Bright z ∼ 9 Galaxies in Parallel: The Bright End of the Rest-frame UV Luminosity Function from HST Parallel Programs

The abundance of bright galaxies at z > 8 can provide key constraints on models of galaxy formation and evolution, as the predicted abundance varies greatly when different physical prescriptions for gas cooling and star formation are implemented. We present the results of a search for bright z ∼...

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Veröffentlicht in:The Astrophysical journal 2024-02, Vol.961 (2), p.209
Hauptverfasser: Bagley, Micaela B., Finkelstein, Steven L., Rojas-Ruiz, Sofía, Diekmann, James, Finkelstein, Keely D., Song, Mimi, Papovich, Casey, Somerville, Rachel S., Baronchelli, Ivano, Dai, Y. Sophia
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container_issue 2
container_start_page 209
container_title The Astrophysical journal
container_volume 961
creator Bagley, Micaela B.
Finkelstein, Steven L.
Rojas-Ruiz, Sofía
Diekmann, James
Finkelstein, Keely D.
Song, Mimi
Papovich, Casey
Somerville, Rachel S.
Baronchelli, Ivano
Dai, Y. Sophia
description The abundance of bright galaxies at z > 8 can provide key constraints on models of galaxy formation and evolution, as the predicted abundance varies greatly when different physical prescriptions for gas cooling and star formation are implemented. We present the results of a search for bright z ∼ 9–10 galaxies selected from pure parallel Hubble Space Telescope (HST) imaging programs. We include 132 fields observed as part of the Brightest of Reionizing Galaxies survey, the Hubble Infrared Pure Parallel Imaging Extragalactic Survey, and the WFC3 Infrared Spectroscopic Parallel survey. These observations cover a total of 620 arcmin 2 , about 70% of which is also covered with Spitzer Space Telescope infrared imaging. We identify 13 candidate galaxies in the range 8.3 < z < 11 with 24.5 < m H < 26.5 (−22.9 < M UV < −21.2), 11 of which constitute new discoveries. This sample capitalizes on the uncorrelated nature of pure parallel observations to overcome cosmic variance and leverages a full multiwavelength selection process to minimize contamination without sacrificing completeness. We perform detailed completeness and contamination analyses, and present measurements of the bright end of the UV luminosity function using a pseudobinning technique. We find a number density consistent with results from Finkelstein et al. and other searches in HST parallel fields. These bright candidates likely reside in overdensities, potentially representing some of the earliest sites of cosmic reionization. These new candidates are excellent targets for follow up with JWST, and four of them will be observed with the NIRSpec prism in Cycle 1.
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subjects Abundance
Astronomical models
Completeness
Constraint modelling
Contamination
Galactic evolution
Galaxies
Galaxy evolution
Gas cooling
High-redshift galaxies
Hubble Space Telescope
Infrared imaging
Infrared telescopes
Ionization
Luminosity
Luminosity function
Parallel programming
Space telescopes
Star & galaxy formation
Star formation
title Bright z ∼ 9 Galaxies in Parallel: The Bright End of the Rest-frame UV Luminosity Function from HST Parallel Programs
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