NOC:Foundations of Quantum Theory: Relativistic Approach

Lecture 1 - Perturbation theory 1.1

Lecture 2 - Perturbation theory 1.2

Lecture 3 - Perturbation theory 1.3

Lecture 4 - Perturbation theory 1.4

Lecture 5 - Time dependent perturbation theory 1.1

Lecture 6 - Time dependent perturbation theory 1.2

Lecture 7 - Time dependent perturbation theory 1.3

Lecture 8 - Special Relativity 1.1

Lecture 9 - Special Relativity 1.2

Lecture 10 - Special Relativity 1.3

Lecture 11 - Relativistic Quantum Mechanics 1.1

Lecture 12 - Relativistic Quantum Mechanics 1.2

Lecture 13 - Relativistic Quantum Mechanics 1.3

Lecture 14 - Relativistic Quantum Mechanics 1.4

Lecture 15 - Quantum Field Theory 1.1

Lecture 16 - Quantum Field Theory 1.2

Lecture 17 - Quantum Field Theory 1.3

Lecture 18 - Quantum Field Theory 1.4

Lecture 19 - Quantum Field Theory 2.1

Lecture 20 - Quantum Field Theory 2.2

Lecture 21 - Quantum Field Theory 2.3

Lecture 22 - Spinor Field quantization 1.1

Lecture 23 - Spinor Field quantization 1.2

Lecture 24 - Spinor Field quantization 1.3

Lecture 25 - Spinor Field quantization 1.4

Lecture 26 - Electromagnetic Field Quantization 1.1

Lecture 27 - Electromagnetic Field Quantization 1.2

Lecture 28 - Electromagnetic Field Quantization 1.3

Lecture 29 - Quantum Fields expectation

Lecture 30 - Quantum Field Coherent State

Lecture 31 - Thermal Fields 1.1

Lecture 32 - Thermal Fields 1.2

Lecture 33 - Matter-Field interaction 1.1

Lecture 34 - Matter-Field interaction 1.2

Lecture 35 - Matter-Field interaction 1.3

Lecture 36 - Atom-Field Coupling

Lecture 37 - Excitation of atom through field interaction

Lecture 38 - Spontaneous and Stimulated emission

Lecture 39 - Lindblad Master Equation

Lecture 40 - Relativistic corrections in transitions

Lecture 41 - Change in atomic characteriscs via field interaction

Lecture 42 - Shift in eigen energies via field interaction