Apr 11, 2025
10:45am - 11:00am
Summit, Level 4, Room 444
Weiru Chen1,Yihuang Xiong1,Elyse Barré2,Daria Blach2,Leyi Loh3,Yuan Chen3,Kenji Watanabe4,Takashi Taniguchi4,Su Ying Quek3,Eda Goka3,Archana Raja2,Geoffroy Hautier1
Dartmouth College1,Lawrence Berkeley National Laboratory2,National University of Singapore3,National Institute for Materials Science4
Weiru Chen1,Yihuang Xiong1,Elyse Barré2,Daria Blach2,Leyi Loh3,Yuan Chen3,Kenji Watanabe4,Takashi Taniguchi4,Su Ying Quek3,Eda Goka3,Archana Raja2,Geoffroy Hautier1
Dartmouth College1,Lawrence Berkeley National Laboratory2,National University of Singapore3,National Institute for Materials Science4
The availability of optically-active quantum defects is one of the building blocks towards quantum information science applications. Two-dimensional (2D) materials such as transition metal dichalcogenides (TMDs) emerge as a promising platform to host such quantum defects owing to their intrinsic quantum confinement, long expected spin coherence time and strong spin-orbit coupling (SOC). Vanadium doped WSe
2 has been studied for its long-ranged magnetic behaviors and exhibits promising emission signatures for quantum technologies. In this work, we examine the emission peaks in V-doped WSe
2 and its magnetic field response through experimental characterization and use first-principles computations to provide insight for their origins.