The Masses of Nuclear Black Holes in Luminous Elliptical Galaxies and Implications for the Space Density of the Most Massive Black Holes

(2006)

Authors:

Tod R Lauer, SM Faber, Douglas Richstone, Karl Gebhardt, Scott Tremaine, Marc Postman, Alan Dressler, MC Aller, Alexei V Filippenko, Richard Green, Luis C Ho, John Kormendy, John Magorrian, Jason Pinkney

Probing unexplored territories with MUSE: a second generation instrument for the VLT

ArXiv astro-ph/0606329 (2006)

Authors:

R Bacon, S Bauer, P Boehm, D Boudon, S Brau-Nogue, P Caillier, L Capoani, CM Carollo, N Champavert, T Contini, E Daguise, D Dalle, B Delabre, J Devriendt, S Dreizler, J Dubois, M Dupieux, JP Dupin, E Emsellem, P Ferruit, M Franx, G Gallou, J Gerssen, B Guiderdoni, T Hahn, D Hofmann, A Jarno, A Kelz, C Koehler, W Kollatschny, J Kosmalski, F Laurent, SJ Lilly, J Lizon, M Loupias, S Lynn, A Manescau, RM McDermid, C Monstein, H Nicklas, L Pares, L Pasquini, A Pecontal-Rousset, E Pecontal, R Pello, C Petit, J-P Picat, E Popow, A Quirrenbach, R Reiss, E Renault, M Roth, J Schaye, G Soucail, M Steinmetz, S Stroebele, R Stuik, P Weilbacher, H Wozniak, PT de Zeeuw

Abstract:

The Multi Unit Spectroscopic Explorer (MUSE) is a second-generation VLT panoramic integral-field spectrograph under preliminary design study. MUSE has a field of 1x1 arcmin**2 sampled at 0.2x0.2 arcsec**2 and is assisted by the VLT ground layer adaptive optics ESO facility using four laser guide stars. The simultaneous spectral range is 465-930 nm, at a resolution of R~3000. MUSE couples the discovery potential of a large imaging device to the measuring capabilities of a high-quality spectrograph, while taking advantage of the increased spatial resolution provided by adaptive optics. This makes MUSE a unique and tremendously powerful instrument for discovering and characterizing objects that lie beyond the reach of even the deepest imaging surveys. MUSE has also a high spatial resolution mode with 7.5x7.5 arcsec**2 field of view sampled at 25 milli-arcsec. In this mode MUSE should be able to obtain diffraction limited data-cubes in the 600-930 nm wavelength range. Although the MUSE design has been optimized for the study of galaxy formation and evolution, it has a wide range of possible applications; e.g. monitoring of outer planets atmosphere, environment of young stellar objects, super massive black holes and active nuclei in nearby galaxies or massive spectroscopic surveys of stellar fields in the Milky Way and nearby galaxies.

Probing unexplored territories with MUSE: a second generation instrument for the VLT

(2006)

Authors:

R Bacon, S Bauer, P Boehm, D Boudon, S Brau-Nogue, P Caillier, L Capoani, CM Carollo, N Champavert, T Contini, E Daguise, D Dalle, B Delabre, J Devriendt, S Dreizler, J Dubois, M Dupieux, JP Dupin, E Emsellem, P Ferruit, M Franx, G Gallou, J Gerssen, B Guiderdoni, T Hahn, D Hofmann, A Jarno, A Kelz, C Koehler, W Kollatschny, J Kosmalski, F Laurent, SJ Lilly, J Lizon, M Loupias, S Lynn, A Manescau, RM McDermid, C Monstein, H Nicklas, L Pares, L Pasquini, A Pecontal-Rousset, E Pecontal, R Pello, C Petit, J-P Picat, E Popow, A Quirrenbach, R Reiss, E Renault, M Roth, J Schaye, G Soucail, M Steinmetz, S Stroebele, R Stuik, P Weilbacher, H Wozniak, PT de Zeeuw

Neutral hydrogen in nearby elliptical and lenticular galaxies: the continuing formation of early-type galaxies

(2006)

Authors:

R Morganti, PT de Zeeuw, TA Oosterloo, RM McDermid, D Krajnovic, M Cappellari, F Kenn, A Weijmans, M Sarzi

Mid-infrared identifications of scuba galaxies in the CUDSS 14 hour field with the spitzer space telescope

Astrophysical Journal 644:2 II (2006) 778-791

Authors:

MLN Ashby, S Dye, JS Huang, S Eales, SP Willner, TMA Webb, P Barmby, D Rigopoulou, E Egami, H Mccracken, S Lilly, S Miyazaki, M Brodwin, M Blaylock, J Cadien, GG Fazio

Abstract:

We identify 17 possible 8.0 μm selected counterparts to the submillimeter galaxies in the CUDSS 14 hour field, derived from deep imaging carried out with the IRAC and MIPS instruments aboard the Spitzer Space Telescope. Ten of the 17 counterparts are not the same as those previously identified at shorter wavelengths. We argue that 8.0 μm selection offers a better means for identifying counterparts to submillimeter galaxies than near-infrared or optical selection. Based on the panchromatic spectral energy distributions (SEDs), most counterparts appear to be powered by ongoing star formation. Power-law fits to the SEDs suggest that five objects in the 8.0 μm selected counterpart sample harbor dominant active galactic nuclei (AGNs; a sixth object is identified as a possible AGN). The 3.6-8.0 μm colors of the infrared-selected counterparts are significantly redder than the general IRAC galaxy population in the CUDSS 14 hour field. © 2006. The American Astronomical Society. All rights reserved.