Design and Fabrication of Scalable Quantum Circuits for Quantum Computation

Abstract

Designing and building scalable quantum circuits that can effectively apply quantum algorithms is essential to the quick development of quantum computing technology. With an emphasis on different architectures including superconducting qubits, trapped ions, and topological qubits, this study provides an overview of the state-of-the-art in quantum circuit design as of right now. We go over the fundamentals of designing scalable quantum circuits, stressing the significance of qubit connection, error correction, and coherence maintenance. The study also discusses the sophisticated materials development, lithography, and etching processes used in the construction of these quantum circuits. We hope to shed light on the future of quantum computation and the steps required to create workable, large-scale quantum processors by analyzing recent developments and lingering difficulties in scaling quantum circuits. the vital role that multidisciplinary cooperation plays in closing the gap between theoretical developments and experimental application, which eventually opens the door for the development of reliable quantum computing systems.