Gemini South and LMC Credit Roger Smith (CTIO/Keck) Dennis Crabtree Gemini Observatory

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Gemini South and LMC Credit Roger Smith (CTIO/Keck) Dennis Crabtree Gemini Observatory OPD, SOAR and Gemini, Campos do Jordao, March 2010 1

Instruments Gemini s strengths: Observing flexibility IR sensitivity Image quality Software Telescope facilities

Mauna Kea GMOS ALTAIR+LGS* NIRI* NIFS* MICHELLE GNIRS* Cerro Pachón GMOS T-ReCS NICI* Phoenix FLAMINGOS-2* GeMS* (MCAO/Canopus) GSAOI* GPI* *AO instrumentation

GMOS: Gemini Multi-Object Spectrograph (GN&GS) NGC 3311 and 3309 in Eridanus Nod and Shuffle Improved sky subtraction Allows more (~200+) and shorter slits Optical Imaging 5.5'x5.5' FOV; 0.073 pixels Broad (ugriz) and NB filters Spectroscopy R ~ 600 4400 Long-slit: 0.25 5.0 wide slits; 108 and 330 long. Multi-slit: ~60 0.5 + slits are possible. IFU: 5 x7 1000 element science + 500 elements for sky. Detectors 3 E2V 2048x4608 pixels Planning now for GMOS-North upgrade to Hamamatsu CCDs in about 6 months. 4

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NIRI: Near-IR Imager (GN) Imaging f/6 0.12 /pix 120 FOV (natural seeing) f/14 0.05 /pix 51 FOV (L band, AO) f/32 0.02 /pix 22 FOV (M band, AO) 1 to 5 µm Y,J,H,K,L,M +NB filters Seeing-limited and Altair NGS/LGS AO HR8799 family of planets HR 8799 b, c, d Spectroscopy R ~ 450-1650 single long slit f/6: 0.2-0.8 x 50-110 slits f/32: 0.1-0.2 x 22 slits ALADDIN-2 detector 1024x1024 pixels 0.9 to 5.5 µm Spectroscopy to be phased out when GNIRS is re-commissioned on Gemini-North z~8.2 GRB 6

NIFS detection of gas inflow in NGC 4051 with 42km/s velocity slices along the H 2 profile. NIFS: Near-IR Integral Field Spectrometer (GN) Integral Field Spectroscopy Image slicer w/ 29 slices 3 x3 field ~70 detector pixels along each slice Spaxels ~0.1 x0.04 R ~ 5000 z,j,h, K bands HAWAII-2RG detector 2048x2048 pixels 0.9 2.5μm Coronagraphic mode also available Optimized for AO use with Altair 7

Detector 7 26 μm 320x240 Si:As IBC array Chopping and nodding (15 chop throw) Imaging FOV 32 x24 ; 0.1 pixels FWHM ~0.3 at 10 μm Spectroscopy R ~100 3000 long slit R ~10,000 30,000 eschelle Slits 0.36-1.3 wide x 43.2 Imaging polarimetry available MICHELLE: Mid-IR Echelle Spectrometer (GN) Michelle (plus other spectra) of HD 23514, in the Pleiades, providing evidence for colliding proto-planets. 8

GNIRS: Gemini Near-IR Spectrograph (coming to GN) 2 scales: 0.l5 and 0.05 /pixel Aladdin-3 detector 1024x1024 pixels 0.9-5.5 μm Long Slit spectroscopy 0.9 2.5μm, R~5900, 18000 1.1 2.5μm, R~1700 2.9 5.5μm, R~1700, 5900, 18000 λ: R1700: 0.3*λ; R5900: 0.09*λ; R18000: 0.03* λ Cross-Dispersed spectroscopy 0.9 2.5μm, R=1700 full coverage R=5900, partial coverage GNIRS is being refurbished in Hilo after accidentally overheating ~3 years ago GNIRS will be commissioned at GN in 2010A Will use Altair NGS/LGS AO 9

177 element DM, 10 W sodium laser LGS science operations ~1 to 2 weeks/month (resource limited) NGS Strehl 0.2 to 0.4 (best at H, K) LGS Strehl ~0.3 at 2.2 m (FWHM = 0.083 ), PSF stable for a month at a time LGS sky coverage ~40% (4% for NGS) Working to increase sky coverage and reduce residual vibrations SN 2008cs discovered with LGS AO 10

