J/ApJ/892/102   XMM X-ray data of Planck ESZ galaxy clusters   (Lovisari+, 2020)

X-ray scaling relations for a representative sample of Planck-selected clusters observed with XMM-Newton. Lovisari L., Schellenberger G., Sereno M., Ettori S., Pratt G.W., Forman W.R., Jones C., Andrade-Santos F., Randall S., Kraft R. <Astrophys. J., 892, 102 (2020)> =2020ApJ...892..102L 2020ApJ...892..102L
ADC_Keywords: Clusters, galaxy; X-ray sources; Redshifts Keywords: Galaxy clusters ; Intracluster medium ; Observational cosmology ; X-ray astronomy Abstract: We report the scaling relations derived by fitting the X-ray parameters determined from analyzing the XMM-Newton observations of 120 galaxy clusters in the Planck Early Sunyaev-Zel'dovich (SZ) sample spanning the redshift range of 0.059<z<0.546. We find that the slopes of all the investigated scaling relations significantly deviate from the self-similar predictions, if self-similar redshift evolution is assumed. When the redshift evolution is left free to vary, the derived slopes are more in agreement with the self-similar predictions. Relaxed clusters have on average ∼30% higher X-ray luminosity than disturbed clusters at a given mass, a difference that, depending on the relative fraction of relaxed and disturbed clusters in the samples (e.g., SZ vs. X-ray selected), has a strong impact on the normalization obtained in different studies. Using the core-excised cluster luminosities reduces the scatter and brings into better agreement the L-Mtot and L-T relations determined for different samples. Mtot-T, Mtot-YX, and Mtot-Mgas relations show little dependence on the dynamical state of the clusters, but the normalizations of these relations may depend on the mass range investigated. Although most of the clusters investigated in this work reside at relatively low redshift, the fits prefer values of γ, the parameter accounting for the redshift evolution, different from the self-similar predictions. This suggests an evolution (<2σ level, with the exception of the Mtot-T relation) of the scaling relations. For the first time, we find significant evolution (>3σ) of the Mtot-T relation, pointing to an increase of the kinetic-to-thermal energy ratio with redshift. This is consistent with a scenario in which higher-redshift clusters are on average more disturbed than their lower-redshift counterparts. Description: Our sample contains 120 galaxy clusters observed with XMM-Newton and originally selected from the Planck Early Sunyaev-Zel'dovich (ESZ; Planck Col.+ 2011, J/A+A/536/A8). As described in Lovisari+ (2017ApJ...846...51L 2017ApJ...846...51L), these are the ESZ clusters for which R500 was completely covered by XMM-Newton observations. Observation data files were downloaded from the XMM-Newton archive. Throughout this paper, we assume a flat ΛCDM cosmology with Ωm=0.3 and H0=70km/s/Mpc. File Summary: -------------------------------------------------------------------------------- FileName Lrecl Records Explanations -------------------------------------------------------------------------------- ReadMe 80 . This file table3.dat 166 120 Cluster properties -------------------------------------------------------------------------------- See also: B/xmm : XMM-Newton Obs. Log (XMM-Newton Science Operation Center, 2012) VIII/88 : Planck Early Release Compact Source Catalogue (Planck, 2011) VIII/91 : Planck Catalog of Compact Sources