syllabus, homework, solutions, notes
Lecture 1 (8/24): Housekeeping
Lecture 2 (8/26): Radiations, interactions, matter
Lecture 3 (8/28): Atomic and nuclear physics, applications
Lecture 4 (8/31): Quantum mechanics, math
Lecture 5 (9/2): Quantum mechanics historical background and experiments
Lecture 6 (9/9): Wave-particle duality
Lecture 7 (9/11): Operator and Schrodinger equation
Lecture 8 (9/14): Born rule, statistical interpretation
Lecture 9 (9/16): Separation of variables, time-independent Schrodinger equation
Lecture 11 (9/21): 1D Infinite Square Well
Lecture 12 (9/23): Uncertainty principle
Lecture 13 (9/28): Nuclear properties
Lecture 14 (9/30): Charge and mass distributions of nuclei
Lecture 15 (10/5): Binding Energy
Lecture 16 (10/7): Q value and separation energy
Lecture 17 (10/12): Semi-emperical mass formula
Lecture 18 (10/14): Nuclear Force
Lecture 19 (10/19): 3D Schrodinger equation
Lecture 20 (10/21): Deuteron structure
Lecture 21 (11/2): Neutron-proton scattering
Lecture 21 (11/4): Nuclear shell model
Lecture 22 (11/9): Interaction of neutron with matter: introduction
Lecture 23 (11/11): Kinematics of two-body interaction, Q equation
Lecture 24 (11/16): Energy distribution of scattered neutrons
Lecture 25 (11/18): Angular distribution of scattered neutrons
Lecture 26 (11/18): Approximations made on neutron scattering
Lecture 27 (11/30): Interaction of photon with matter: introduction
Lecture 28 (12/2): Compton scattering
Lecture 29 (12/2): Klein-Nishina cross section: angular and energy distributions
Lecture 30 (12/4): Photoelectric effect
Lecture 31 (12/4): Pair production
Lecture 32 (12/4): Interaction of photon with matter: summary
Lecture 33 (12/7): Interaction of charged particle with matter: introduction
Lecture 34 (12/7): Stopping power
Lecture 35 (12/9): Bremsstrahlung radiation, Cherenkov radiation, range, Bragg curve