A 1200-micron MAMBO survey of the GOODS-N field: a significant population of submillimetre drop-out galaxies
T.R. Greve (1,2), A. Pope (3,4), D. Scott (3), R.J. Ivison (5,6), C., Borys (2), C.J. Conselice (7), F. Bertoldi (8) ((1) MPIA, Heidelberg, (2), Caltech, (3) UBC, (4) NOAO, (5) ATC, Edinburgh, (6) IfA, Edinburgh, (7) Univ., of Nottingham, (8) AlfA, Bonn)

TL;DR
This study presents a 1200-micron survey of the GOODS-N field, revealing a significant population of submillimetre drop-out galaxies that differ from traditional 850-micron-selected sources, indicating diverse dust and redshift properties.
Contribution
It demonstrates that 1200-micron-selected galaxies are partly distinct from 850-micron sources, identifying a new population of submm drop-outs with unique spectral characteristics.
Findings
1200-micron survey detected 33 sources in GOODS-N.
Significant difference in flux density distributions between 850 and 1200-micron sources.
Evidence for a population of submm drop-outs with very cold dust or high redshift.
Abstract
We present a 1200-micron image of the Great Observatories Origin Deep Survey North (GOODS-N) field, obtained with the Max Planck Millimeter Bolometer array (MAMBO) on the IRAM 30-m telescope. The survey covers a contiguous area of 287 square arcmin to a near-uniform noise level of ~0.7mJy/beam. After Bayesian flux deboosting, a total of 30 sources are recovered (>=3.5sigma). An optimal combination of our 1200-micron data and an existing 850-micron image from the Submillimetre Common-User Bolometer Array (SCUBA) yielded 33 sources (>=4sigma). We combine our GOODS-N sample with those obtained in the Lockman Hole and ELAIS-N2 fields (Scott et al. 2002; Greve et al. 2004) in order to explore the degree of overlap between 1200-micron- and 850-micron-selected galaxies (hereafter SMGs), finding no significant difference between their 850-micron to 1200-micron flux density distributions.…
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