Modern Elementary Particle Physics

Gordon Kane is Victor Weisskopf Distinguished University Professor at the University of Michigan, Ann Arbor. From 2005 until 2012, he directed the Michigan Center for Theoretical Physics (MCTP), a leading center for the advancement of theoretical physics. In 2012, he received the Lilienfeld Prize from the American Physical Society. Kane is an internationally recognized scientific leader in theoretical and phenomenological particle physics, Higgs physics, supersymmetry, cosmology, dark matter, and theories for physics beyond the Standard Model. In recent years, he has been a leader in string phenomenology. He is a fellow of the American Physical Society, the American Association for the Advancement of Science, and the British Institute of Physics.

'This updated version of the classic textbook serves as a concise and approachable introduction to the foundations of modern particle physics. After covering the basics of the Standard Model and the recently discovered Higgs boson, Kane continues introducing key topics in beyond the Standard Model physics, including Dark Matter and Supersymmetry. Kane is world renowned for his research as a particle physicist, and here he has written a modern and up-to-date introduction to the subject that will be valued by both the first-time student and the experienced researcher.' Scott Watson, Syracuse University, New York

• 1. Introduction; 2. Relativistic notation, Lagrangians, and interactions; 3. Gauge invariance; 4. Non-abelian gauge theories; 5. Dirac notation for spin; 6. The Standard Model Lagrangian; 7. The electroweak theory and quantum chromodynamics; 8. Masses and the Higgs mechanism; 9. Cross sections, decay widths, and lifetimes: W and Z decays; 10. Production and properties of W± and Zᴼ; 11. Measurement of electroweak and QCD parameters: the muon lifetime; 12. Accelerators - present and future; 13. Experiments and detectors; 14. Low energy and non-accelerator experiments; 15. Observation of the Higgs boson at the CERN LHC: is it the Higgs boson?; 16. Colliders and tests of the Standard Model: particles are pointlike; 17. Quarks and gluons, confinement and jets; 18. Hadrons, heavy quarks, and strong isospin invariance; 19. Coupling strengths depend on momentum transfer and on virtual particles; 20. Quark (and lepton) mixing angles; 21. CP violation; 22. Overview of physics beyond the Standard Model; 23. Grand unification; 24. Neutrino masses; 25. Dark matter; 26. Supersymmetry.