J/A+A/602/A96       Number counts produced by the EGG         (Schreiber+, 2017)

egg: hatching a mock Universe from empirical prescriptions. Schreiber C., Elbaz D., Pannella M., Merlin E., Castellano M., Fontana A., Bourne N., Boutsia K., Cullen F., Dunlop J., Ferguson H.C., Michalowski M.J., Okumura K., Santini P., Shu X.W., Wang T., White C. <Astron. Astrophys. 602, A96 (2017)> =2017A&A...602A..96S 2017A&A...602A..96S (SIMBAD/NED BibCode)
ADC_Keywords: Galaxies, photometry ; Models Keywords: galaxies: photometry - galaxies: evolution - galaxies: statistics - galaxies: structure Abstract: This paper introduces egg, the Empirical Galaxy Generator, a tool designed within the ASTRODEEP collaboration to generate mock galaxy catalogs for deep fields with realistic fluxes and simple morphologies. The simulation procedure is based exclusively on empirical prescriptions - rather than first principles - to provide the most accurate match with current observations at 0<z<7. We considered that galaxies can be either quiescent or star-forming, and used their stellar mass (M*) and redshift (z) as the fundamental properties from which all the other observables can be statistically derived. Drawing z and M* from the observed galaxy stellar mass functions, a star-formation rate (SFR) is attributed to each galaxy from the tight SFR-M* main sequence, while dust attenuation, optical colors and simple disk plus bulge morphologies are obtained from empirical relations that we established from the high quality Hubble and Herschel observations from the CANDELS fields. Random scatter was introduced in each step to reproduce the observed distributions of each parameter. Based on these observables, an adequate panchromatic spectral energy distribution (SED) is selected for each galaxy and synthetic photometry is produced by integrating the redshifted SED in common broad-band filters. Finally, the mock galaxies are placed on the sky at random positions with a fixed angular two-point correlation function to implement basic clustering. The resulting flux catalogs reproduce accurately the observed number counts in all broad bands from the ultraviolet up to the sub-millimeter, and can be directly fed to image simulators such as SkyMaker. The images can then be used to test source extraction softwares and image-based techniques such as stacking. egg is open-source, and is made available to the community on behalf of the ASTRODEEP collaboration, together with a set of pre-generated catalogs and images. Description: The Empirical Galaxy Generator (EGG) is a tool to produce mock galaxy catalogs for deep fields. This table compiles the number counts generated by the tool (v1.0.5) in multiple bands from the U band (0.35um) to the millimeter (2mm). These counts were generated from three different mock catalogs of increasing area and decreasing depth, to obtain a large dynamic range on the fluxes. The counts only include the contribution of the stellar and dust emission of galaxies. They do not account for emission from ionized/atomic/molecular gas, or active galactic nuclei, and they assume no attenuation by clouds from our own galaxy. Differential counts are defined as dN/dlog(flux)/dV. File Summary: -------------------------------------------------------------------------------- FileName Lrecl Records Explanations -------------------------------------------------------------------------------- ReadMe 80 . This file tablec1.dat 882 78 The number counts -------------------------------------------------------------------------------- Byte-by-byte Description of file: tablec1.dat -------------------------------------------------------------------------------- Bytes Format Units Label Explanations -------------------------------------------------------------------------------- 7- 18 E12.6 uJy Flux