Published in IEEE Transactions on Applied Superconductivity, 2025.
This paper documents research I conducted at Commonwealth Fusion Systems on radiation damage to the fiber-optic quench detection system in the SPARC tokamak Read more
Published in Superconductor Science and Technology, 2024.
This paper is a review of Commonwealth Fusion Systems’ work on developing superconducting cables for pulsed magnets, in particular the Central Solenoid and Poloidal Field magnets of the SPARC tokamak. Read more
Published in IEEE Transactions on Applied Superconductivity, 2024.
This paper documents research I conducted at Commonwealth Fusion Systems on radiation damage to the fiber-optic quench detection (QD) system in the SPARC tokamak. Read more
Published in Journal of Applied Physics, 2023.
This paper documents research I conducted at Commonwealth Fusion Systems (CFS) on radiation damage to the fiber-optic quench detection (QD) system in the SPARC tokamak, in collaboration with CFS’ collaborators at the Robinson Research Institute. Read more
Published in APS March Meeting Abstracts, 2021.
I contributed to this presentation as an undergratuate researcher in the Devoret Group at Yale. My main contribution was assembling the room-temperature microwave circuitry required to implement and measure the gate. Read more
Published in APS March Meeting Abstracts, 2021.
I contributed to this presentation as an undergratuate researcher in the Devoret Group at Yale. My main contribution was a set of simulation codes using QuTip to estimate the fidelity of the applied gate in response to control errors. Read more
US Patent #WO2024173669A1, filed 2022.
This patent describes the quench detection system I helped develop for the pulsed magnets in the SPARC tokamak. Read more
US Patent #US20240337805A1, filed 2022.
We filed this patent based on research I conducted on the use of photobleaching to mitigate radiation induced attenuation in optical fibers. Read more