In spite of the advent of extremely large telescopes in the UV/optical/NIR range, the current generation of 8-10m facilities is likely to remain competitive at ground- UV wavelengths for the foreseeable future. The Cassegrain U-Band E cient Spectrograph (CUBES) has been designed to provide high-e ciency (> 40%) observations in the near UV (305-400 nm requirement, 300-420 nm goal) at a spectral resolving power of R > 20,000, although a lower-resolution, sky-limited mode of R ∼ 7,000 is also planned. CUBES will o er new possibilities in many fields of astrophysics, providing access to key lines of stellar spectra: a tremendous diversity of iron-peak and heavy elements, lighter elements as well as Balmer lines and the Balmer jump. The UV range is also critical in extragalactic studies: the circumgalactic medium of distant galaxies, the contribution of different types of sources to the cosmic UV background, the measurement of H2 and primordial Deuterium in a regime of relatively transparent intergalactic medium, and follow-up of explosive transients. The CUBES project has entered Phase B, dedicated to detailed design and construction. First science operations are planned for 2028.
CUBES: a UV spectrograph for the future / Covino, S.; Cristiani, S.; Alcala, J. M.; Alencar, S. H. P.; Balashev, S. A.; Barbuy, B.; Bastian, N.; Battino, U.; Bissell, L.; Bristow, P.; Calcines, A.; Calderone, G.; Cambianica, P.; Carini, R.; Carter, B.; Cassisi, S.; Castilho, B. V.; Cescutti, G.; Christlieb, N.; Cirami, R.; Conzelmann, R.; Coretti, I.; Cooke, R.; Cremonese, G.; Cunha, K.; Cupani, G.; Da Silva, A. R.; D'Auria, D.; De Caprio, V.; De Cia, A.; Dekker, H.; D'Elia, V.; De Silva, G.; Diaz, M.; Di Marcantonio, P.; D'Odorico, V.; Ernandes, H.; Evans, C.; Fitzsimmons, A.; Franchini, M.; Gansicke, B.; Genoni, M.; Giribaldi, R. E.; Gneiding, C.; Grazian, A.; Hansen, C. J.; Hopgood, J.; Izzo, L.; Kosmalski, J.; La Forgia, F.; La Penna, P.; Landoni, M.; Lazzarin, M.; Lunney, D.; Maciel, W.; Marcolino, W.; Marconi, M.; Migliorini, A.; Miller, C.; Modigliani, A.; Noterdaeme, P.; Oggioni, L.; Opitom, C.; Pariani, G.; Pilecki, B.; Piranomonte, S.; Quirrenbach, A.; Redaelli, E. M. A.; Pereira, B.; Randich, S.; Rossi, S.; Sanchez-Janssen, R.; Schoeller, M.; Seifert, W.; Smiljanic, R.; Snodgrass, C.; Squalli, O.; Stilz, I.; Sturmer, J.; Trost, A.; Vanzella, E.; Ventura, P.; Verducci, O.; Waring, C.; Watson, S.; Wells, M.; Wright, D.; Zafar, T.; Zanutta, A.; Zins, G.. - (2023), pp. ---. ( HACK 100 Trieste Giugno 2022) [10.36116/MEMSAIT_94N2.2023.281].
CUBES: a UV spectrograph for the future
Cristiani, S.;Cescutti, G.;Cupani, G.;D'Auria, D.;D'Odorico, V.;Franchini, M.;Grazian, A.;Trost, A.;Vanzella, E.;
2023-01-01
Abstract
In spite of the advent of extremely large telescopes in the UV/optical/NIR range, the current generation of 8-10m facilities is likely to remain competitive at ground- UV wavelengths for the foreseeable future. The Cassegrain U-Band E cient Spectrograph (CUBES) has been designed to provide high-e ciency (> 40%) observations in the near UV (305-400 nm requirement, 300-420 nm goal) at a spectral resolving power of R > 20,000, although a lower-resolution, sky-limited mode of R ∼ 7,000 is also planned. CUBES will o er new possibilities in many fields of astrophysics, providing access to key lines of stellar spectra: a tremendous diversity of iron-peak and heavy elements, lighter elements as well as Balmer lines and the Balmer jump. The UV range is also critical in extragalactic studies: the circumgalactic medium of distant galaxies, the contribution of different types of sources to the cosmic UV background, the measurement of H2 and primordial Deuterium in a regime of relatively transparent intergalactic medium, and follow-up of explosive transients. The CUBES project has entered Phase B, dedicated to detailed design and construction. First science operations are planned for 2028.Pubblicazioni consigliate
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