TY - GEN
T1 - SHARK-NIR, ready to “swim” in the LBT northern hemisphere “ocean”
AU - Farinato, Jacopo
AU - Baruffolo, Andrea
AU - Bergomi, Maria
AU - Bianco, Andrea
AU - Biondi, Federico
AU - Briegel, Florian
AU - Carolo, Elena
AU - Carlotti, Alexis
AU - Chavan, Sona
AU - Chinellato, Simonetta
AU - De Pascale, Marco
AU - Dima, Marco
AU - D'Orazi, Valentina
AU - Ertel, Steve
AU - Greggio, Davide
AU - Henning, Thomas
AU - Laudisio, Fulvio
AU - Lessio, Luigi
AU - Magrin, Demetrio
AU - Marafatto, Luca
AU - Mesa, Dino
AU - Mohr, Lars
AU - Montoya, Manny
AU - Radhakrishnan, Kalyan
AU - Ricci, Davide
AU - Umbriaco, Gabriele
AU - Vassallo, Daniele
AU - Viotto, Valentina
AU - Zanutta, Alessio
AU - Antoniucci, Simone
AU - Arcidiacono, Carmelo
AU - Bacciotti, Francesca
AU - Baudoz, Pierre
AU - Bongiorno, Angela
AU - Close, Laird
AU - Di Filippo, Simone
AU - Don, Kenneth
AU - Esposito, Simone
AU - Grenz, Paul
AU - Guyon, Olivier
AU - Leisenring, Jarron M.
AU - Pedichini, Fernando
AU - Piazzesi, Roberto
AU - Pinna, Enrico
AU - Portaluri, Elisa
AU - Puglisi, Alfio
AU - Ragazzoni, Roberto
AU - Rossi, Fabio
N1 - Publisher Copyright:
© 2022 SPIE.
PY - 2022
Y1 - 2022
N2 - SHARK-NIR is an instrument which provides direct imaging, coronagraphic imaging, dual band imaging and low resolution spectroscopy in Y, J and H bands, taking advantage of the outstanding performance of the Large Binocular Telescope AO systems. Binocular observations will be provided used in combination with SHARK-VIS (operating in V band) and LMIRCam of LBTI (operating from K to M bands), in a way to exploit coronagraphic simultaneous observations in three different wavelengths. A wide variety of coronagraphic techniques have been implemented in SHARK-NIR, ranging from conventional ones such as the Gaussian Lyot, to others quite robust to misalignments such as the Shaped Pupil, to eventually techniques more demanding in term of stability during the observation, as the Four Quadrant; the latter is giving in theory and simulations outstanding contrast, and it is supported in term of stability by the SHARK-NIR internal fast tip-tilt loop and local NCPA correction, which should ensure the necessary stability allowing this technique to operate at its best. The main science case is of course exoplanets search and characterization and young stellar systems, jets and disks characterization, although the LBT AO extreme performance, allowing to reach excellent correction even at very faint magnitudes, may open to science previously difficult to be achieved, as for example AGN and QSO morphological studies. The institutes participating to the SHARK-NIR consortium which designed and built the instrument are Istituto Nazionale di Astro Fisica (INAF, Italy), the Max Planck Institute for Astronomy (MPIA, Heidelberg, Germany) and University of Arizona/Steward Observatory (UoA/SO, Tucson, Az, USA). We report here about the SHARK-NIR status, that should achieve first light at LBT before the end of 2022.
AB - SHARK-NIR is an instrument which provides direct imaging, coronagraphic imaging, dual band imaging and low resolution spectroscopy in Y, J and H bands, taking advantage of the outstanding performance of the Large Binocular Telescope AO systems. Binocular observations will be provided used in combination with SHARK-VIS (operating in V band) and LMIRCam of LBTI (operating from K to M bands), in a way to exploit coronagraphic simultaneous observations in three different wavelengths. A wide variety of coronagraphic techniques have been implemented in SHARK-NIR, ranging from conventional ones such as the Gaussian Lyot, to others quite robust to misalignments such as the Shaped Pupil, to eventually techniques more demanding in term of stability during the observation, as the Four Quadrant; the latter is giving in theory and simulations outstanding contrast, and it is supported in term of stability by the SHARK-NIR internal fast tip-tilt loop and local NCPA correction, which should ensure the necessary stability allowing this technique to operate at its best. The main science case is of course exoplanets search and characterization and young stellar systems, jets and disks characterization, although the LBT AO extreme performance, allowing to reach excellent correction even at very faint magnitudes, may open to science previously difficult to be achieved, as for example AGN and QSO morphological studies. The institutes participating to the SHARK-NIR consortium which designed and built the instrument are Istituto Nazionale di Astro Fisica (INAF, Italy), the Max Planck Institute for Astronomy (MPIA, Heidelberg, Germany) and University of Arizona/Steward Observatory (UoA/SO, Tucson, Az, USA). We report here about the SHARK-NIR status, that should achieve first light at LBT before the end of 2022.
KW - adaptive secondary
KW - coronagraphy
KW - extreme adaptive optics
KW - large binocular telescope
KW - planet finding
KW - pyramid sensor
UR - http://www.scopus.com/inward/record.url?scp=85175954280&partnerID=8YFLogxK
UR - http://www.scopus.com/inward/citedby.url?scp=85175954280&partnerID=8YFLogxK
U2 - 10.1117/12.2630083
DO - 10.1117/12.2630083
M3 - Conference contribution
AN - SCOPUS:85175954280
T3 - Proceedings of SPIE - The International Society for Optical Engineering
BT - Adaptive Optics Systems VIII
A2 - Schreiber, Laura
A2 - Schmidt, Dirk
A2 - Vernet, Elise
PB - SPIE
T2 - Adaptive Optics Systems VIII 2022
Y2 - 17 July 2022 through 22 July 2022
ER -