Spatial Distribution of Intracluster Light versus Dark Matter in Horizon Run 5

One intriguing approach for studying the dynamical evolution of galaxy clusters is to compare the spatial distributions among various components such as dark matter, member galaxies, gas, and intracluster light (ICL). Utilizing the recently introduced weighted overlap coefficient (WOC), we analyze t...

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Veröffentlicht in:The Astrophysical journal 2024-04, Vol.965 (2), p.145
Hauptverfasser: Yoo, Jaewon, Park, Changbom, Sabiu, Cristiano G., Singh, Ankit, Ko, Jongwan, Lee, Jaehyun, Pichon, Christophe, Jee, M. James, Gibson, Brad K., Snaith, Owain, Kim, Juhan, Shin, Jihye, Kim, Yonghwi, Kim, Hyowon
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container_issue 2
container_start_page 145
container_title The Astrophysical journal
container_volume 965
creator Yoo, Jaewon
Park, Changbom
Sabiu, Cristiano G.
Singh, Ankit
Ko, Jongwan
Lee, Jaehyun
Pichon, Christophe
Jee, M. James
Gibson, Brad K.
Snaith, Owain
Kim, Juhan
Shin, Jihye
Kim, Yonghwi
Kim, Hyowon
description One intriguing approach for studying the dynamical evolution of galaxy clusters is to compare the spatial distributions among various components such as dark matter, member galaxies, gas, and intracluster light (ICL). Utilizing the recently introduced weighted overlap coefficient (WOC), we analyze the spatial distributions of components within 174 galaxy clusters ( M tot > 5 × 10 13 M ⊙ , z = 0.625) at varying dynamical states in the cosmological hydrodynamical simulation Horizon Run 5. We observe that the distributions of gas and the combination of ICL with the brightest cluster galaxy (BCG) closely resembles the dark matter distribution, particularly in more relaxed clusters, characterized by the half-mass epoch. The similarity in spatial distribution between dark matter and BCG+ICL mimics the changes in the dynamical state of clusters during a major merger. Notably, at redshifts >1, BCG+ICL traced dark matter more accurately than the gas. Additionally, we examined the one-dimensional radial profiles of each component, which show that the BCG+ICL is a sensitive component revealing the dynamical state of clusters. We propose a new method that can approximately recover the dark matter profile by scaling the BCG+ICL radial profile. Furthermore, we find a recipe for tracing dark matter in unrelaxed clusters by including the most massive satellite galaxies together with the BCG+ICL distribution. Combining the BCG+ICL and the gas distribution enhances the dark matter tracing ability. Our results imply that the BCG+ICL distribution is an effective tracer for the dark matter distribution, and the similarity of the spatial distribution may be a useful probe of the dynamical state of a cluster.
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subjects Astrophysics
Components
Dark matter
Galactic and extragalactic astronomy
Galactic clusters
Galactic evolution
Galaxies
Galaxy clusters
Galaxy distribution
Horizon
Hydrodynamical simulations
Physics
Scaling
Similarity
Spatial distribution
Stars & galaxies
Tracers
Tracing
title Spatial Distribution of Intracluster Light versus Dark Matter in Horizon Run 5
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