16位绝热微处理器的设计

Rene Celis-Cordova, A. Orlov, Tian Lu, J. Kulick, G. Snider
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引用次数: 7

摘要

热产生是现代计算的主要限制因素之一。在本文中,我们探索绝热可逆逻辑,它可以显著降低能量耗散,是未来节能计算的可行实现。我们提出了一种采用90nm技术设计的多周期MIPS架构的16位绝热微处理器。绝热电路采用分离轨电荷恢复逻辑实现,这使得同一电路可以在绝热模式和标准CMOS模式下工作。移位寄存器的仿真表明,与CMOS对应物相比,在绝热模式下工作时,能量耗散可以低得多。我们提出了一个标准单元库,其中包含了构建绝热电路和实现微处理器子系统所需的所有组件。该微处理器的建议工作频率为0.5 GHz,代表了绝热可逆计算的有用实现。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Design of a 16-Bit Adiabatic Microprocessor
Heat production is one of the main limiting factors in modern computing. In this paper, we explore adiabatic reversible logic which can dramatically reduce energy dissipation and is a viable implementation of future energy-efficient computing. We present a 16-bit adiabatic microprocessor with a multicycle MIPS architecture designed in 90nm technology. The adiabatic circuits are implemented using split-rail charge recovery logic, which allows the same circuit to be operated both in adiabatic mode and in standard CMOS mode. Simulations of a shift register show that energy dissipation can be much lower when operating in adiabatic mode compared to its CMOS counterpart. We present a standard cell library with all the necessary components to build adiabatic circuits and implement the subsystems of the microprocessor. The microprocessor has a proposed operating frequency of 0.5 GHz representing a useful implementation of adiabatic reversible computing.
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