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Bridging Physics and Engineering: Quantum EDA for Superconducting Qubits and Amplifiers
DescriptionAs quantum computing continues to advance, superconducting qubits have emerged as a leading platform due to their scalability and strong compatibility with microwave engineering. At the same time, quantum amplifiers are essential for enabling high fidelity readout by amplifying fragile quantum signals while minimizing added noise. Designing these systems, however, remains challenging due to tight performance margins, dense integration, cryogenic operation, and complex interactions between electromagnetic, circuit, and quantum effects. In this talk, I discuss how Quantum EDA techniques—tailored to the unique requirements of superconducting quantum circuits—can help bridge physics driven design and scalable engineering practice. I will highlight how EM and eigenmode analysis, automated quantum parameter extraction, and nonlinear circuit co simulation can be combined to guide the design and optimization of qubits, readout resonators, and quantum amplifiers within a unified workflow. These approaches illustrate how Quantum EDA can accelerate development toward robust and scalable superconducting quantum systems.