XMM-Newton Observations of the Toothbrush and Sausage Clusters of Galaxies

Similar documents
Chemical Enrichment History Of Abell 3112 Galaxy Cluster Out To The Virial Radius

X-ray and radio observations of the radio relic galaxy clusters 1RXS J and RXC J

Formation and properties of shock waves in galaxy clusters

LOFAR Observations of Galaxy Clusters

Mapping the non thermal emission in Coma cluster of galaxies using the FeXXV/FeXXVI line ratio

Giant cosmic tsunamis: the impact of shocks and turbulence on galaxy evolution

Publ. Astron. Obs. Belgrade No. 86 (2009), TURKISH NATIONAL OBSERVATORY (TUG) VIEW OF CLUSTERS OF GALAXIES

METAL ABUNDANCES IN THE OUTSKIRTS OF

Radio relis (and halos) in galaxy clusters

Intracluster Shock Waves

PoS(ICRC2017)283. Acceleration of Cosmic Ray Electrons at Weak Shocks in Galaxy Clusters. Hyesung Kang. Dongsu Ryu

High Resolution X-Ray Spectra A DIAGNOSTIC TOOL OF THE HOT UNIVERSE

Shocks in the ICM and the IPM

No shock across part of a radio relic in the merging galaxy cluster ZwCl ?

arxiv: v2 [astro-ph.he] 1 May 2017

X- ray surface brightness fluctuations and turbulence in galaxy clusters. Jeremy Sanders. Andy Fabian. Sanders & Fabian 2011, MNRAS, submitted

Image credit: Jee et al. 2014, NASA, ESA

XMM-Newton - Chandra Synergy: Maximizing their Future Science Impact over the Next Decade

Supernova remnants: X-ray observations with XMM-Newton

Dan Evans (Harvard), Julia Lee (Harvard), Jane Turner (UMBC/GSFC), Kim Weaver (GSFC), Herman Marshall (MIT) NGC 2110 Spectroscopy

Probing the Outskirts of Strongly Merging Double Clusters

Giant cosmic tsunamis:

Mergers and Radio Sources in Abell 3667 and Abell 2061

Understanding the Physics and Observational Effects of Collisions between Galaxy Clusters

Multi-wavelength studies of substructures and inhomogeneities in galaxy clusters

AC Fabian, M. Cappi, J Sanders. Cosmic Feedback from AGN

AN UNIDENTIFIED X-RAY LINE IN ANDROMEDA, PERSEUS AND THE GALACTIC CENTER

arxiv: v1 [astro-ph.he] 10 Jun 2017

LOW FREQUENCY EMISSION IN GALAXY CLUSTERS- M ACSJ

Where are oxygen synthesized in stars?

Radio relics and magnetic field amplification in the Intra-cluster Medium

A Cluster of Galaxies, Abell 496

Clusters of galaxies and the large scale structure of the universe. Gastão B. Lima Neto IAG/USP

Literature on which the following results are based:

Snowballs in hell! X-ray galactic coronae in galaxy! clusters and the need for sub-arcsecond resolution! Simona Giacintucci (NRL)!

Gamma-ray Observations of Galaxy Clusters!

Cosmic Rays in Galaxy Clusters: Simulations and Perspectives

Turbulence and Magnetic Field in High-β Plasma of Intracluster Medium

Galaxy clusters. Dept. of Physics of Complex Systems April 6, 2018

Shock Acceleration in the Cluster of Galaxies ACO2163

Magnetisation of Interstellar and Intergalactic Media: The Prospects of Low-Frequency Radio Astronomy DFG Research Unit

Observations of diffuse radio emission in cool-core clusters

Physical Conditions in the Gas

Joint X ray/sze analysis of the intra cluster medium

Unveiling the Structure of Galaxy Clusters with Combined ESO-VLT, WFI, and XMM-Newton Observations

THE SUNYAEV-ZELDOVICH EFFECT

PoS(EXTRA-RADSUR2015)038

Mergers and Non-Thermal Processes in Clusters of Galaxies

X-ray and Sunyaev-Zel dovich Effect cluster scaling relations: numerical simulations vs. observations

X-ray spectroscopy of the cluster of galaxies Abell 1795 with XMM-Newton

Radio emission in clusters of galaxies. An observational perspective

arxiv: v1 [astro-ph.he] 10 Feb 2015

Simulating cosmic reionization at large scales

Enrico Fermi School Varenna Cool Cores and Mergers in Clusters Lecture 3

Cosmic ray feedback in hydrodynamical simulations. simulations of galaxy and structure formation

