Probing unexplored territories with MUSE: a second generation instrument for the VLT
ArXiv astro-ph/0606329 (2006)
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)
High-significance Sunyaev–Zel'dovich measurement: Abell 1914 seen with the Arcminute Microkelvin Imager⋆
Monthly Notices of the Royal Astronomical Society: Letters Oxford University Press (OUP) 369:1 (2006) l1-l4
KMOS: A multi-object deployable-IFU spectrometer for the ESO VLT
NEW ASTRON REV 50:4-5 (2006) 370-373
Abstract:
We describe the design of a 2nd generation instrument for the ESO VLT which uses 24 cryogenic pickoff arms linked to diamond-machined image slicing integral field units to deliver a unique multiple deployable integral field capability in the near-infrared (1-2.5 mu m). The science requirements for the instrument are presented and linked to the functional specification. The baseline instrument concept is described with emphasis on technological innovations. (c) 2006 Elsevier B.V. All rights reserved.Orientation dependency of broad-line widths in quasars and consequences for black hole mass estimation
\mnras 369 (2006) 182-188-182-188