Hardware implementation to realize the potential of quantum computing. At the center, our team specialize and focus on the following subjects: - New materials and decoherence physics - 3D architectures and integration techniques

Hardware implementation of superconducting quantum computers.

My PhD research focus on strongly correlated thin-film oxide materials. Specifically, I work on developing the fundamental understanding of structure-property relationships in perovskite oxides and emergent phenomena at oxide heterostructure interfaces. • Led an international research program on novel materials for superior energy conversion devices; initiated and led collaboration of 20 researchers from 4 domestic and 2 international institutes. • Studied the detailed structure-transport correlation in perovskite ionic conductors, and realized the enhancement of ionic conductivity via optimal structural design• Designed and set up the first high-temperature ambient electrochemical measurement platform in the group for reliable probing of charge-transport and electrocatalytic activity in thin-films.• Revealed the effect of surfaces atomic structures of perovskite oxides on oxygen evolution activity.• Initiated and designed studies on point-defect engineering of the ground states and emerging functionalities in perovskite ferroelectric/antiferroelectric thin-film materials.• Designed and conducted studies on controlling magnetic and electrical response in oxide thin films via interfacial engineering over crystal symmetry and lattice distortion.

• Investigated the synthesis and fabrication of ferrite-perovskite all-oxide spin-valve devices• Led study on the growth-induced evolution of physical property of perovskite manganites thin films