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Design of Ultralow Voltage-Hybrid Full Adder Circuit Using GLBB Scheme for Energy-Efficient Arithmetic Applications

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TLDR
The obtained results showed that the proposed subthreshold hybrid full adder circuit with GLBB scheme achieves more than 44% savings in delay, 20% Savings in energy consumption, and 55% savings on EDP in comparison with the conventional CMOS configuration and other hybrid counterparts.
Abstract
In recent years, ultra low voltage (ULV) operation is gaining more importance to achieve minimum energy consumption. In this paper, the performance of the gate level body biasing (GLBB) is evaluated in subject to the subthreshold hybrid full adder logic design which employs CMOS logic and Transmission Gate (TG) logic. The performance metrics—energy, power, area, delay, and EDP are calculated and compared with the conventional CMOS (C-CMOS) Full adder. The simulations are performed in cadence at ULV of 200 mV using 90 nm CMOS technology. The obtained results showed that the proposed subthreshold hybrid full adder circuit with GLBB scheme achieves more than 44% savings in delay, 20% savings in energy consumption, and 55% savings in EDP in comparison with the conventional CMOS configuration and other hybrid counterparts.

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Journal ArticleDOI

ASIC implementation of distributed arithmetic based FIR filter using RNS for high speed DSP systems

TL;DR: The results show that the proposed design has very high computation speed with total delay of only 20 ns and occupies 20% less area in comparison with the existing designs.
References
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Proceedings ArticleDOI

Dynamic gate-level body biasing for subthreshold digital design

TL;DR: The proposed Dynamic gate-level body biasing technique is exploited to design a low voltage mirror full-adder that is 2 and 1.3 times faster than its standard CMOS and DTMOS counterparts while maintaining the lowest total energy per operation consumption and robustness against temperature and process variations.
Journal ArticleDOI

Ultra-low-voltage self-body biasing scheme and its application to basic arithmetic circuits

TL;DR: Postlayout simulations demonstrate that the gate level body biasing technique exhibits a significant concurrent reduction of the energy per operation and the delay in comparison to the conventional CMOS and DTMOS approaches.
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