The Impact of Galaxy Formation on the Diffuse Background Radiation

The far infrared background is a sink for the hidden aspects of galaxy formation. At optical wavelengths, ellipticals and spheroids are old, even at $z \sim 1.$ Neither the luminous formation phase nor their early evolution is seen in the visible. We infer that ellipticals and, more generally, most...

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Main Authors: Silk, J, Devriendt, J
Format: Conference item
Published: 2000
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author Silk, J
Devriendt, J
author_facet Silk, J
Devriendt, J
author_sort Silk, J
collection OXFORD
description The far infrared background is a sink for the hidden aspects of galaxy formation. At optical wavelengths, ellipticals and spheroids are old, even at $z \sim 1.$ Neither the luminous formation phase nor their early evolution is seen in the visible. We infer that ellipticals and, more generally, most spheroids must have formed in dust-shrouded starbursts. In this article, we show how separate tracking of disk and spheroid star formation enables us to infer that disks dominate near the peak in the cosmic star formation rate at $z \lapproxeq 2$ and in the diffuse ultraviolet/optical/infrared background, whereas spheroid formation dominates the submillimetre background.
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spelling oxford-uuid:00060eaa-8257-4fb8-b0d8-0f279ca6f4a62022-03-26T08:27:11ZThe Impact of Galaxy Formation on the Diffuse Background RadiationConference itemhttp://purl.org/coar/resource_type/c_5794uuid:00060eaa-8257-4fb8-b0d8-0f279ca6f4a6Symplectic Elements at Oxford2000Silk, JDevriendt, JThe far infrared background is a sink for the hidden aspects of galaxy formation. At optical wavelengths, ellipticals and spheroids are old, even at $z \sim 1.$ Neither the luminous formation phase nor their early evolution is seen in the visible. We infer that ellipticals and, more generally, most spheroids must have formed in dust-shrouded starbursts. In this article, we show how separate tracking of disk and spheroid star formation enables us to infer that disks dominate near the peak in the cosmic star formation rate at $z \lapproxeq 2$ and in the diffuse ultraviolet/optical/infrared background, whereas spheroid formation dominates the submillimetre background.
spellingShingle Silk, J
Devriendt, J
The Impact of Galaxy Formation on the Diffuse Background Radiation
title The Impact of Galaxy Formation on the Diffuse Background Radiation
title_full The Impact of Galaxy Formation on the Diffuse Background Radiation
title_fullStr The Impact of Galaxy Formation on the Diffuse Background Radiation
title_full_unstemmed The Impact of Galaxy Formation on the Diffuse Background Radiation
title_short The Impact of Galaxy Formation on the Diffuse Background Radiation
title_sort impact of galaxy formation on the diffuse background radiation
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