Development and Optimization of Frequency Divider in Integrated Circuits Leveraging Transvidkan Gate Architecture

In modern society, electronic systems have become indispensable to daily life. As technology evolves, these systems grow increasingly intricate, leading to challenges such as heightened power demands and reduced physical space for microchip components. Reversible logic addresses these challenges by enabling power- computing and zero-energy dissipation, offering a efficient pathway to design advanced combinational and sequential circuits. Among emerging solutions, the Modified Gate Diffusion Input (MGDI) technique stands out as an innovative strategy for low-power digital circuit design. This method optimizes transistor count, minimizes signal delay, and reduces energy usage without compromising architectural simplicity. Comparative studies between conventional CMOS technology and alternative pass-transistor logic approaches highlight these advantages. Quantum-Inspired Gates, such as the Double Feynman Gate, Feynman Gate, and NOT Gate, exemplify this paradigm shift. This study presents a transistor-level implementation of key Quantum-Inspired Gates and analyzes the experimental outcomes to demonstrate their practical viability. This paper final outcome is analysis of frequency divider circuit.