The ultraviolet luminosity function of star-forming galaxies between redshifts of 0.6 and 1.2
arXiv:2106.08200 · doi:10.1093/mnras/stab1638
Abstract
We use ultraviolet imaging taken with the XMM-Newton Optical Monitor telescope (XMM-OM), covering 280 square arcminutes in the UVW1 band (effective wavelength 2910 Angstroms) to measure rest-frame ultraviolet (1500 Angstrom) luminosity functions of galaxies with redshifts z between 0.6 and 1.2. The XMM-OM data are supplemented by a large body of optical and infrared imaging to provide photometric redshifts. The XMM-OM data have a significantly narrower point-spread-function (resulting in less source confusion) and simpler K-correction than the GALEX data previously employed in this redshift range. Ultraviolet-bright active galactic nuclei are excluded to ensure that the luminosity functions relate directly to the star-forming galaxy population. Binned luminosity functions and parametric Schechter-function fits are derived in two redshift intervals: 0.6<z<0.8 and 0.8<z<1.2. We find that the luminosity function evolves such that the characteristic absolute magnitude M* is brighter for 0.8<z<1.2 than for 0.6<z<0.8.
17 pages, 11 figures, accepted for publication in MNRAS
References in corpus (9)
- UV Luminosity Functions at redshifts z~4 to z~10: 10000 Galaxies from HST Legacy Fields
- SDSS Standard Star Catalog for Stripe 82: the Dawn of Industrial 1% Optical Photometry
- Paper II: Calibration of the Swift ultraviolet/optical telescope
- MegaPipe: the MegaCam image stacking pipeline at the Canadian Astronomical Data Centre
- Photometric redshifts in the SWIRE Survey
- The Star Formation History of the Universe as Revealed by Deep Radio Observations
- Photometric Redshifts of Galaxies in COSMOS
- The Evolution of the UV Luminosity Function from z ~ 0.75 to z ~ 2.5 using HST ERS WFC3/UVIS Observations
- ImpZ: a new photometric redshift code for galaxies and quasars
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- Understanding the radio luminosity function of star-forming galaxies and its cosmological evolution
- A New Method to Determine X-ray Luminosity Functions of AGN and their Evolution with Redshift