PHZ 5354     LECTURES				Textbook chapters (Martin&Shaw)	Textbook chapters (Perkins)
	Introduction
	Lecture	1	1	Units. Standard Model. Timeline of 20th century. Questions within and beyond SM.	1.1.0	1.2.1,1.2.3
	Lecture	2	2	Where it all began: discovery of e, p, n, photon.
	Main theoretical concepts
	Lecture	3	3	Relativistic kinematics.	Appendix A	1.1.3
	Lecture	4	4	Quantum Mechanics.		1.3, 1.5
	Lecture	5	5	Perturbation theory. Matrix element. Phase space. Cross section. Lifetime. Breit-Weigner formula.	Appendix B	2.10, 2.11
	Lecture	6	6	Relativistic Quantum Mechanics. Antimatter. Discovery of positron, anti-proton.	1.2.0-2	1.4
	Lecture	7	7	Forces via particle exchange. EM force and photons. Feynman diagrams. Four fundamental forces.	1.1.0, 1.3.1-3, 2.2.0	1.2.2, 2.4-2.9
	Experimental techniques
	Lecture	17	8	Cosmic Rays. First accelerators: Cockcroft+Walton, Van de Graff, cyclotrons, synchrotrons.	3.1.0-1	11.1.*
	Lecture	18	9	New wave of  accelerators: strong focusing, electron and hadron colliders, summary.	3.1.2-3	11.2
	Lecture	19	10	Interaction of particles with matter: charged particles (dE/dx, scintillation, Cherenkov, transition radiation)	3.2.0, 3.2.2, 3.3.4	11.5.1-4
	Lecture	20	11	Interaction of particles with matter: hadron showers, EM showers, photon interactions	3.2.0-1, 3.2.3-4, 3.3.5
	Lecture	21	12	Detectors: tracking; particle momentum; fast response (timing)	1.2.2, 3.3.0-3	11.6
	Lecture	22	13	Detectors: energy; particle identification techniques	3.3.0, 3.3.4-5	11.7
	Lecture	23	14	Two examples of contemporary experiments: CDF, CMS	3.4.2
	Lecture	24	15	Experimentalist basics: signal/background, trigger and cuts, statistical and systematic errors
	Discovery of constituents of matter and fundamental forces
	Lecture	8	16	Search for Yukawa particle. Discovery of muon, pion, neutral pion.	1.4.1-3, 2.1.2	2.2,2.3
	Lecture	9	17	Neutrino: hypothesis, discovery. Antineutrino. Lepton numbers.	2.1.1
	Lecture	10	18	Muon neutrino. Tau-lepton. Tau-lepton neutrino. Lepton universality.	2.1.2-3	7.2
	Lecture	11	19	Strange particles. Resonances.	2.2.2, 2.2.4, 5.3.*	2.11
	Lecture	12	20	Sakata model. 8-fold way. Three quarks. Three colors.	2.2.6, 6.3.0	4.4, 6.1
	Lecture	13	21	Are the quarks real?	2.2.0-1	4.8
	Lecture		22	Visionaries: "discovery" of QED, QCD, ElectroWeak theories; more quarks? Discovery of g, W, Z.	9.1.*	7.11, 7.12, 7.13, 8.3
	Lecture	14	23	More quarks: c, b, t. Are there more generations?	2.2.4, 6.1.2, 8.3.*	4.1.1, 4.1.2, 4.13
	Role of symmetries
	Lecture	15	24	Symmetries, conservation laws and quantum numbers: dt, dx, dphi; P, C, T, CPT, q, B, L, I.	2.2.2, 4.*, 5.1.0-5.2.4, App. D	3.*
	Lecture	16	25	Symmetries, cont'd	same	same
	Three forces in the Standard Model
	Lecture	25	26	Electromagnetic force: charge, photons, loops, renormalization, running alpha, g-2		2.6, 6.5 (+ 5.*)
	Lecture	26	27	Strong force: color charges, gluons, "seeing" gluons, color abacus	6.3.*, 7.1.0	6.1, 6.4
	Lecture	27	28	Strong force: running alpha_s, V(r) at large distances, confinement, non-perturbative QCD	6.1.3, 6.3.1, 7.1.1 (+7.2.*-7.4.*)	6.3, 6.5
	Lecture	28	29	Strong force: V(r) at small distances and asymptotic freedom	6.1.3-7.1.2	6.2
	Lecture	29	30	Strong force: Quark-Gluon Plasma		6.7
	Lecture	30	31	Weak force: CC, P-violation (K- and beta-decays). K0-anti-K0 mixing. Strangeness oscillations. Ks regeneration.	8.2.*, 10.1.*, 10.2.*, 10.2.4-5	7.5, 7.15
	Lecture	31	32	Weak force: discovery of CP-violation, indirect and direct CP-violation, evidence for indirect CP-violation.	10.2.3	7.16, 7.17
	Lecture	32	33	Weak force: quark mixing (GIM, CKM), K-, D-, B-, Bs-oscillations.	8.3.1	7.14, 7.18
	Lecture	33	34	Weak force: CKM parameters and CP violation. Role of B-mesons. B-factories. CP-violation in B-mesons.		7.18
	Lecture	#REF!	35	Electro-Weak unification: Gauge invariance principle. Problem of masses. Higgs mechanism.	9.2.*, Appendix C	8.12
	Lecture	#REF!	36	Electro-Weak unification: where is the Higgs boson?	9.2.3	8.13
	Neutrino revised
	Lecture	#REF!	37	Dirac or Majorana? Mass? Lepton sector mixing and neutrino oscillations?	11.1.*	9.6, 9.7
	Lecture	#REF!	38	Experimental evidence for neutrino oscillations and implications.
	Beyond the Standard Model
	Lecture	#REF!	39	GUT, proton decay, leptoquark searches, monopole searches.	11.2.*	9.2, 9.8
	Lecture	#REF!	40	SUSY, search for SUSY particles, WIMPs	11.3.*	9.1, 9.4
	Lecture	#REF!	41	Strings. Extra dimensions. Micro black holes.		9.9
	Experimental cosmology
	Lecture	42	42	Cosmological constant, dark matter and dark energy, ultra high energy cosmic rays, gravitational waves, etc.	11.4.*	10.7