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Phenomenology Tim M.P . Tait University of California, Irvine - PowerPoint PPT Presentation

Phenomenology Tim M.P . Tait University of California, Irvine Snowmass July 29, 2013 Phenomenology Formal Theory Particle Theory Phenomenology QCD Formal Theory Particle Theory Phenomenology Lattice QCD Formal Theory Particle


  1. Phenomenology Tim M.P . Tait University of California, Irvine Snowmass July 29, 2013

  2. Phenomenology Formal Theory Particle Theory

  3. Phenomenology QCD Formal Theory Particle Theory

  4. Phenomenology Lattice QCD Formal Theory Particle Theory

  5. Phenomenology Lattice QCD Neutrinos Formal Theory Particle Theory

  6. Phenomenology Lattice QCD Neutrinos Cosmology (and DM) Formal Theory Particle Theory

  7. Phenomenology Lattice QCD Neutrinos Model Building Cosmology (and DM) Formal Theory Particle Theory

  8. Working Definition • As a working definition for this presentation, I’m going to consider Lattice phenomenology the parts of theory Model which interact directly with Building Cosmology experiments. (and DM) • This could be either something like: • Phenomenology A suggestion for how to search for some kind of fundamental Neutrinos physics [including improving on existing searches]. • Taking a feature in data and QCD providing the “theory support” Experimental needed to put it in context. Data

  9. Connections Lattice QCD Formal Phenomenology Theory Neutrinos Model Building Cosmology (and DM)

  10. (Random) Examples

  11. Jet Substructure Suppressed Couplings RS Extra Boosted Top Dimension Quarks KK Gluon Search Boosted W’s Lepton Hadronization Jet Jets Substructure SCET Photon Resummed Jets Optimized Substructure Algorithms predictions Phenomenology QCD Q-Jets Model Building

  12. DAMA “Signal” Phenomenology Experimental Results Model Building Dark Matter Exothermic σ SI Scattering DAMA Signal CDMS Xenon (etc) Iso-spin Violation Recoil Velocity Spectra Distributions γ -lines IVDM Inelastic DM Models MiDM Exciting Collider DM Signals Sommerfeld

  13. Outlook • Phenomenology is the glue that holds many areas of particle theory together and interfaces it with experimental data. • The last decades have illustrated this point very well. We saw a couple of specific (but randomly chosen) examples. Many, many more exist. • The next decade is hard to predict with any accuracy; but the essential role is established, and the importance of phenomenology in interpreting and guiding the current “data rich” era is very easy to appreciate. A few one could easily imagine in the next ten years: • Taking experimental discoveries of dark matter and distilling them into a particle physics Lagrangian. • Measuring the parameters of the (N)MSSM (++) from collider measurements. • Contrasting our newest and greatest theories attempting to explain flavor with measurements to indicate hints that they are (in)correct.

  14. NMSSM R-parity MSSM violating WIMPless DM Supersymmetry Hidden Sector DM Gravitino DM mSUGRA Self-Interacting DM pMSSM Q-balls Techni- baryons Dark Photon R-parity Conserving Dirac DM Asymmetric DM Extra Dimensions Light Force Carriers Theories of Warm DM Soliton DM UED DM Sterile Neutrinos Dark Matter Quark 6d Warped Extra Nuggets Dimensions ? 5d RS DM T -odd DM Axion DM Little Higgs QCD Axions Axion-like Particles Littlest Higgs T Tait

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