Power of simultaneous X-ray and ultraviolet high-resolution spectroscopy for probing outflows in active galactic nuclei

Black hole accretion in active galactic nuclei (AGN) is coupled to the evolution of their host galaxies. Outflowing winds in AGN can play an important role in this evolution through the resulting feedback mechanism. Multi-wavelength spectroscopy is key for probing the intertwined physics of inflows and outflows in AGN. However, with the current spectrometers, crucial properties of the ionized outflows are poorly understood, such as their coupling to accretion rate, their launching mechanism, and their kinetic power. We discuss the need for simultaneous X-ray and UV high-resolution spectroscopy for tackling outstanding questions on these outflows in AGN. The instrumental requirements for achieving the scientific objectives are addressed. We demonstrate that these requirements would be facilitated by the proposed Arcus Probe mission concept. The multi-wavelength spectroscopy and timing by Arcus would enable us to establish the kinematics and ionization structure of the entire ionized outflow, extending from the vicinity of the accretion disk to the outskirts of the host galaxy. Arcus would provide key diagnostics on the origin, driving mechanism, and energetics of the outflows, which are useful benchmarks for testing various theoretical models of outflows and understanding their impact in AGN.

Publication Details

Journal
Maryland Shared Open Access Repository (USMAI Consortium)
Published
2024-12-01
DOI
https://doi.org/10.13016/m2bdau-e6tn
Primary Topic
Historical Studies on Reproduction, Gender, Health, and Societal Changes
Type
article
Field-Weighted Citation Impact
0.00

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article

Power of simultaneous X-ray and ultraviolet high-resolution spectroscopy for probing outflows in active galactic nuclei

Maryland Shared Open Access Repository (USMAI Consortium)
Historical Studies on Reproduction, Gender, Health, and Societal Changes
article

Power of simultaneous X-ray and ultraviolet high-resolution spectroscopy for probing outflows in active galactic nuclei

article en

Abstract

Black hole accretion in active galactic nuclei (AGN) is coupled to the evolution of their host galaxies. Outflowing winds in AGN can play an important role in this evolution through the resulting feedback mechanism. Multi-wavelength spectroscopy is key for probing the intertwined physics of inflows and outflows in AGN. However, with the current spectrometers, crucial properties of the ionized outflows are poorly understood, such as their coupling to accretion rate, their launching mechanism, and their kinetic power. We discuss the need for simultaneous X-ray and UV high-resolution spectroscopy for tackling outstanding questions on these outflows in AGN. The instrumental requirements for achieving the scientific objectives are addressed. We demonstrate that these requirements would be facilitated by the proposed Arcus Probe mission concept. The multi-wavelength spectroscopy and timing by Arcus would enable us to establish the kinematics and ionization structure of the entire ionized outflow, extending from the vicinity of the accretion disk to the outskirts of the host galaxy. Arcus would provide key diagnostics on the origin, driving mechanism, and energetics of the outflows, which are useful benchmarks for testing various theoretical models of outflows and understanding their impact in AGN.

Maryland Shared Open Access Repository (USMAI Consortium)
National Aeronautics and Space Administration, Space Telescope Science Institute
Openalex Percentile: Top 45%
Historical Studies on Reproduction, Gender, Health, and Societal Changes
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