T-ReCS: Thermal Region Camera+Spectrograph (GS) Detector 320x240 Raytheon SBRC 5-28μm Chop and Nod (15 chop throw) Thermal emission from dust around a protostellar binary system Imaging Filters: N, Q + NB FOV: 28.8 x21.6 0.09 /pixel Long-slit Spectrograph R~100, 1000 at 10μm Slits: 0.21-1.32 x 21.6 11

NICI: Near IR Coronagraphic Imager (GS) FeII/BrG/H2 composite of Eta Carina (Image courtesy Kris Davidson) Planet search campaign is well underway many candidate planets Open use in 2010B 85 element curvature AO system Strehl ratio: up to 40% at 1.6μm Lyot coronagraph Dual channel imager 2 Aladdin-2 1024x1024 arrays FOV: 18 x18 ; 18mas/pixel 0.9 5.5μm Filters: J-M, NB, and specialized 1.6μm methane filters Spectral and angular differential imaging for planet searches Contrast >10 6 inside 1-2 12

Long slit eschelle spectrograph 4 pix slit R~50,000 3 pix slit R~65,000 2 pix slit R~80,000 λ: 0.005*λ, 1500 km/s (not cross-dispersed) 21 order sorting filters Aladdin-2 detector 1024x512 pixels 0.9-5.5 μm Resolving velocity structure Phoenix is on loan from NOAO Eta Carina 13

FLAMINGOS-2: Near-IR Imager and MOS (GS) Imaging 6.1 FOV; 0.18 /pixel 2 FOV; 0.09 /pixel (MCAO) Y, J, H, K filters ultra-narrow band, tunable filters for high-z searches Spectroscopy R ~ 1200 3000 FOV: 2'x6 (1 x2 MCAO) Long-slit or custom multi-slit masks (9 cold at once, daytime swappable) HAWAII-2 Detector: 0.95 2.5μm FLAMINGOS-2 has finished acceptance testing extensive work required before instrument is offered 14

Additional work required for F-2 to be a facility-class instrument MOS wheel mechanism Gate valve light baffle MOS cooling time Cooling line and vacuum issues Replacement array expected in April 15

FLAMINGOS-2: Near-IR Imager and MOS (GS) Pinhole grid spectra 16

GeMS + GSAOI (GS) Multi-conjugate AO known as GeMS (Gemini MCAO System) AO bench = Canopus Laser enclosure and beam transfer optics installed Waiting on 50 W Na laser Uniform near diffraction limited PSF over 2 FOV GSAOI imager: 1.4 x1.4 FOV; 0.02 /pixel 4 HAWAII-2RG detectors 0.9 2.5 µm JHK On-detector guide windows 17

Demonstrated Science Major limitations of AO: Sky coverage Small field of view MCAO provide ~30% sky coverage (LGS) and ~80 FoV ( AO Photometric accuracy (8x gain w.r.t Demonstrated physics Gemini MCAO: Work started mid 99 Funding was secured 2001-2002 Being integrated in La Serena First light in 2010 18

Strehl under median seeing conditions (0.7 ) J 20% ; H 40% ; K 60% Strehl uniformity: J 5% ; K 2% Sky coverage: Need 3 TT guide stars (Rlim = 18.5) Galactic pole 10% Average over whole sky 30% Compatible with degraded modes of operation (1 or 2 TTGS) SCAO MCAO 19

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QuickTime and a decompressor are needed to see this picture. 25

PI: Bruce Macintosh Project Scientist: James Graham AMNH, HIA, JPL, LLNL, UCLA, UCSC, U. Montreal

Planet Luminosity (L sun ) NIRI+Altair NICI GPI Marley et al. 2006 Age 27 27

GPI Planets 28 28

Extreme AO Coronagraph designed for planet detection and characterization Specialized high-order AO system will produce Strehl ratios >80% High-order interferometric WFS to minimize NCP errors Sophisticated apodized Lyot coronagraph Low-resolution Integral field spectrograph GPI passed CDR and is under construction now Delivery expected in mid-2011 29

Final version of the GPI design, which is now more robust to vibrations. 30

Gemini has a strong set of instrumentation covering optical mid-ir Powerful new capabilities, although delayed, will be available in the next year Flamingos-2, GNIRS GeMS will provide unique capability at Gemini South 31