Mildly Mixed Coupled cosmological models

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Presentation transcript:

Mildly Mixed Coupled cosmological models *La Vacca, B., Colombo, arXiv:0810.0127 & NewA. (Higher neutrino mass allowed if CDM & DE are coupled) *La Vacca, Kristiansen, Mainini,B., Colombo, arXiv:0902.2711 & JCAP (Do WMAP data favor neutrino mass and a coupling between CDM and DE?) *Kristiansen, La Vacca, Colombo,Mainini,B., arXiv:0902.2737 & NewA. (Coupling between CDM and DE from neutrino mass experiments) *La Vacca, B., Mainini (in preparation) (Mildly mixed coupled models and WMAP7 data) S.A. Bonometto, Physics Dep., Milano-Bicocca University & INFN, Sez. di Milano-Bicocca (Milan, Italy) NOW 2010, Conca Specchiulla, September 5-11

MMC cosmologies Opposite effects on Cl data WMAP5 New: Taking into OPPOSITE EFFECTS ON TRANSFER FUNCTION from CDM-DE COUPLING AND NEUTRINO MASS Opposite effects on Cl data WMAP5 New: Taking into account WMAP7, SDSS, new H, & further recent data M(n)-b degeneracy

FRW frame:

Dynamical DE : a self-interacting scalar field energy density pressure

Common examples of tracker potentials SUGRA

WMAP7 (and related data) correct predictions on DE state eqn. w(z)=wo+wa(1-a) mistreatment corrected

LRG Large Scale Structure from new SDSS data Apparently critical in modifying likelihood distribution

CMB data only effects of SDSS whole data sets no SDSS

2df The power spectrum of the galaxy distribution has been determined from the survey using a direct FFT-based tech. (Percival et al. 2001) over the range in wavenumber 0:02 < k < 0:15 h Mpc^{-1},

What is HALOFIT ? Expression of non-linear spectrum Obtained from linear 2-p function x(r) linear x(r) non linear x[f(r)] f(r) tested in simulations of LCDM

Wm = 0.274 s8 = 0.81 e = 25 h^-1 kpc HALOFIT vs N-BODY SIMULATION For non-LCDM models w = -0.95 Wm = 0.274 H = 70 km/s/Mpc s8 = 0.81 program pkdgrav L = 256 h-1 Mpc N(part) = 256^3 m(part) = 7.61e10 M(sun)h^-1 e = 25 h^-1 kpc z(in) = 24 Simulation run for work in progress by Casarini, La Vacca, Amendola, Maccio’ (The impact of non-linear corrections on Weak lensing forecasts) shifts >6 % where model spectra differ

(however highly undetermined) 1D likelihood distributions RP SUGRA Notice also higher limits on L scale (however highly undetermined) Top likelihood not at zero !

KATRIN prior for neutrinos with mass 0 KATRIN prior for neutrinos with mass 0.3 eV falls in the top likelihood area

Conclusions Updated CMB data analysis: no degeneration decrease Constraints from SDSS survey hard to use Procedure to work out spectra from SDSS involves Halo model and HALOFIT expressions (a bias in favor of LCDM?) Results almost independent from potential shape [SUGRA & RP describe rapidly & slowly varying w(z)] Constraints on scale L eased MMC models however ease fine-tuning & coincidence Coupling interpretations Single substance ? Inverse process of inflationary reheating ?

Abstract Energy exhanges CDM-DE soften limits on neutrino mass … but not so much, factor 2-3 Neutrino mass above standard cosmological limits  new physics between CDM & DE KK claim or KATRIN detection also critical for the nature of dark cosmic components