J. KalinowskiDark matter in U(1) extended SUSY1 Dark matter in the U(1) extended supersymmetric model Jan Kalinowski S.Y. Choi, H.E. Haber and P.M. Zerwas,

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J. KalinowskiDark matter in U(1) extended SUSY1 Dark matter in the U(1) extended supersymmetric model Jan Kalinowski S.Y. Choi, H.E. Haber and P.M. Zerwas, Nucl.Phys.B in press D. Jarecka, S.F. King and J. Roberts, work in progress based on works in collab. with

J. KalinowskiDark matter in U(1) extended SUSY2 Dark matter Three categories of evidence for dark matter: Rotation curves of galaxies Cosmic microwave background Gravitational lensing Known properties of dark matter weakly interacting, massive, neutral and stable particle the measured density Many candidates for WIMP’s most preferred neutralinos – mixtures of neutral spatrners of gauge bosons and Higgs

J. KalinowskiDark matter in U(1) extended SUSY3  NMSSM promote to vev of some scalar field S but broken Z 3 symmetry => cosmological domain-wall problem  promote PQ to the U(1) gauge symmetry: U(1)-extended SUSY SUSY SUSY has a problem  Bino DM: generally gives  Wino/Higgsino DM: generally gives  only small parts of the ”octopus” in the cMSSM left MSSM has a problem: why in is of order EW scale Nilles ea, Frere ea Derendinger ea Ellwanger ea, … Cvetic ea, Suematsu ea, …

J. KalinowskiDark matter in U(1) extended SUSY4 Kinetic term mixing in USSM gauge kinetic term for B Y and B X l can be converted to canonical form the U(1) part of the covariant derivative => effective Q x charge l gaugino masses: Holdom Del Aguila ea Dienes ea

J. KalinowskiDark matter in U(1) extended SUSY5 Higgs sector Two iso-doublets H u, H d and one scalar S l After spontaneous EW + U(1) X symmetry breaking by the doublet higgsino mass and higgsino-singlino mass terms are generated l physical Higgs bosons: three neutral scalars two charged one neutral pseudoscalar

J. KalinowskiDark matter in U(1) extended SUSY6 Higgs sector hep-ph/ , hep-ph/ The USSM Higgs h 1 mass bound l

J. KalinowskiDark matter in U(1) extended SUSY7 Neutralino sector In thebasis, the neutralino mass matrix: where and the U(1) x charges Note a see-saw type 2x2 block in subspace: for large singlino may become very light Scenario with non-universal : Suematsu, hep-ph/ Suematsu Hesselbach ea, Moortgat-Pick ea, Barger ea, King ea,

J. KalinowskiDark matter in U(1) extended SUSY8 Diagonalizing M 6 For small mixing between - diagonalize first 4x4 and 2x2 blocks - perform block-diagonalization where - eigenvalues only shifted and Choi, Haber, K, Zerwas

J. KalinowskiDark matter in U(1) extended SUSY9 Illustrative example Evolution of the neutralino mass spectrum as a function of We take a scenario with

J. KalinowskiDark matter in U(1) extended SUSY10 Neutralino production in e+e- E cm =800 GeV in our scenario The presence of ~1 TeV Z 2 strongly affects cross sections e.g. for M 1 ’=0 although masses of are as in MSSM

J. KalinowskiDark matter in U(1) extended SUSY11 Neutralino decays Phenomenology changes significantly: only selected examples  Cascade decays - c.f. LHC celebrated case  also possible but

J. KalinowskiDark matter in U(1) extended SUSY12 Neutralino decays  Radiative decays - important in cross-over zones e.g. near M’ 1 =2.6 TeV 4’-5’ zone

J. KalinowskiDark matter in U(1) extended SUSY13 DM relic density Depends on the nature of the lightest neutralino With increasing it changes from higgsino to singlino, so we can try to guess… also Higgs funnel crossed

J. KalinowskiDark matter in U(1) extended SUSY14 Direct DM searches More difficult to guess. Different interplay of diagrams for spin independent and spin dependent parts Choi ea, Jarecka

J. KalinowskiDark matter in U(1) extended SUSY15 Summary  USSM – an elegant solution to the mu problem  new states: scalar Higgs, Z’ and two neutralinos  relaxed bounds on lightest Higgs mass  neutralino sector quite complicated  in a weakly coupled regime under good theoretical control  lightest neutralino can be singlino-dominated  phenomenology at e+e- and LHC quite different  candidate for CDM with different nature from MSSM or NMSSM  can be distinguished by studying neutralino and Higgs sectors  interesting phenomenoology – deserves dedicated studies  with extra U(1) gaugino heavy

J. KalinowskiDark matter in U(1) extended SUSY16 SI SD g g’ Z Z’