Given by Lect. Burak Yedierler, the course Phys 331 - Electromagnetic Theory I includes the following topics in order: 

• Mathematical Review. Differential Calculus, Integral Calculus, Orthogonal Curvilinear Coordinates, Dirac Delta Function

• Electrostatics. Electric Potential, Work and Energy, Conductors

• Special Techniques. Uniqueness Theorems, Method of Images, Separation of Variables, Multipole Expansion

• Electric Fields in Matter. Polarisation, Electric Displacement, Linear Dielectrics

• Magnetostatics. Biot-Savart Law,  Vector Potential, Auxiliary Field, Magnetic Susceptibility and Permeability

• Electrodynamics. Induction, Energy in Magnetic Fields

Given by Prof. Gürsevil Turan, the course Phys 335 - Classical Mechanics I includes the following topics in order:

• Newtonian Mechanics. Equations of Motion for a Particle, Conservation Theorems

• Oscillations. Undamped, Damped, and Driven Oscillations

• Central Force Motion. Orbits, Planetary Motion, Orbital Dynamics

• Dynamics of Systems of Particles. Elastic Collisions, Inelastic Collisions, Scattering Cross Sections, Rutherford Scattering

• Motion in Non-Inertial Frames. Motion Relative to Earth

There is a typo on the cover of this notebook. The cover should read Phys 335 and not Phys 331. I kept mixing these two even until the end of the semester. 

Given by Prof. Gürsevil Turan, the course Phys 300 - Quantum Physics includes the following topics in order:

• Historical Review. Blackbody Radiation, Photoelectric Effect, Atomic Spectra, Wave Nature of Particles

• The Wave Function. Statistical Interpretation, Average Values, Heisenberg Uncertainty Principle

• Schrödinger's Equation. Particle in a One Dimensional  Infinite Box 

• Quantum Simple Harmonic Oscillator. Raising and Lowering Operators, Algebraic and  Analytical Solutions

• Free Particle

• Delta Function Potential. Reflection and Transmission

• Finite Square Well. Ramsauer-Townsend Effect, Quantum Tunneling, Step Potential

• Dirac Formalism. Bra-Ket Notation, Hermitian Operators, Determinate States, Continuous Spectra, Generalised Uncertainty Principle, Matrix Representations

The last topic of the course is special relativity. As I took the course Phys 481 - Special Relativity in the previous semester, I did not attend the last several lectures. For notes on Special Relativity, see the lecture notes on the Elective Courses page. Given by Lect. Burak Yedierler, the course Phys 332 - Electromagnetic Theory II includes the following topics in order: 

• Conservation Laws. Poynting Vector, Maxwell Stress Tensor

• Electromagnetic Waves. Waves in Dielectric Media, Reflection and Refraction, Electromagnetic Waves in Conductors, Dispersion

• Guided Waves. Rectangular Wave Guide, Coaxial Transmission Line

• Potentials and Fields. Retarded Potentials 

• Radiation. Power Radiated by Point Charges

• Special Relativity. Lorentz Transformations, Four-Vectors, Tensors, Covariant Formalism of Electromagnetism, the Field Strength Tensor

Given by Prof. Gürsevil Turan, the course Phys 336 - Classical Mechanics II includes the following topics in order: 

• Calculus of Variations. Euler-Lagrange Equation, Functionals with Several Dependent Variables

• Lagrangian Dynamics. Hamilton's Principle, Action, Generalised Coordinates, Degrees of Freedom, Undetermined Multipliers

• Conservation Theorems Revisited. Noether's Theorem, Hamiltonian

• Hamiltonian Dynamics. Canonical Equations of Motion, Canonical Transformations, Poisson Brackets

• Dynamics of Rigid Body Motion. Moment of Inertia Tensor, Angular Momentum, Principle Axes of Inertia, Steiner's Parallel Axis Theorem, Rigid Body Dynamics, Eulerian Angles, Motion of a Symmetric Top, Stability of Rigid Body Rotations