Release 1 (Planck, 2013) J/A+A/536/A8 : Planck early results. VIII. ESZ sample. (Planck+, 2011) J/A+A/535/A4 : X-ray galaxy clusters study (Reichert+, 2011) J/A+A/575/A30 : HIFLUGCS XMM/Chandra cross-calibration (Schellenberger+, 2015) J/MNRAS/450/3675 : CoMaLit. IV. Sigma Catalogue (Sereno+, 2015) J/MNRAS/457/4515 : X-ray_peak-BCG offset for PSZ1 clusters (Rossetti+, 2016) J/ApJ/843/76 : Cool-core clusters with Chandra obs. (Andrade-Santos+, 2017) J/MNRAS/468/1917 : Concentration parameter of galaxy clusters (Rossetti+, 2017) J/MNRAS/469/3738 : Complete sample of galaxy clusters (Schellenberger+, 2017) Byte-by-byte Description of file: table3.dat -------------------------------------------------------------------------------- Bytes Format Units Label Explanations -------------------------------------------------------------------------------- 1- 13 A13 --- PLCKESZ Planck identifier GLLL.ll+BB.bb (1) 15 A1 --- f_PLCKESZ [*] * = not explained in the paper 17- 21 F5.3 --- z [0.059/0.6] Cluster spectroscopic redshift 23- 27 F5.2 10+14Msun M500 [2.4/17.6] Total mass with R500 29- 32 F4.2 10+14Msun E_M500 [0.04/6] Upper uncertainty in M500 34- 37 F4.2 10+14Msun e_M500 [0.03/5] Lower uncertainty in M500 39- 43 F5.2 10+13Msun Mg500 [2.87/32] Gas mass with R500 45- 48 F4.2 10+13Msun E_Mg500 [0.03/3] Upper uncertainty in Mg500 50- 53 F4.2 10+13Msun e_Mg500 [0.03/6] Upper uncertainty in Mg500 55- 59 F5.2 keV kT [1.67/14.4] Core-included cluster temperature 61- 64 F4.2 keV E_kT [0.03/1.4] Upper uncertainty in kT 66- 69 F4.2 keV e_kT [0.03/1.4] Lower uncertainty in kT 71- 75 F5.2 keV kTexc [1.4/15.1] Core-excluded cluster temperature 77- 80 F4.2 keV E_kTexc [0.04/1.6] Upper uncertainty in kTexc 82- 85 F4.2 keV e_kTexc [0.04/1.6] Lower uncertainty in kTexc 87- 91 F5.2 10-7W LX [1.28/27.1] Core-included cluster 0.1-2.4keV luminosity; erg/s 93- 96 F4.2 10-7W E_LX [0.04/1.7] Upper uncertainty in LX 98- 101 F4.2 10-7W e_LX [0.04/1.7] Lower uncertainty in LX 103- 107 F5.2 10-7W LXexc [0.86/18] Core-excluded cluster 0.1-2.4keV luminosity; erg/s 109- 112 F4.2 10-7W E_LXexc [0.01/1.3] Upper uncertainty in LXexc 114- 117 F4.2 10-7W e_LXexc [0.01/1.3] Lower uncertainty in LXexc 119- 123 F5.2 10-7W Lbol [2.6/87] Core-included cluster bolometric (0.01-100keV) luminosity; erg/s 125- 128 F4.2 10-7W E_Lbol [0.1/8] Upper uncertainty in Lbol 130- 133 F4.2 10-7W e_Lbol [0.1/8] Lower uncertainty in Lbol 135- 139 F5.2 10-7W Lbolexc [1.87/61] Core-excluded cluster bolometric (0.01-100keV) luminosity; in erg/s units 141- 144 F4.2 10-7W E_Lbolexc [0.01/4] Upper uncertainty in Lbolexc 146- 149 F4.2 10-7W e_Lbolexc [0.01/4] Lower uncertainty in Lbolexc 151- 152 I2 --- NT [1/33] Number of temperature profile bins 154- 157 F4.2 --- fT [0.3/1.3] Fraction of R500 covered by temperature profile 159- 161 I3 --- Nsb [4/372] Number of surface brightness profile bins 163- 166 F4.2 --- fsb [0.5/1.7] Fraction of R500 covered by surface brightness profile -------------------------------------------------------------------------------- Note (1): As in the Planck Early Sunyaev-Zeldovich catalog (Planck Collaboration et al. 2011A&A...536A...8P 2011A&A...536A...8P ; see VIII/88). -------------------------------------------------------------------------------- History: From electronic version of the journal
(End) Prepared by [AAS], Emmanuelle Perret [CDS] 16-Aug-2021
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