Telescope Facilities
List compiled by D.M. Alexander, University of Cambridge; email:
dma (at) ast.cam.ac.uk (last updated 5th August 2005)
The objective of this web page is to list telescope facilities and the
available instruments (plus basic details of each facility) that are
mostly suitable for extragalactic research. For further and more
accurate information the individual telescope/observatory pages should
be consulted. This list isn't intended to be exhaustive and may have
some inaccuracies but should be useful as a general guide.
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Click
here for a comprehensive list of telescopes and click here or here
for seasonal observability of targets at different
latitudes/observatories
X-ray Observatories:
Chandra X-ray Observatory (NASA great observatory; July 23rd 1999+); ~0.1-10 keV; ~0".5 resolution; Proposal deadline: ~15 March
XMM-Newton (ESA cornerstone mission; December 10th 1999+); 0.15-15 keV; ~6" resolution: Proposal deadline: ~October
- EPIC "pn", "MOS1" and "MOS2": imaging and spectroscopy over ~30' diameter
- RGS: grating spectroscopy with EPIC "MOS, spectral resolution of R=150-800 over 0.33-2.5 keV
- Optical Monitor: 30cm optical/ultraviolet telescope providing coverage at 170-650nm over central 17' of the X-ray field of view
Integral (ESA; October 17 2002+); Proposal deadline: ~October
- Imager on Board the Integral Satellite (IBIS): 15 keV to 10 MeV; 8 keV spectral res, 12' PSF, 8.3x8 deg FOV, locates sources to 30" precision
- Spectrometer on Integral (SPI): 18 keV to 8 MeV; 3 keV spectral res, 2.5 deg PSF, and 16x16 deg FOV
- Optical Monitoring Camera (OMC): 500-600nm imaging; 23" PSF, and 5x5 deg FOV
- Joint European X-ray Monitor (JEM-X); 4-35 keV for source identification; 2 keV spectral res, 3' PSF, 4.8x4.8 deg FOV
Swift (NASA MIDEX; 20th November 2004+):
- Burst Alert Telescope (BAT): 15-150 keV (17' PSF, 4' positions)
- X-ray Telescope (XRT): imaging at 0.2-10 keV (15" resolution; 23.6' FOV) will refine BAT positions down to 2.5"
- Ultra-violet/Optical Telescope (UVOT): imaging at 170-650nm over 17'x17' field
ASTRO-E2 (Suzaku) (JAXA; July 10th 2005+); 0.4-700 keV; ~30" resolution; Proposal deadline: ~August
RXTE (NASA; 30th December 1995+): the Rossi X-ray Timing Explorer is optimised to explore the variability of bright X-ray sources at 2-250 keV; Proposal deadine: ~September
Some Future X-ray Observatories (some are only proposed):
ASTROSAT (India; launch 2007+): planned 0.3-80 keV coverage, including UV (100-300nm), for imaging, spectroscopy, and timing observations
Lobster (ESA; launch 2009+): planned 0.1-3 keV all-sky mointor with 4' resolution over 162x22.5 sq deg; originally planned to be sited on international space station
NuSTAR (NASA MIDEX; launch 2009+): planned 6-80 keV coverage with ~40" resolution over ~8.4'x8.4'
SIMBOL-X (CNES; launch 2012+): proposal for a 0.5-70 keV formation-flying observatory with a 30m focal length mirror; 2 orders of magnitude improvement in angular resolution and sensitivity over previous non-focusing observatories
Constellation-X (NASA; launch 2015+): planned 0.25-40 keV coverage with 15" (0.25-10 keV; 2.5' FOV) and 1' (10-40 keV; 8' FOV) resolution; high-resolution spectroscopy (few eV) is the main goal
