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Last update: T_KVOF (15.05.2001)
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Last update: T_KVOF (28.03.2008)
A last part of the basic physics course. Offers basics of both experimental and theoretical physics of the atomic nucleus and elementary particles together with applications. |
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Last update: prof. RNDr. Tomáš Davídek, Ph.D. (18.10.2023)
Zápočet je udělen za napsání zápočtové písemky alespoň na 65% bodů. Docházka není povinná, ale silně doporučená. Zápočet je podmínkou zápisu ke zkoušce. Zkouška je ústní, může zahrnovat i prezentaci řešení zadaného problému či úlohy. |
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Last update: doc. RNDr. Helena Valentová, Ph.D. (12.01.2018)
T. Davídek, R. Leitner: Elementární částice od prvních objevů po současné experimenty, MatfyzPress 2012 D.Nosek, Jádra, částice a experiment, MatfyzPress, 2013 (úlohy) W. S. C. Williams: Nuclear and Particle Physics, Oxford University Press 1991 R. N. Cahn, G. Goldhaber: The Experimental Foundations of Particle Physics. Cambrigde University Press 1989 a další vydání D. Griffiths: Introduction to elementary particles, J. Wiley NY1987 Povh, Rith, Scholz, Zetschke: Particles and Nuclei, Springer 2015 The Review of Particle Physics, C. Patrignani et al. (Particle Data Group), Chin. Phys. C, 40, 100001 (2016) and 2017 update (a další vydání) Particle Data Group Welcome Page, http://pdg.lbl.gov Webové stránky nobelovské nadace, https://www.nobelprize.org/ (nobelovské přednášky) |
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Last update: T_KVOF (28.03.2008)
přednáška + cvičení |
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Last update: T_KVOF (23.05.2003)
Scales characteristic for the nuclear and particle physics (typical lengths, energies, time intervals, particle rest masses, . .). Fundamental experiments providing information on nuclei and particles (the idea of scattering experiments, Rutherford experiment ...). Basic theoretical tools for the description of nuclei and particles (special relativity, quantum theory).
Basic nuclear properties: binding energy, energy levels, properties of nuclear forces and status of their understanding, nuclear models.
Nuclear decay and reactions (conservation laws, emitted particles, the decay law, the cross section, mechanisms of different decays, different forces and interactions)
Nuclear reactions important for energy production (fission and fusion, reactors, bombs and stars)
Interaction of particles with matter (from low to high energies), detection (also track detectors) and applications (in technology and medicine).
Elementary particles: From most frequent (e, p) with breaking experiments and ideas towards the particles more difficult to see (antiparticles, neutron, neutrinos, mesons, resonances, quarks, intermediate boson, Higgs boson). Roles of different particles in nature, their systematic, quantum numbers and their conservation or nonconservation in different interactions. Brief information on quantum field theory (used quantities, perturbative and nonperturbative calculations, Feynman diagrams). Unified theories.
Some more details: Quantum chromodynamics and Electroweak theory as components of the "Standard model" (What is a model, what is a theory, the path towards a dynamics, why we cannot see quarks, how many quarks are there, how many neutrino species are there, why to look for the Higgs boson, ...)
Principles of accelerators (electrostatic, linear, circular, colliding beams). Current and planned accelerators in the world, complex detector systems on their beams.
Particles in early Universe and now.
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