Committees

• Radiative
  • Inclusive radiative decays: gamma via inclusive, partial and full reconstruction tagging methods.
  • Inclusive radiative decays: and via sum of exclusive methods.
  • Exclusive radiative decays (polarisation and asymmetries):
    • : , ,
    • : ,,
  • TCPV in Radiative decays, e.g. , (overlap with bottom)
• Electroweak
  • EWP with neutrinos, ,
  • Inclusive dilepton decays via sum of exclusive, and fully inclusive methods:
  • Exclusive dilepton decays with a focus on electron modes:
• Rare and forbidden
  • 
  • Neutral leptonic decays, , ,
  • Lepton flavour and number violating decays,

• : , ,
• :
  • precision in ,
  • New phases in transitions, , ,
• TCPV in Radiative decays, e.g. , (overlap with above)

• Charm CP Eigenstates, GLW method (Gronau- London- Wyler) e.g.
• Doubly Cabbibo suppressed decays, ADS method (Atwood- Dunietz- Soni), e.g.
• Three body decays, GGSZ Dalitz method (Giri- Grossman- Soffer - Zupan), e.g. ,
• Combined GLW+ADS method e.g. , ,

• Direct CP Violation
• modes, angular analyses
• Charmless hadronic modes,
• 2 body
• 3 body with Dalitz methods,
• Hadronic decays
• QCD factorisation, flavour symmetry breaking

• mixing
• TCPV in Charm
• Direct CPV in Charm
• Radiative decays $//<![CDATA[ D \rightarrow V\ \gamma //]]>$
• Rare/Forbidden charm decays and NP: ,
• Leptonic and Semileptonic charm decays

• Bottomonia at
• Inclusive baryon and meson production in decays
• Energy scan studies of bottomonia
• Charmonia, exotic, charmonium-like
  • below the open-charm threshold
  • above the open-charm threshold
• -Hadron production at

• Tau
  • Lepton flavour violating decays
  • properties
  • Lepton universality
  • CP Violation
  • Precision measurements of SM decays
• Low multiplicity
• Two Photon Physics
• Precision electroweak physics ("LEP"-physics)
• Searches for dark photon in direct production (via kinetic mixing) and exotic final states

• Benchmark models/points for 5, 10, 50 data (create a “milestone table; which indicates the goal for 5, 10, 50 for given new physics models (providing theoretical predictions for various physics processes with those models))
• Model dependent/independent constraints fit (to prepare the constraints figure for given observables, public code for the fits)
• Relation to measurements from other experiments (e.g. LHC, neutrino, dark matter, future experiments)