Design and implementation of low power and area efficient hybrid AHL multiplier.

Low power and quick processing have become important components of the Microsystems processors that are rapidly developing. In applications involving high-speed digital signal processing, a multiplier is an essential component. The aging problem of transistors has a significant impacted on the performance of these systems, and in the long term, the system may fail due to timing violations. The design of fast and low power multipliers is a significant theoretical and practical concern for scientific researchers. Over-design procedures can decrease the effect of aging, but they result in area and energy inefficiencies. Power dissipation and delays are the primary design problems that arise with multipliers. The design's throughput determines the system's overall performance factor. A low-power and area-efficient hybrid AHL (Adaptive Hold Logic) multiplier is therefore designed and implemented to maximize power consumption while minimizing latency. The multiplier has the ability to achieve high throughput while using less space. The AHL circuit is used to reduce performance degradation caused by the aging effect. By reducing the device count, a dynamo logic style CMOS (Complementary Metal Oxide Semiconductor) circuit can increase speed and reduce design area. Tanner EDA (Electronic Design Automation) tool will be used to implement the Hybrid AHL Multiplier. [ABSTRACT FROM AUTHOR]