| Note
Link |
Note
Subject |
Textbook
Sections (Martin & Shaw) |
| Introduction |
||
| Note 01 |
Natural Units. Standard Model Summary | 1.1, 1.5; Appendix E |
| Note 02 | Relativistic Kinematics (1) |
Appendix A |
| Note 03 | Relativistic Kinematics (2) | Appendix A |
| Note 04 | Quantum Mechanics |
(none) |
| Note 05 | Main experimental observables:
cross section and decays (lifetime, width, branching ratio) |
Appendix B (B1-B3) |
| Note 06 | Theorist talking: cross sections (matrix element, phase space) | 1.3, 1.4; Appendix B (B4-B5) |
| Note 07 | Theorist talking: decays and
resonances |
1.3, 1.4; Appendix B (B4-B5) |
| Note 08 | Theorist talking: exchange with particles and Feynman diagrams | 1.3, 1.4; Appendix B (B4-B5) |
| Experimental
techniques |
||
| Note 09 | Sources of high energy particles |
3.1 |
| Note 10 |
Interactions of particles with
matter |
3.2 |
| Note 11 | Detectors |
3.3 |
| Note 12 |
Examples of contemporary
experiments |
3.4 |
| Note 13 |
Experimentalist basics: signal/background, trigger and cuts, statistical and systematic errors | |
| Discovery of
constituents of matter and fundamental forces |
||
| Note 14 | Where it all began: discovery of
e, p, n, γ. |
(none) |
| Note 15 | Relativistic Quantum Mechanics.
Antimatter. Discovery of positron, anti-proton. |
1.2 |
| Note 16 | Search for Yukawa particle.
Discovery of muon, pion, neutral pion. |
1.4; 2.2.3 |
| Note 17 | Neutrino: hypothesis, discovery.
|
2.1 |
| Note 18 | Antineutrino. Lepton numbers.
Muon neutrino. Tau-lepton and tau-neutrino. Lepton universality. |
2.1 |
| Note 19 | Strange particles. Resonances. |
2.2, 5 and 6 |
| Note 20 |
Three quarks. Three colors. Are
the quarks real? |
|
| Note
21 |
Visionaries: "discovery" of QED, QCD, ElectroWeak theories. Discovery of g, W, Z. Do we need more quarks? | 7, 8 |
| Note 22 | More quarks: c, b, t. Are there
more generations? |
3.4.1, 6.1 |
| Three
forces in the Standard Model |
||
| Note 21 | Role of symmetries |
|
| Note 22 | Electromagnetic force: charge,
photons, loops, renormalization, running α, g-2 |
|
| Note 23 |
Strong force: color charges,
gluons, running αs, V(r) at large distances,
confinement |
|
| Note 24 |
Strong force: V(r) at small
distances and asymptotic freedom |
|
| Note 25 |
Weak force: CC, P-violation (K-
and β-decays). K0-anti-K0 mixing. Strangeness
oscillations. Ks
regeneration. |
|
| Note 26 |
Weak force: discovery of
CP-violation, indirect and direct CP-violation, evidence for indirect
CP-violation. |
|
| Note 27 |
Weak force: quark mixing (GIM,
CKM), K-, D-, B-, Bs-oscillations. |
|
| Note 28 |
Weak force: CKM parameters and
CP violation. Role of B-mesons. B-factories. CP-violation in B-mesons. |
|
| Note 29 |
Weak force: neutrino masses and
oscillations |
|
| Note 30 |
Electro-Weak unification: Gauge
invariance principle. Problem of masses. Higgs mechanism. |
|
| Note 31 | Where is the Higgs boson? |
|
| Beyond the Standard Model | ||
| Note 32 |
GUT, proton decay, leptoquark
searches, monopole searches. |
|
| Note 33 |
SUSY, search for SUSY particles,
WIMPs |
|
| Note 34 |
Strings. Extra dimensions. Micro
black holes. |
|