Design and Optimization of Sequence Generator Using N-N Transvidkan Gate

Abstract

Nowadays, electronic systems are a significant part of human life. The sophistication and complexity of these systems increase with developing technology. These advancements, however, lead to an increase in power consumption, and reduction in area availability, causing issues related to microchip technology. This is where reversible logic helps in saving power and facilitating zero-power computation. It enables the development of various combinational circuits and sequential circuits. The modified gate diffusion input (MGDI) method is characterized as a new approach bearing a circuit design with a low-power digital combination. This technique lowers propagation latency, power consumption, and transistor size of digital circuits, while keeping the logic architecture simple. A comparison of performance between typical CMOS and different pass transistor logic design methodologies is obtainable. Examples of reversible logic gates are DOUBLE FEYNMAN gate, NOT gate, FEYNMAN gate, etc. This paper performs the transistor-level execution of certain primary reversible gates and discusses the results.

Design of Reconfigurable Logic Block Based Sequential Circuits Using Look Up Table Logics

“…Yinghua, et.al [9] developed the Boolean satisfiability (SAT) attack was an oracleguided attack that can break most combinational logic locking schemes by efficiently pruning out all the wrong keys from the search space. Ramakrishnan, et.al [10] developed Nowadays, electronic systems are a significant part of human life. The sophistication and complexity of these systems increase with developing technology.…”