RADIO OBSERVATIONS OF CLUSTER MERGERS

Discovery of Emission Lines in the X-ray Spectrum of the Perseus Cluster

arxiv: v2 [astro-ph.co] 25 Sep 2012

physical and chemical inhomogeneities in the Vela SNR

Non-thermal hard X-ray emission from M87

The Radio/X-ray Interaction in Abell 2029

Progress in Pulsar detection

Trends in Intracluster Metallicity

Course of Galaxies course organizer: Goeran Ostlin ESSAY. X-ray physics of Galaxy Clusters

The Non Equilibrium Ionization Model in ISIS

DARC - DYNAMICAL ANALYSIS OF RADIO CLUSTERS

Probing the Detailed Physics of Hot Baryons with Lynx: Predictions from Mock Observations. John ZuHone

Dynamics of galaxy clusters A radio perspective

Metals in clusters of galaxies observed with Suzaku and XMM- Newton

arxiv:astro-ph/ v1 4 Dec 2002

Particle acceleration in SN 1006

The perspective of X-ray galaxy clusters with the XIFU/Athena instrument

X-rays from Clusters of Galaxies!

Temperature Map of the Perseus Cluster of Galaxies Observed with ASCA

Future X-rayX Spectroscopy Missions. Jan-Willem den Herder

Astronomy. Astrophysics. Cool core remnants in galaxy clusters. M. Rossetti and S. Molendi. 1. Introduction

Astronomy. Astrophysics. The radio relic in Abell 2256: overall spectrum and implications for electron acceleration

Coma Cluster Matthew Colless. Encyclopedia of Astronomy & Astrophysics P. Murdin

X-ray emission properties vary with spin-down age. Crab-like pulsars (< 10 4 yrs)

Cluster Thermodynamics: Entropy

Cosmic ray feedback in hydrodynamical simulations. simulations of galaxy and structure formation

The X-ray view of Planck SZ clusters

Is Gravitational Radiation a Radiation of the Same Level as Electromagnetic Radiation?

Galaxy groups: X-ray scaling relations, cool cores and radio AGN

Simultaneous XMM-Newton Radio Observations of the Mode-switching Radio Pulsar PSR B Wim Hermsen 1,2

Astronomy. Astrophysics. Radial profiles of Fe abundance in the intracluster medium of nearby clusters observed with XMM-Newton. K.

X-ray spectroscopy of nearby galactic nuclear regions

The Evolution of Spiral Galaxies in a Cluster Environment

The XMM-Newton (and multiwavelength) view of the nonthermal supernova remnant HESS J

Chapter 17. Active Galaxies and Supermassive Black Holes

MASS PROFILES OF X-RAY BRIGHT RELAXED GROUPS: METHODS AND SYSTEMATICS

Spectral Analysis of the Double Pulsar PSR J with XMM-Newton

XMM-Newton SOC Technical Note

arxiv:astro-ph/ v1 27 Sep 2004

Chapter 1 Introduction

The role of Planck in understanding galaxy cluster radio halos

arxiv: v1 [astro-ph.he] 24 Jul 2017

XMM-Newton and Chandra Observations of Abell 2626: Interacting Radio Jets and Cooling Core with Jet Precession?

The Universe and Light

DIFFUSE BARYONIC MATTER BEYOND 2020

Transcription:

XMM-Newton Observations of the Toothbrush and Sausage Clusters of Galaxies Sinancan Kara - Boğaziçi University Francois Mernier, Cemile Ezer, Jelle de Plaa, Hiroki Akamatsu, E. Nihal Ercan

Galaxy Clusters Largest gravitationally bound objects in the universe. Contains 100-1000 galaxies.

Between the Galaxies Intracluster Medium (ICM) Hot plasma that radiates X-ray between the galaxies. Has been enriched with metals produced by supernovae over the last billion years

The «Toothbrush» and «Sausage» Cluster We present new results from XMM-Newton archival observations of the merging clusters 1RXSJ0603.3+4213 and CIZA J2242.8+5301.

Why are they interesting? The Toothbrush and Sausage clusters, show a large radio relic associated with a merger shock North of their respective core. How a merger shock affect the metal abundances and the temperature can be invsetigated.

Why is this investigation interesting? For both the Toothbrush and the Sausage, the investigation of the regions close to the shock by XMM-Newton data is presented for the first time. We show the metal abundance and the temperature profile of the clusters.

