Reliable & Efficient Quantum Computing Systems
I develop system-level methods for performance and reliability modeling, workload management, runtime optimization, and noise-aware execution on real and emerging quantum platforms.
My research focuses on building practical, reliable, and scalable quantum computing systems. I work across quantum computing systems, design automation, variational quantum algorithms, and quantum machine learning to improve how quantum applications are designed, evaluated, and executed on emerging platforms.
Emerging interests: distributed quantum computing and quantum computing for scientific discovery, including healthcare and life sciences.

My work connects system-level reliability and optimization with quantum circuit design, algorithms, and emerging scientific applications.
I develop system-level methods for performance and reliability modeling, workload management, runtime optimization, and noise-aware execution on real and emerging quantum platforms.
I study automated approaches for designing and optimizing quantum circuits and applications, with an emphasis on design automation, variational quantum algorithms, and quantum machine learning.
I am expanding toward distributed and heterogeneous quantum computing, scalable quantum workflows, and scientific applications including healthcare and life sciences.
I am currently exploring distributed and heterogeneous quantum computing, reliable quantum systems, and quantum computing for scientific discovery. I welcome motivated students interested in quantum computing, quantum systems, quantum algorithms, and machine learning to reach out about potential research opportunities.