Quantum simulation
Circuit-based and variational approaches for non-Hermitian Hamiltonians, amplitude damping, non-unitary evolution, and open-system dynamics.
I recently defended my Ph.D. in physics at the University of Georgia. My research focuses on the simulation of open and noisy quantum systems, with interests spanning quantum simulation, quantum error correction, distributed quantum sensing, non-Hermitian dynamics, and algorithms for near-term and future fault-tolerant devices.
Circuit-based and variational approaches for non-Hermitian Hamiltonians, amplitude damping, non-unitary evolution, and open-system dynamics.
Quantum error correction, quantum memory, distributed quantum computing, and algorithms designed for noisy or networked hardware.
Architectural studies connecting distributed sensing, dark matter detection, satellite-based ideas, and hardware-aware noise analysis.
Effective non-Hermitian models for studying post-selection, dissipation, error mitigation, and practical implementation questions.