XEUS (ESA; launch 2017+): proposed 0.1-40 keV coverage with ~2-5" resolution over ~7' FOV; high-resolution spectroscopy (~6eV) is the main goal
Ultraviolet to Infrared Ground-Based Observatories:
Click here for a comprehensive list of optical-based telescopes
Click here for a list of near-infrared spectrographs on big telescopes
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Very Large Telescope (VLT)
(ESO, Paranal, Chile; May 25-26 1998+ for first telescope): four
8.2m telescopes (ANTU; KUEYEN; MELIPAL; YEPUN) that can be used in
interformetric mode (up to 100+m baseline) to achieve the senstivity
of a ~16m telescope (VLTI); variety of instruments and modes are
available, covering the broad wavelength range of near-UV to
mid-infrared. Proposal deadlines: ~1st April and ~1st October; Latitude=-24 deg, 37' (elevation=2635m)
- ANTU instruments:
- FORS1 (1998+): 330-1100nm imaging/low-resolution spectroscopy/polarimeter/multi-object spectroscopy and spectropolarimetry (2k x 2k detector; R=260-1700); better blue sensitivity than FORS2 but worse red sensitivity (see below); FOV=3.4'x3.4' or 6.8'x6.8' depending on image scale
- ISAAC (1998+): near-infrared imager/spectrograph/polarimetry with 1k x 1k array arrays (1-2.5 microns and 3-5 microns); spectroscopy at R=500, 2000, and 3000
- CRIRES (2004+): cryogenic high-resolution infrared spectrograph (1-5 microns) with Rmax=100,000
- KUEYEN instruments:
- UVES (1999+): high-resolution optical spectrograph (300-1100nm; Rmax=110,000)
- FORS2 (1999+): 330-1100nm imaging/low-resolution spectroscopy/multi-object spectroscopy/spectroscopic masks/high time resolution mode (2k x 4k detector; R=260-2600); improved red sensitivity (>750nm) over FORS1 but reduced blue sensitivity (<400nm); FOV=4.25'x4.25' or 6.8'x6.8' depending on image scale
- FLAMES (2002+): multi-object, intermediate and high-resolution spectrograph (or integral field unit) over 25' diameter FOV; FLAMES feeds UVES or GIRAFFE spectrographs: UVES provides maximum resolution but can only do 8 targets while GIRAFFE can observe up to 130 targets (or do integral field spectroscopy) with R=10,000 or R=25,000 spectroscopy
- MELIPAL instruments:
- VIMOS (2002+): optical (0.37-1.0 microns) wide field imager (FOV: 7'x8'), multi-object spectrograph (R~200-2500), and integral field unit; 100-1000 slits can be utilised in one go
- Visitor instruments (2003+)
- VISIR (2004+): mid-infrared (8 to 13 and 16.5 and 24.5 microns) spectrometer and imager (R=50-30,000)
- YEPUN instruments:
- NACO (2002+): adaptive optics assisted imaging, polarimety, coronography, and spectroscopy in the near-infrared band (1-5 microns), including Fabry-Perot at 2-2.5 microns
- SINFONI (2004+): near-infrared (1-2.5 microns) integral field unit (called SPIFFI) fed by adaptive optics module (R~1500-4000, depending on band and wavelength coverage); FOV: 0.8"x0.8", 3"x3", or 8"x8"; 32 slitlets
- LGS (2004+): laser guide star development
- HAWKI (from 2006/7+): near-infrared imager (0.85-2.5 microns; FOV: 7.5'x7.5'), including narrow-band filters; will cover much larger FOV than ISAAC from 4.2k x 2k array
- VLTI (16m interferometer) instruments:
- MIDI (2003+): mid-infrared (8-13 microns) spectroscopy (R=30 or R=230) and imaging?
- AMBER (2003+): near-infrared (1-2.4 microns) spectroscopy (R=35 or R=1500) and imaging?
