Theoretical Physicist | Quantum Computing | Scientific Computing
I'm a theoretical physicist with an MSc in Theoretical Physics from the University of Göttingen, Germany, specializing in numerical methods, quantum physics, and computational modeling.
My research focused on false vacuum decay using semiclassical and stochastic approaches, combining analytical techniques with numerical simulations.
I'm currently expanding my work in quantum computing, particularly quantum algorithms, variational quantum optimization, quantum simulation, and noise modeling.
- Programming: Python, NumPy, SciPy, Matplotlib
- Quantum Computing: Qiskit, quantum circuits, quantum algorithms, VQE, quantum optimization, quantum noise simulation, entanglement characterization
- Scientific Computing: Numerical linear algebra, differential equations, Monte Carlo methods, optimization
- HPC: Linux, SLURM, parallel computing
- Tools: Git, GitHub, Jupyter Notebook, VS Code
- Quantum algorithms and variational quantum computing
- Quantum simulation and optimization
- Quantum noise, error mitigation, and error correction
- High-performance scientific computing
- Computational quantum physics
Quantum Computing
- Variational Quantum Eigensolver (VQE) — Two-qubit Hamiltonian simulation, variational optimization, and noise analysis using Qiskit.
- Quantum Entanglement and Noise Analysis — Bell-state simulations, quantum noise channels, fidelity, purity, and concurrence.
- Quantum Communication — Quantum teleportation and superdense coding using Qiskit.
Computational Physics
- Semiclassical and Stochastic Vacuum Decay — MSc thesis research comparing semiclassical and stochastic approaches to false vacuum decay.
- Molecular Dynamics — Lennard-Jones particle simulations using periodic boundary conditions and Velocity Verlet integration.
- Ising Model — Monte Carlo simulation of spin systems using the Metropolis algorithm.
- GitHub: Ata-Azizi
- Location: Göttingen, Germany