Bibcode
                                    
                            Magdis, G. E.; Elbaz, D.; Hwang, H. S.; Daddi, E.; Rigopoulou, D.; Altieri, B.; Andreani, P.; Aussel, H.; Berta, S.; Cava, A.; Bongiovanni, A.; Cepa, J.; Cimatti, A.; Dickinson, M.; Dominguez, H.; Förster Schreiber, N.; Genzel, R.; Huang, J.-S.; Lutz, D.; Maiolino, R.; Magnelli, B.; Morrison, G. E.; Nordon, R.; Pérez-García, A. M.; Poglitsch, A.; Popesso, P.; Pozzi, F.; Riguccini, L.; Rodighiero, G.; Saintonge, A.; Santini, P.; Sanchez-Portal, M.; Shao, L.; Sturm, E.; Tacconi, L.; Valtchanov, I.
    Referencia bibliográfica
                                    The Astrophysical Journal Letters, Volume 720, Issue 2, pp. L185-L189 (2010).
Fecha de publicación:
    
                        9
            
                        2010
            
  Número de citas
                                    37
                            Número de citas referidas
                                    32
                            Descripción
                                    We present first insights into the far-IR properties for a sample of
IRAC and MIPS 24 μm detected Lyman break galaxies (LBGs) at z ~ 3, as
derived from observations in the northern field of the Great
Observatories Origins Survey (GOODS-N) carried out with the PACS
instrument on board the Herschel Space Observatory. Although none of our
galaxies are detected by Herschel, we employ a stacking technique to
construct, for the first time, the average spectral energy distribution
(SED) of infrared luminous LBGs from UV to radio wavelengths. We derive
a median IR luminosity of L IR = 1.6 × 1012
L sun, placing the population in the class of ultra-luminous
infrared galaxies (ULIRGs). Complementing our study with existing
multi-wavelength data, we put constraints on the dust temperature of the
population and find that for their L IR, MIPS-LBGs are warmer
than submillimeter-luminous galaxies while they fall in the locus of the
L IR-T d relation of the local ULIRGs. This, along
with estimates based on the average SED, explains the marginal detection
of LBGs in current submillimeter surveys and suggests that these latter
studies introduce a bias toward the detection of colder ULIRGs in the
high-z universe, while missing high-z ULIRGS with warmer dust.