Probing the Wind Component of Radio Emission in Luminous High-redshift Quasars

We discuss a probe of the contribution of wind-related shocks to the radio emission in otherwise radio-quiet quasars. Given (1) the nonlinear correlation between UV and X-ray luminosity in quasars, (2) that such a correlation leads to higher likelihood of radiation-line-driven winds in more luminous...

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Veröffentlicht in:The Astronomical journal 2021-12, Vol.162 (6), p.270
Hauptverfasser: Richards, Gordon T., McCaffrey, Trevor V., Kimball, Amy, Rankine, Amy L., Matthews, James H., Hewett, Paul C., Rivera, Angelica B.
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container_issue 6
container_start_page 270
container_title The Astronomical journal
container_volume 162
creator Richards, Gordon T.
McCaffrey, Trevor V.
Kimball, Amy
Rankine, Amy L.
Matthews, James H.
Hewett, Paul C.
Rivera, Angelica B.
description We discuss a probe of the contribution of wind-related shocks to the radio emission in otherwise radio-quiet quasars. Given (1) the nonlinear correlation between UV and X-ray luminosity in quasars, (2) that such a correlation leads to higher likelihood of radiation-line-driven winds in more luminous quasars, and (3) that luminous quasars are more abundant at high redshift, deep radio observations of high-redshift quasars are needed to probe potential contributions from accretion disk winds. We target a sample of 50 z ≃ 1.65 color-selected quasars that span the range of expected accretion disk wind properties as traced by broad C iv emission. 3 GHz observations with the Very Large Array to an rms of ≈10 μ Jy beam −1 probe to star formation rates of ∼400 M ⊙ yr −1 , leading to 22 detections. Supplementing these pointed observations are survey data of 388 sources from the LOFAR Two-meter Sky Survey Data Release 1 that reach comparable depth (for a typical radio spectral index), where 123 sources are detected. These combined observations reveal a radio detection fraction that is a nonlinear function of C iv emission-line properties and suggest that the data may require multiple origins of radio emission in radio-quiet quasars. We find evidence for radio emission from weak jets or coronae in radio-quiet quasars with low Eddington ratios, with either (or both) star formation and accretion disk winds playing an important role in optically luminous quasars and correlated with increasing Eddington ratio. Additional pointed radio observations are needed to fully establish the nature of radio emission in radio-quiet quasars.
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We find evidence for radio emission from weak jets or coronae in radio-quiet quasars with low Eddington ratios, with either (or both) star formation and accretion disk winds playing an important role in optically luminous quasars and correlated with increasing Eddington ratio. 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subjects Accretion disks
Astronomy
ASTRONOMY AND ASTROPHYSICS
Correlation
Emission line galaxies
Galactic winds
Galaxy accretion disks
LOFAR
Luminosity
Optical observation
Quasars
Radiation
Radio continuum emission
Radio emission
Radio loud quasars
Radio observation
Radio quiet quasars
Red shift
Sky surveys (astronomy)
Star & galaxy formation
Star formation
Wind
title Probing the Wind Component of Radio Emission in Luminous High-redshift Quasars
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