University of Connecticut - Storrs, CT
Introduction to quantum theory, wave functions, Schrödinger equation, quantum states, uncertainty principle, and one-dimensional systems including harmonic oscillator and hydrogen atom.
Advanced quantum mechanics covering angular momentum, spin, perturbation theory, variational methods, scattering theory, and applications to multi-electron atoms and molecules.
Light-matter interactions, coherent states, quantum entanglement, and applications in quantum information processing.
Special relativity, atomic structure, nuclear physics, particle physics fundamentals, and introduction to quantum mechanics.
Historical evolution of quantum theory from blackbody radiation through modern quantum field theory, examining key experiments and theoretical breakthroughs that shaped our understanding of the quantum world.
Electrostatics, Gauss's law, electric potential, capacitance, dielectrics, current, resistance, and DC circuits. Introduction to magnetic fields and forces.
Magnetostatics, Ampere's law, electromagnetic induction, Maxwell's equations, electromagnetic waves, AC circuits, and introduction to relativistic electrodynamics.
Newtonian mechanics, conservation laws, oscillations, central force problems, and introduction to analytical mechanics.
Advanced Lagrangian and Hamiltonian formulations, rigid body dynamics, normal modes, chaos theory, and nonlinear dynamics.
Laws of thermodynamics, entropy, statistical ensembles, partition functions, and applications to physical systems.
Seismology, Earth's internal structure, geodynamics, plate tectonics, mineral physics under extreme conditions, and planetary interior modeling.
Stellar structure and evolution, nuclear processes in stars, stellar atmospheres, binary systems, and observational astronomy techniques.
Galactic dynamics, cosmology, dark matter and dark energy, galaxy formation, active galactic nuclei, and the large-scale structure of the universe.
Geometrical and physical optics, interference, diffraction, polarization, and modern optical instruments.
Laser principles, cavity design, mode structure, Q-switching, mode-locking, and laser applications.
Complex analysis, differential equations, linear algebra, group theory, and tensor calculus for physics applications.
Numerical methods, Monte Carlo simulations, molecular dynamics, and computational solutions to physics problems.
Ordinary and partial differential equations, boundary value problems, numerical solutions, and applications in physics and engineering.
Vector spaces, linear transformations, eigenvalues and eigenvectors, matrix decompositions, and applications to quantum mechanics and data analysis.
Programming fundamentals in C/C++ and MATLAB, numerical methods, data structures, algorithms, and computational problem-solving for scientific applications.
Descriptive statistics, probability distributions, hypothesis testing, confidence intervals, regression analysis, and statistical software applications.
Probability theory, random variables, expectation, variance, distributions, limit theorems, and stochastic processes with physics applications.
Advanced experimental techniques including nuclear physics, solid state physics, and modern optics experiments.
Circuit design, analog and digital electronics, instrumentation, and data acquisition systems.
Measurement techniques, instrument calibration, experimental design, and scientific methodology.
Investigated novel quantum materials including topological insulators, superconductors, and 2D materials. Studied their electronic properties, quantum phase transitions, and potential applications in quantum computing and sensing technologies.
Developed computational models to simulate the dynamics of cold molecular beams, analyzing velocity distributions, collision rates, and cooling efficiency using Monte Carlo methods. Applied results to optimize molecular beam experiments for precision spectroscopy.
Conducted an experimental and theoretical study on Electromagnetically Induced Transparency (EIT) in atomic systems, investigating the interaction between light and matter in a three-level atom using quantum optics principles. This research explored the coherent control of light propagation through atomic media, demonstrating slow light phenomena and potential applications in quantum information storage.
Key Achievements:
View the official Bachelor of Science in Physics diploma from University of Connecticut.
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