- PRIMA (2003+): Phase-Referenced Imaging and Micro-arcsecond Astrometry - aim is to increase sensitivity of VLTI by ~5 magnitudes (K<19) and provide high-precision astrometry (~10 micro-arcsec) for planet detection (Jupiter-like objects out to 240pc)
- VST (VLT Survey Telescope): 2.6m telescope designed for wide-field imaging ( OmegaCAM; FOV=1.5 degrees) at optical wavelengths to provide faint/rare objects for VLT spectroscopic follow-up observations; the successor of the WFI on the 2.2m telescope in La Silla
Other ESO telescopes (La Silla, Chile); inaugurated in 1969; Proposal deadlines: ~1st April and ~1st October; Latitude=-29 deg, 15' (elevation=2400m)
- 2.2m telescope:
- FEROS: high-resolution echelle spectrograph (R=48,000) in optical band (350-920nm) in single spectrogram
- WFI: wide-field imager (FOV=34'x33') in optical band (305-1000nm?)
- 3.6m telescope (1977+):
- CES: very high-resolution spectrograph (Rmax=235,000) in opitcal band (346-1028nm); echelle spectrograph
- EFOSC2: optical (305-1100nm) imaging and spectroscopy, including polarimetry, multi-object spectroscopy/spectropolarimetry, and coronography; FOV=5.2'x5.2'
- HARPS: high-accuracy radial velocity planet searcher; fibre-fed high-resolution echelle spectrograph
- TIMMI2: mid-infrared (4-20 microns) imager and spectrograph (R=130 and R=160)
- NTT telescope:
- EMMI: multi-purpose instrument: wide-field imaging (up to 9.1'x9.9'), low-to-medium resolution spectroscopy (R=280-9000), multi-object spectroscopy, and echelle spectroscopy (Rmax=70,000) at 300-500nm and 400-1000nm
- SOFI: near-infrared (0.9-2.5 microns) spectrograph and imager (FOV up to 4.9'); spectral resolution R=600-1200
- SUSI2: direct imaging camera optimised for periods of good seeing in optical band (340-1100nm); FOV=5.5'x5.5'
8m Gemini-North telescope (US/UK/Can/Chile/Aus/Bra/Arg; Mauna Kea, Hawaii): UK gets ~25-30% share of the available time; Proposal deadlines: ~31 March and ~31 September; Latitude=+19 deg, 49' (elevation=4139m)
- GMOS-North: multi-slit spectroscopy over 5.5' FOV at 0.36-1.1 microns; also equiped with an integral field unit to obtain spectra simultaneously over 35 sq arcsec
- GPOL: Not sure if available yet
- Michelle: Mid-infrared imaging and spectroscopy at 7-26 microns (at 8-13 and 16-25 microns) at low resolution (R~110-200) and medium/high resolution (R~1000-30,000); FOV=32"x24"
- NIFS: Integral field spectrometer at 0.95-2.4 microns that should be available from end-2005/start-2006; FOV=3"x3" (R~5000) and K-band spectropolarimetry is also available
- NIRI: imager (up to 2'x2' FOV) and spectrometer (R~400-1700) at near-infrared wavelengths (1-6 microns); can be used with ALTAIR adaptive optics
8m Gemini-South telescope (US/UK/Can/Chile/Aus/Bra/Arg; Cerro Pachion, Chile): UK gets ~20-25% share of the available time; Proposal deadlines: ~31 March and ~31 September; Latitude=-24 deg, 37' (elevation=2700m)
- bHROS: high-resolution (R=150,000) optical spectrograph at 400-1000nm
- GMOS-South: multi-slit spectroscopy over 5.5' FOV at 0.36-1.1 microns; also equiped with an integral field unit to obtain spectra simultaneously over 35 sq arcsec
- GNIRS: spectroscopy (R=1700, 5900, and 18,000) and integral field unit (5 arcsec field) at 1-5.5 microns
- GPOL: Not sure if available yet
- NICI: coronographic imager at 1-2.5 microns
- Phoenix: high-resolution (R~50,000-70,000) near-infrared spectrometer (1-5 microns)
- T-ReCS: mid-infrared (8-26 microns) imager and spectrograph (R~80-1000)
