Rene Celis-Cordova, A. Orlov, Tian Lu, J. Kulick, G. Snider
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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.