Power contracts: A formal way towards power-closure?!

Gregor Nitsche, Kim Grüttner, W. Nebel
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引用次数: 10

Abstract

Since energy consumption continuously becomes a limiting factor for today's microelectronics, power-aware design space exploration won significant importance in the design flows. Being strongly dependent on future design decisions and low-level parameters, the challenge results, how to derive power estimates from uncertain knowledge about later implementation details. For that purpose, high-level approaches are available, which either perform top-down synthesis and a power characterization of the concrete low-level system or re-use abstract characteristics of high-level components to derive power models and to calculate the power consumption of the composed system. Hence, these approaches suffer either performance or accuracy, due to the tradeoff between generating and considering implementation details respectively due to the inaccuracy of abstractions. Additionally, reliability of such estimations is uncertain, since system and component power models lack general validity and a traceable provability within the composed, extra-functional design space of power, function and time. To address this lack of power-closure, this paper suggests power contracts to formalize power properties and as a foundation for a more traceable, provable and thus reliable power-aware design flow. For that purpose, we introduce the formal basics of contract-based design, discuss their improvements within the design flow and propose their application within the domain of power, giving an outlook on a formal way towards power-closure.
权力合同:权力关闭的正式方式?!
由于能耗不断成为当今微电子的限制因素,功耗感知设计空间的探索在设计流程中具有重要意义。由于高度依赖于未来的设计决策和底层参数,因此挑战的结果是,如何从关于以后实现细节的不确定知识中得出功率估计。为此,可以使用高级方法,它们执行自顶向下的综合和具体的低级系统的功率特性,或者重用高级组件的抽象特性来派生功率模型并计算组合系统的功耗。因此,由于抽象的不准确性,在分别生成和考虑实现细节之间进行权衡,这些方法要么在性能上受损,要么在准确性上受损。此外,这种估计的可靠性是不确定的,因为系统和组件功率模型在功率、功能和时间组成的功能外设计空间中缺乏一般有效性和可追溯的可证明性。为了解决这种缺乏电源封闭的问题,本文建议使用电源合同来形式化电源属性,并作为更可追溯、可证明和更可靠的电源感知设计流程的基础。为此,我们介绍了基于合同的设计的正式基础,讨论了它们在设计流程中的改进,并提出了它们在权力领域中的应用,展望了实现权力关闭的正式方式。
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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