Center of flux bin (for differential counts) or flux lower limit (for cumulative counts) 25- 36 E12.6 deg-2 dU Differential counts for the VIMOS U band 43- 54 E12.6 deg-2 cU Cumulative counts for the VIMOS U band 61- 72 E12.6 deg-2 dB Differential counts for the Hubble F435W band 79- 90 E12.6 deg-2 cB Cumulative counts for the Hubble F435W band 97-108 E12.6 deg-2 dV Differential counts for the Hubble F606W band 115-126 E12.6 deg-2 cV Cumulative counts for the Hubble F606W band 133-144 E12.6 deg-2 dI Differential counts for the Hubble F775W band 151-162 E12.6 deg-2 cI Cumulative counts for the Hubble F775W band 169-180 E12.6 deg-2 dZ Differential counts for the Hubble F850LP band 187-198 E12.6 deg-2 cZ Cumulative counts for the Hubble F850LP band 205-216 E12.6 deg-2 dY Differential counts for the Hubble F105W band 223-234 E12.6 deg-2 cY Cumulative counts for the Hubble F105W band 241-252 E12.6 deg-2 dJ Differential counts for the Hubble F125W band 259-270 E12.6 deg-2 cJ Cumulative counts for the Hubble F125W band 277-288 E12.6 deg-2 dH Differential counts for the Hubble F160W band 295-306 E12.6 deg-2 cH Cumulative counts for the Hubble F160W band 313-324 E12.6 deg-2 dKs Differential counts for the HAWK-I Ks band 331-342 E12.6 deg-2 cKs Cumulative counts for the HAWK-I Ks band 349-360 E12.6 deg-2 d3p6 Differential counts for the Spitzer 3.6um band 367-378 E12.6 deg-2 c3p6 Cumulative counts for the Spitzer 3.6um band 385-396 E12.6 deg-2 d4p5 Differential counts for the Spitzer 4.5um band 403-414 E12.6 deg-2 c4p5 Cumulative counts for the Spitzer 4.5um band 421-432 E12.6 deg-2 d5p8 Differential counts for the Spitzer 5.8um band 439-450 E12.6 deg-2 c5p8 Cumulative counts for the Spitzer 5.8um band 457-468 E12.6 deg-2 d8p0 Differential counts for the Spitzer 8um band 475-486 E12.6 deg-2 c8p0 Cumulative counts for the Spitzer 8um band 493-504 E12.6 deg-2 d16 Differential counts for the Spitzer 16um band 511-522 E12.6 deg-2 c16 Cumulative counts for the Spitzer 16um band 529-540 E12.6 deg-2 d24 Differential counts for the Spitzer 24um band 547-558 E12.6 deg-2 c24 Cumulative counts for the Spitzer 24um band 565-576 E12.6 deg-2 d70 Differential counts for the Herschel 70um band 583-594 E12.6 deg-2 c70 Cumulative counts for the Herschel 70um band 601-612 E12.6 deg-2 d100 Differential counts for the Herschel 100um band 619-630 E12.6 deg-2 c100 Cumulative counts for the Herschel 100um band 637-648 E12.6 deg-2 d160 Differential counts for the Herschel 160um band 655-666 E12.6 deg-2 c160 Cumulative counts for the Herschel 160um band 673-684 E12.6 deg-2 d250 Differential counts for the Herschel 250um band 691-702 E12.6 deg-2 c250 Cumulative counts for the Herschel 250um band 709-720 E12.6 deg-2 d350 Differential counts for the Herschel 350um band 727-738 E12.6 deg-2 c350 Cumulative counts for the Herschel 350um band 745-756 E12.6 deg-2 d500 Differential counts for the Herschel 500um band 763-774 E12.6 deg-2 c500 Cumulative counts for the Herschel 500um band 781-792 E12.6 deg-2 d870 Differential counts for the ALMA 870um band 799-810 E12.6 deg-2 c870 Cumulative counts for the ALMA 870um band 817-828 E12.6 deg-2 d1200 Differential counts for the ALMA 1.2mm band 835-846 E12.6 deg-2 c1200 Cumulative counts for the ALMA 1.2mm band 853-864 E12.6 deg-2 d2000 Differential counts for the ALMA 2mm band 871-882 E12.6 deg-2 c2000 Cumulative counts for the ALMA 2mm band -------------------------------------------------------------------------------- Acknowledgements: Corentin Schreiber, cschreib(at)strw.leidenuniv.nl
(End) Corentin Schreiber [Leiden Univ.], Patricia Vannier [CDS] 21-Mar-2017
The document above follows the rules of the Standard Description for Astronomical Catalogues; from this documentation it is possible to generate f77 program to load files into arrays or line by line