The Toothbrush We use the XMM-Newton data from the observation on 3 October 2011. The results are derived from spatially resolved X-ray spectra from the EPIC instrument on board XMM-Newton. EPIC image of the Toothbrush cluster. The radio contours (white) are adapted from van Weeren, R. J., Brunetti, G., Brüggen, M., et al. The energy range is 0.2-2 kev. The yellow dashed lines show the regions we investigated for spectroscopy.

The spectra of the Toothbrush The EPIC MOS 1, MOS 2 and pn data reduction is performed using the XMM Science Analysis System (SAS), the point sources have been detected and discarded. The spectral analysis is conducted with SPEX. EPIC image of the Toothbrush cluster. The radio contours (white) are adapted from van Weeren, R. J., Brunetti, G., Brüggen, M., et al. The energy range is 0.2-2 kev. The yellow dashed lines show the regions we investigated for spectroscopy.

EPIC Spectra of the Toothbrush To fit the spectra we used Gaussian differential emission measure (GDEM) model and we fit MOS 1, MOS 2, and pn simultaneously. EPIC image of the Toothbrush cluster. The radio contours (white) are adapted from van Weeren, R. J., Brunetti, G., Brüggen, M., et al. The energy range is 0.2-2 kev. The yellow dashed lines show the regions we investigated for spectroscopy.

The Fe Abundance Profile of the Toothbrush EPIC image of the Toothbrush cluster. The radio contours (white) are adapted from van Weeren, R. J., Brunetti, G., Brüggen, M., et al. The energy range is 0.2-2 kev. The yellow dashed lines show the regions we investigated for spectroscopy.

The Temperature Profile of the Toothbrush EPIC image of the Toothbrush cluster. The radio contours (white) are adapted from van Weeren, R. J., Brunetti, G., Brüggen, M., et al. The energy range is 0.2-2 kev. The yellow dashed lines show the regions we investigated for spectroscopy.

Conclusion of the Toothbrush In the Toothbrush, we observe an abundance enhancement towards the core of the main subcluster. This Fe enhancement is accompanied by a slight temperature drop. These findings may point that before the merging, the main subcluster was cool-core and it has survived after the merging. Outside the core (>2 arcmin), the Fe distribution is uniform (~0.3 protosolar) and the temperature decreases gradually. Based on the temperature profile, it is difficult to confirm the presence of a shock at the position of the radio relic.

The Sausage We use the XMM-Newton data from the observation on 3 October 2011. The results are derived from spatially resolved X-ray spectra from the EPIC instrument on board XMM-Newton. EPIC image of the Toothbrush cluster. The radio contours (white) are adapted from van Weeren, R. J., Brunetti, G., Brüggen, M., et al. The energy range is 0.2-2 kev. The yellow dashed lines show the regions we investigated for spectroscopy.

EPIC Spectra of the Sausage To fit the spectra we used Gaussian differential emission measure (GDEM) model and we fit MOS 1, MOS 2, and pn simultaneously. EPIC image of the Toothbrush cluster. The radio contours (white) are adapted from van Weeren, R. J., Brunetti, G., Brüggen, M., et al. The energy range is 0.2-2 kev. The yellow dashed lines show the regions we investigated for spectroscopy.

The Fe Abundance Profile of the Sausage EPIC image of the Toothbrush cluster. The radio contours (white) are adapted from van Weeren, R. J., Brunetti, G., Brüggen, M., et al. The energy range is 0.2-2 kev. The yellow dashed lines show the regions we investigated for spectroscopy.

The Temperature Profile of the Sausage EPIC image of the Toothbrush cluster. The radio contours (white) are adapted from van Weeren, R. J., Brunetti, G., Brüggen, M., et al. The energy range is 0.2-2 kev. The yellow dashed lines show the regions we investigated for spectroscopy.

Conclusion of the Sausage The temperature distribution of the Sausage cluster shows a flat behavior until it decreases dramatically beyond the shock. The pre-shock temperature is about 3-4 kev, which is in agreement with the findings from Suzaku. We observe a plateau with an uniform value of ~0.3, which is very similar to what is found in the outskirts of relaxed, non-merging clusters (Werner et al. 2013). Unlike the Toothbrush cluster, the violent merger in the Sausage cluster was very efficient in mixing the metals across the entire ICM.

Summary of the Fe Abundances

Summary of the Temperature Profile

Thanks!