Low-power design techniques for high-performance CMOS adders
IEEE Transactions on Very Large Scale Integration (VLSI) Systems
Performance analysis of low-power 1-Bit CMOS full adder cells
IEEE Transactions on Very Large Scale Integration (VLSI) Systems
Low Power Digital CMOS Design
Low-Power Digital VLSI Design Circuits and Systems
Low-Power Digital VLSI Design Circuits and Systems
A Novel Low Power Energy Recovery Full Adder Cell
GLS '99 Proceedings of the Ninth Great Lakes Symposium on VLSI
Two new low-power Full Adders based on majority-not gates
Microelectronics Journal
IEEE Transactions on Very Large Scale Integration (VLSI) Systems
CMOS Digital Integrated Circuits Analysis & Design
CMOS Digital Integrated Circuits Analysis & Design
A novel low-power full-adder cell for low voltage
Integration, the VLSI Journal
A review of 0.18-µm full adder performances for tree structured arithmetic circuits
IEEE Transactions on Very Large Scale Integration (VLSI) Systems
On the Reliability of Majority Gates Full Adders
IEEE Transactions on Nanotechnology
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This paper presents a comparative study of high-speed and low-voltage full adder circuits. Our approach is based on hybrid design full adder circuits combined in a single unit. A high performance adder cell using an XOR-XNOR (3T) design style is discussed. This paper also discusses a high-speed conventional full adder design combined with MOSCAP Majority function circuit in one unit to implement a hybrid full adder circuit. Moreover, it presents low-power Majority-function-based 1-bit full addersthat use MOS capacitors (MOSCAP) in its structure. This technique helps in reducing power consumption, propagation delay, and area of digital circuits while maintaining low complexity of logic design. Simulation results illustrate the superiority of the designed adder circuits over the conventional CMOS, TG, and hybrid adder circuits in terms of power, delay, power delay product (PDP), and energy delay product (EDP). Postlayout simulation results illustrate the superiority of the newly designed majority adder circuits against the reported conventional adder circuits. The design is implemented on UMC0.18 µm process models in Cadence Virtuoso Schematic Composer at 1.8 V single-ended supply voltage, and simulations are carried out on Spectre S.