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Nuclear and Particle Physics

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Nuclear and Particle Physics

Particle physics (also high energy physics) is the branch of physics that studies the nature of the particles that constitute matter and radiation. Although the word "particle" can refer to various types of very small objects (e.g. protons, gas particles, or even household dust), "particle physics" usually investigates the irreducibly smallest detectable particles and the fundamental interactions necessary to explain their behavior.

Tác giả
Niels Walet
Nhà xuất bản
University of Manchester
Nguồn
LibreTexts
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CC BY-NC-SA
Ngôn ngữ
EN
Danh mục
Khoa học cơ bản
Mục lục· 70 mục
  1. 01: A History of Particle Physics
  2. 1.01: Nobel Prizes in Particle Physics
  3. 1.02: A Timeline of Particle Physics
  4. 1.03: Earliest Stages
  5. 1.04: Fission and Fusion
  6. 1.05: Low-Energy Nuclear Physics
  7. 1.06: Medium-energy Nuclear Physics
  8. 1.07: High-Energy Nuclear Physics
  9. 1.08: Mesons Leptons and Neutrinos
  10. 1.09: The sub-structure of the nucleon (Quantum Chromodynamics)
  11. 1.10: The W W and Z bosons
  12. 1.11: GUTS Supersymmetry and Supergravity
  13. 1.12: Extraterrestrial Particle Physics
  14. 02: Experimental Tools
  15. 2.01: Accelerators
  16. 2.02: Targets
  17. 2.03: Main Experimental Facilities
  18. 2.04: Detectors
  19. 03: Nuclear Masses
  20. 3.01: Experimental Facts
  21. 3.02: Interpretation
  22. 3.03: Deeper Analysis of Nuclear Masses
  23. 3.04: Nuclear mass formula
  24. 3.05: Stability of Nuclei
  25. 3.06: Properties of Nuclear States
  26. 04: Nuclear Models
  27. 4.01: Nuclear Shell Model
  28. 4.02: Collective Models
  29. 4.03: Fission
  30. 4.04: Barrier Penetration
  31. 05: Basic Concepts of Theoretical Particle Physics
  32. 5.01: The Difference Between Relativistic and Non-Relativistic Quantum Mechanics
  33. 5.02: Antiparticles
  34. 5.03: QED - Photon Couples to e⁺e⁻
  35. 5.04: Fluctuations of the Vacuum
  36. 5.05: Infinities and Renormalization
  37. 5.06: The Predictive Power of QED
  38. 5.07: Problems
  39. 06: The Four Fundamental Forces
  40. 6.01: Prelude to the Fundamental Forces
  41. 6.02: Gravity
  42. 6.03: Electromagnetism
  43. 6.04: Weak Nuclear Force
  44. 6.05: Strong Nuclear Force
  45. 07: Symmetries and Particle Physics
  46. 7.01: Importance of Symmetries - Noether’s theorem
  47. 7.02: Lorenz and Poincaré Invariance
  48. 7.03: Internal and Space-Time Symmetries
  49. 7.04: Discrete Symmetries
  50. 7.05: The CPT Theorem
  51. 7.06: CP Violation
  52. 7.07: Continuous Symmetries
  53. 7.08: Symmetries and Selection Rules
  54. 7.09: Representations of SU(3) and Multiplication Rules
  55. 7.10: Broken Symmetries
  56. 7.11: Gauge Symmetries
  57. 08: Symmetries of the theory of strong interactions
  58. 8.01: The First Symmetry - Isospin
  59. 8.02: Strange Particles
  60. 8.03: The quark model of strong interactions
  61. 8.04: SU(4), SU(5), and SU(6) flavor symmetries
  62. 8.05: Color Symmetry
  63. 8.06: The Feynman Diagrams of Quantum Chromodynamics (QCD)
  64. 8.07: Jets and QCD
  65. 09: Relativistic Kinematics
  66. 9.01: Lorentz Transformations of Energy and Momentum
  67. 9.02: Invariant Mass
  68. 9.03: Transformations between CM and lab frame
  69. 9.04: Elastic-inelastic
  70. 9.E: Relativistic kinematics (Exercises)