4m VISTA Telescope (PPARC; Paranal, Chile; 2006+): wide-field of view telescope that is able to feed to either an infrared (1 sq degree; zJHK) or optical camera (2.25 sq degree; u'g'r'i'z'), intended for large-area or ultra-deep imaging surveys (effectively replacing 1.2m UKST); Latitude=-24 deg, 37' (elevation=2700m)
3.8m United Kingdom Infrared Telescope (UKIRT; Mauna Kea, Hawaii): PPARC owned telescope for UK community and operated by the Joint Astronomy Centre; Proposal deadlines: ~15 March and ~15 September; Latitude=+19 deg, 49' (elevation=4139m)
- WFCAM: Wide field 0.8-2.5 micron camera covering a 0.75 square degree tile in 4 pointings
- UIST: 1-5 micron imaging (FOV=2'x2' or 1'x1') and long-slit grism spectroscopy with R~1500-3500. Also integral-field spectroscopy (over 3.3"x6") and imaging- (FOV=20 arcsec) and spectro-polarimetry available
- UFTI: 1-2.5 micron camera with 1024x1024 pixels; pixel scale 0.09". Imaging polarimetry and K-band 400 km/s FP also available; UFTI is more sensitive than UIST for point sources
- CGS4: 1-5 micron long-slit grating spectrometer with R ~ 400-40,000
- IRPOL2: UKIRT's polarimetry module for use with all instruments except Michelle, which has its own waveplates; can do both imaging- and spectro-polarimetry, depending upon the utility of the underlying instrument
- Michelle: 10-20 micron imaging and long-slit grating spectroscopy. Echelle spectroscopy and imaging/spectro-polarimetry also available. Instrument currently at Gemini
- Visitor instruments
4.2m William Herschel Telescope (WHT, La Palma): operational since 1st June 1987; owned by PPARC with ~20% Dutch stake; Proposal deadlines: ~15 March and ~15 September; Latitude=+28 deg, 45' (elevation=2330m)
- INGRID: near-infrared (0.8-2.5 microns) camera (FOV=40"x40") for high-resolution imaging, particularly when combined with NAOMI; a coronograph (OSCA) can be placed in the light path to INGRID
- INTEGRAL/WYFFOS: integral-field units connected to WYFFOS (up to 4)
- ISIS: medium-resolution spectrograph, including spectropolarimetry and imaging polarimetry at optical wavelengths (~300-1000nm)
- LIRIS: long-slit intermediate resolution infrared spectrograph and imager at near-infrared wavelengths (0.9-2.4 microns); FOV=4.27'x4.27', and R=700 or R=3000
- NAOMI: adaptive optics assisted imaging and spectroscopy at optical and near-infrared wavelengths, achieving near diffraction limited imaging in the near-infrared (~0.15"); can be used on OASIS
- OASIS: integral-field spectroscopy with/without adaptive optics (NAOMI); FOV=2.7"x2.7" to 12.0"x16.7" and 1100 lenslets at optical wavelengths (~400-1000nm)
- AF2/WYFFOS: multi-object (~150), wide-field (1 degree) fibre spectrograph at optical wavelengths (~350-1000nm)
2.5m Isaac Newton Telescope (INT, La Palma): owned by PPARC with ~20% Dutch stake; fully operated by visiting astronomers and no telescope operator is available; Proposal deadlines: ~15 March and ~15 September; Latitude=+28 deg, 45' (elevation=2330m)
3.6m Telescopio Nazionale Galileo (TNG, La Palma): Italian telescope but at the time of writing the UK community is allowed to apply for time (5n minimum will be available, including NL); Proposal deadlines: ~15 March and ~15 September; Latitude=+28 deg, 45'
- SARG: high-resolution (R=29,000 to R=164,000) spectrograph at optical wavelengths (~370-900nm)
