COSMOLOGICAL-MODEL-INDEPENDENT TESTS FOR THE DISTANCE–DUALITY RELATION FROM GALAXY CLUSTERS AND TYPE Ia SUPERNOVA

@article{Li2011COSMOLOGICALMODELINDEPENDENTTF,
  title={COSMOLOGICAL-MODEL-INDEPENDENT TESTS FOR THE DISTANCE–DUALITY RELATION FROM GALAXY CLUSTERS AND TYPE Ia SUPERNOVA},
  author={Zhengxiang Li and Puxun Wu and Hongwei Yu},
  journal={The Astrophysical Journal Letters},
  year={2011},
  volume={729}
}
We perform a cosmological-model-independent test for the distance–duality (DD) relation η(z) = DL(z)(1 + z)−2/DA(z), where DL and DA are the luminosity distance and angular diameter distance, respectively, with a combination of observational data for DL taken from the latest Union2 SNe Ia and that for DA provided by two galaxy cluster samples compiled by De Filippis et al. and Bonamente et al. Two parameterizations for η(z), i.e., η(z) = 1 + η0z and η(z) = 1 + η0z/(1 + z), are used. We find… 

Testing the Distance-Duality Relation from Hubble, Galaxy Clusters and Type Ia Supernovae Data with Model Independent Methods

In this paper, we perform cosmological-model-independent tests for the distance-duality (DD) relation η(z)=DL(1+z)−2/DA by combining the angular diameter distance DA(or comoving distances Dc ) with

Testing the cosmic distance duality with X-ray gas mass fraction and supernovae data

In this Letter, we discuss a new cosmological-model-independent test for the cosmic distance duality relation (CDDR), η = DL(L)(1 + z) −2 /DA(z) = 1, where DA(z) and DL(z )a re the angular diameter

Testing the distance-duality relation with a combination of cosmological distance observations

We propose an accurate test of the distance-duality (DD) relation, η = DL(z)(1 + z)−2/DA(z) = 1 (where DL and DA are the luminosity distances and angular diameter distances, respectively), with a

Probing the cosmic distance duality with strong gravitational lensing and supernovae Ia data

We propose and perform a new test of the cosmic distance-duality relation (CDDR), DL(z) / DA(z) (1 + z)2 = 1, where DA is the angular diameter distance and DL is the luminosity distance to a given

Testing the distance-duality relation with data from galaxy clusters and type Ia supernovae

We test the distance-duality (DD) relation by combining the angular diameter distance D A provided by two galaxy cluster samples compiled by De Filippis et al. (the elliptical β model) and Bonamente

Constraints on the Hubble Parameter from galaxy clusters and the Validity of the Cosmic Distance Duality Relation

Constraints on the Hubble parameter, H0, via X-ray surface brightness and Sunyaev–Zel'dovich effect (SZE) observations of the galaxy clusters depend on the validity of the cosmic distance duality

A consistent test of the distance-duality relation with galaxy clusters and Type Ia Supernovae

We propose a new consistent method to test the distance-duality relation which related the angular diameter distances (D-A) to the luminosity distances (D-L) in a cosmology-independent way. In order

Galaxy cluster Sunyaev-Zel'dovich effect scaling-relation and type Ia supernova observations as a test for the cosmic distance duality relation

In this paper, we propose a new test to the cosmic distance duality relation (CDDR), DL=DA(1+z)2, where DL and DA are the luminosity and angular diameter distances, respectively. The data used

Test of the cosmic distance duality relation for arbitrary spatial curvature

The cosmic distance duality relation (CDDR), η(z) = (1 + z)dA(z)/dL(z) = 1, is one of the most fundamental and crucial formulae in cosmology. This relation couples the luminosity and angular diameter
...

References

SHOWING 1-10 OF 21 REFERENCES

TESTING THE DISTANCE–DUALITY RELATION WITH GALAXY CLUSTERS AND TYPE Ia SUPERNOVAE

In this Letter, we propose a new and model-independent cosmological test for the distance–duality (DD) relation, η = DL(z)(1 + z)−2/DA(z) = 1, where DL and DA are, respectively, the luminosity and

Testing the distance-duality relation with data from galaxy clusters and type Ia supernovae

We test the distance-duality (DD) relation by combining the angular diameter distance D A provided by two galaxy cluster samples compiled by De Filippis et al. (the elliptical β model) and Bonamente

CONSTRAINTS ON DARK ENERGY AND DISTANCE DUALITY FROM SUNYAEV–ZEL'DOVICH EFFECT AND CHANDRA X-RAY MEASUREMENTS

We demonstrate that the recent measurements of the angular diameter distance of 38 clusters of galaxies using Chandra X-ray data and radio observations from the OVRO and BIMA interferometric arrays

IMPROVED DARK ENERGY CONSTRAINTS FROM ∼100 NEW CfA SUPERNOVA TYPE Ia LIGHT CURVES

We combine the CfA3 supernovae Type Ia (SN Ia) sample with samples from the literature to calculate improved constraints on the dark energy equation of state parameter, w. The CfA3 sample is added to

Determining the Cosmic Distance Scale from Interferometric Measurements of the Sunyaev-Zeldovich Effect

We determine the distances to 18 galaxy clusters with redshifts ranging from z ~ 0.14 to 0.78 from a maximum likelihood joint analysis of 30 GHz interferometric Sunyaev-Zeldovich effect (SZE) and

Determination of the Cosmic Distance Scale from Sunyaev-Zel’dovich Effect and Chandra X-Ray Measurements of High-Redshift Galaxy Clusters

We determine the distance to 38 clusters of galaxies in the redshift range 0.14 ≤ z ≤ 0.89 using X-ray data from Chandra and Sunyaev-Zeldovich effect (SZE) data from the Owens Valley Radio

Cosmic distance-duality as a probe of exotic physics and acceleration

In cosmology, distances based on standard candles (e.g. supernovae) and standard rulers (e.g. baryon oscillations) agree as long as three conditions are met: (1) photon number is conserved, (2)

The distance duality relation from X-ray and SZ observations of clusters

X-ray and Sunyaev-Zel'dovich data of clusters of galaxies enable to construct a test of the distance duality relation between the angular and luminosity distances. We argue that such a test on large

Constraints on cosmic opacity and beyond the standard model physics from cosmological distance measurements

We update constraints on cosmic opacity by combining recent SN Type Ia data compilation with the latest measurements of the Hubble expansion at redshifts between 0 and 2. The new constraint on the

Cosmic chronometers: constraining the equation of state of dark energy. I: H(z) measurements

We present new determinations of the cosmic expansion history from red-envelope galaxies. We have obtained for this purpose high-quality spectra with the Keck-LRIS spectrograph of red-envelope