Learn · Introduction to Nuclear and Particle Physics
Lecture 22 of 67Chapter 3. Feynman Calculus
Lecture 3.3: Toy Theory (05:42)
Prof. Markus Klute · Massachusetts Institute of Technology
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- Introduction to Nuclear and Particle Physics, Massachusetts Institute of Technology (at MIT OpenCourseWare)
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- CC BY-NC-SA 4.0, as MIT OpenCourseWare states it. Non-commercial use only.
- Attribution
- Prof. Markus Klute. Introduction to Nuclear and Particle Physics. Fall 2020. Massachusetts Institute of Technology: MIT OpenCourseWare, https://ocw.mit.edu/. License: Creative Commons BY-NC-SA.
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All the lectures
- Lecture 0.1: Course Overview (05:58)
- Lecture 0.2: Course Organization (04:01)
- Lecture 0.3: Teaching Staff (04:24)
- Lecture 0.4: Literature (03:34)
- Lecture 0.5: Early History and People in Nuclear and Particle Physics (16:01)
- Lecture 0.6: Particles (14:00)
- Lecture 0.7: Units (05:48)
- Lecture 0.8: Relativistic Kinematics (15:21)
- Lecture 0.9: Spin (05:05)
- Lecture 1.1: Quantum Field and Matter (07:04)
- Lecture 1.2: Feynman Diagram (05:54)
- Lecture 1.3: Ranges of Forces (05:29)
- Lecture 1.4: Decays (07:37)
- Lecture 1.5: Reactions (03:54)
- Lecture 2.1: Introduction (07:15)
- Lecture 2.2: Flavor Symmetry (06:50)
- Lecture 2.3: Parity (04:29)
- Lecture 2.4: Charge Conjugation (02:30)
- Lecture 2.5: CP (11:17)
- Lecture 3.1: Introduction (02:18)
- Lecture 3.2: Fermi's Golden Rule (06:37)
- Lecture 3.3: Toy Theory (05:42)
- Lecture 3.4: Higher-Order Diagrams (03:30)
- Lecture 3.5: Divergency (06:33)
- Lecture 4.1: Free Wave Equation (05:38)
- Lecture 4.2: Dirac Equation Solutions (06:04)
- Lecture 4.3: Antiparticles (03:04)
- Lecture 4.4: Photon (07:47)
- Lecture 4.5: Feynman Rules for QED (05:51)
- Lecture 4.6: Examples (04:22)
- Lecture 4.7: Casimir's Trick (10:24)
- Lecture 4.8: Cross Sections (06:50)
- Lecture 4.9: Renormalization and Higher-Order QED Diagrams (04:43)
- Lecture 4.10: Noether's Theorem (05:22)
- Lecture 5.1: Hadron Production (09:27)
- Lecture 5.2: Elastic Electron-Positron Scattering (06:49)
- Lecture 5.3: Feynman Rules in QCD (05:50)
- Lecture 5.4: Deep Inelastic Scattering (09:51)
- Lecture 5.5: Asymptotic Freedom (06:53)
- Lecture 5.6: Hadron Collider (03:55)
- Lecture 6.1: Feynman Rules (09:44)
- Lecture 6.2: Electroweak Unification (09:25)
- Lecture 6.3: Pion Decay (07:50)
- Lecture 6.4: Quarks (09:17)
- Lecture 6.5: Neutral Current (02:19)
- Lecture 7.1: Higgs Mechanism (13:24)
- Lecture 7.2: Fermion Masses (03:42)
- Lecture 7.3: Production and Decay (05:35)
- Lecture 7.4: Current Status (08:13)
- Lecture 8.1: In the Standard Model (05:04)
- Lecture 8.2: Mass (05:15)
- Lecture 8.3: Mixing (05:37)
- Lecture 8.4: Experimental Study (11:11)
- Lecture 8.5: Results of Neutrino Oscillation Experiments (05:36)
- Lecture 8.6: Mass Scale and Nature (07:21)
- Lecture 9.1: Introduction (05:26)
- Lecture 9.2: Binding Energies (09:31)
- Lecture 9.3: Stability (10:22)
- Lecture 9.4: Nuclear Force (09:18)
- Lecture 9.5: Shell Model (06:31)
- Lecture 9.6: Gamma Decay (04:42)
- Lecture 9.7: Fission (05:26)
- Lecture 9.8: Fusion (09:26)
- Lecture 10.1: Particle Interaction with Matter (17:13)
- Lecture 10.2: Tracking Detectors (09:26)
- Lecture 10.3: Calorimetry (06:24)
- Lecture 10.4: Accelerators (23:57)