动电话到控制卫星功能的移动设备。但是,随着芯片上晶体管数量的增加,集成晶体管的复杂性也在增加,开发这种芯片并非易事。今天,psilas soc使用共享或专用总线来互连通信片上资源。然而,这些总线的可扩展性不能超过一定的限制。在这种情况下,目前的互连基础设施将成为十亿晶体管芯片发展的瓶颈。因此,在本教程中,我们将尝试强调一种新的设计范例,该范例已被提出,以解决未来soc中总线的低效率问题。这种新的设计范式有各种各样的名称,但最常见和最一致的是芯片网络(noc)。我们将展示这种从普通总线到芯片网络的范式转变如何使上述soc非常有可能。
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Networks on Chips: Scalable interconnects for future systems on chips
According to the International Technology Roadmap for Semiconductors (ITRS), before the end of this decade we will be entering the era of a billion transistors on a single chip. It is being stated that soon we will have a chip of 50-100 nm comprising around 4 billion transistors operating at a frequency of 10 Ghz. Such a development means that in the near future we probably have devices with such complex functions ranging from mere mobile phones to mobile devices controlling satellite functions. But developing such kind of chips is not an easy task as the number of transistors increases on-chip, and so does the complexity of integrating them. Todaypsilas SoCs use shared or dedicated buses to interconnect the communicating on-chip resources. However, these buses are not scalable beyond a certain limit. In this case, the current interconnect infrastructure will become a bottleneck for the development of billion transistor chips. Hence, in this tutorial, we will try to highlight a new design paradigm that has been proposed to counter the inefficiency of buses in future SoCs. This new design paradigm has been termed with a variety of titles, but the most common and agreed upon one is networks on chips (NoCs). We will show that how this paradigm shift from ordinary buses to networks on chips can make the kind of SoCs mentioned above very much possible.
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