Electrical and Computer Engineering ETDs
Publication Date
Spring 5-16-2026
Abstract
The fundamental goal of quantum computing is to precisely control quantum systems to perform meaningful tasks, including implementing high-fidelity quantum gates for reliable quantum computation and accurately simulating complex quantum many- body dynamics. In this dissertation, we develop improved quantum control protocols for three distinct objectives, quantum error suppression, quantum optimal control, and analog quantum algorithms, achieving performance beyond standard approaches. First, we introduce new dynamical decoupling protocols, including both determin- istic and randomized constructions, that can substantially outperform conventional deterministic sequences. We then extend the randomized approach to dynamically corrected gates. Second, we propose a randomized quantum optimal control frame- work that offers advantages over deterministic optimal control protocols. Finally, we develop new control protocols for analog quantum algorithms to perform high-order Hamiltonian simulation and learning unknown quantum states.
Keywords
quantum computing, quantum control
Document Type
Dissertation
Degree Name
Computer Engineering
Level of Degree
Doctoral
Department Name
Electrical and Computer Engineering
First Committee Member (Chair)
Milad Marvian
Second Committee Member
Ivan Deutsch
Third Committee Member
Rafael Fierro
Fourth Committee Member
Tameem Albash
Recommended Citation
Kim, Leeseok. "Quantum Control Protocols for Robust Quantum Computing." (2026). https://digitalrepository.unm.edu/ece_etds/776
Included in
Computer Engineering Commons, Controls and Control Theory Commons, Quantum Physics Commons