- NICS: multi-purpose near-infrared (0.9-2.5 microns) instrument, providing imaging (FOV=4.2'x4.2'), low-to-medium resolution spectroscopy (R=50-2500), imaging polarimetry, spectropolarimetry, and near diffraction limited imaging when combined with ADOPT
- DOLORES: multi-purpose instrument, including spectroscopy (R=300-3000), imaging (FOV=9.4'x9.4'), and multi-object spectroscopy (~15-25 objects) at optical wavlengths
- ADOPT: adaptive optics module
- OIG: optical (0.32-1.1 microns) imager over 4.9'x4.9' FOV
- Speckle Camera: allowing diffraction limited imaging at optical wavelengths (FOV=3.5"x3.5")
3.9m Anglo-Australian Telescope (AAT, Australia): joint Australian and UK telescope; commissioned in 1974, one of the last equatorially mounted large telescopes; Proposal deadlines: ~15 March and ~15 September; Latitude=+31 deg, 15' (elevation=1130m)
- 2dF : two degree field multi-object spectrograph, allowing up to 400 simultaneous spectra in one shot (R=450-2500) at ~400-1000nm
- IRIS2: infrared imager and longslit/multi-slit spectrograph (~40 objects) covering 7.7'x7.7' at 0.9-2.5 micron (R~2400)
- UCLES: University College London Echelle Spectrograph; cross-dispersed echelle spectrograph with resolution R=40,000-120,000
- UHRF: ultra-high resolution facility, echelle spectrograph with R=300,000, 600,000, or 900,000 over very small spectral regions at ~300-1100nm
- WFI : wide-field imager covering 33'x33' at optical wavelengths
- Visitor instruments
1.2m UKST: United Kingdom Schmidt Telescope, a special purpose telescope with a wide-angle field of view originally designed to photograph 6.6x6.6 degree regions of the Southern sky; joint Australian and UK telescope operating since 1973; Proposal deadlines: ~15 March and ~15 September; Latitude=+31 deg, 15' (elevation=1130m)
- 6dF: six degree field multi-object spectrograph (~150 objects) at ~360-880nm
Ultraviolet to Infrared Ground-Based Observatories that the UK Community may also be able to access:
10m Keck (Caltech, Mauna Kea, Hawaii): twin 10m telescopes owned by Caltech; some international time is available to the UK community via the NOAO; Latitude=+19 deg, 49' (elevation=4139m)
- Keck I instruments:
- HIRES: high-resolution echelle spectrometer (R=30,000-80,000) over 300-1000nm
- LRIS: dual-beam UV-to-near-infrared spectrometer and imager designed for observations of very faint objects; LRIS offers long-slit and multi-slit spectroscopy (R=300-5000) and imaging over 6'x8' FOV
- NIRC: imaging (FOV=38"x38") and spectroscopy (R=100) over 1-5 microns; speckle mode available for high-resolution imaging
- Keck II instruments:
- DEIMOS: deep imaging multi-object spectrograph (up to 130 objects) over 16.7'x 5.0' FOV at 400-1050nm
- ESI: echellette spectrograph and imager (R=1000-6000) at 390-1100nm; FOV=2'x3.5'
- NIRC2: near-infrared (1-5 microns) camera intended for sensitive high-resolution imaging with the adaptive optics system (FOV=10", 20", and 40"); coronographic imaging and diffraction-limited spectroscopy also available (R=5000)
- NIRSPEC: near-infrared (0.96-5.5 microns) echelle spectroscopy (R=2000 or 25,000); FOV=46" square (for slit-viewing camera SCAM)
8.2m Subaru (NAOJ, Mauna Kea, Hawaii): need to check if international time is available to the UK community; Latitude=+19 deg, 49' (elevation=4139m)
- IRCS: Infrared Camera and Spectrograph at 1-5 microns
- CIAO: Coronagraphic Imager with Adaptive Optics at 0.9-5.5 microns
- COMICS (2000+): Cooled Mid Infrared Camera and Spectrometer (8-28 microns)
- FMOS (2005+) Fibre Multi-Object Spectrograph
- FOCAS (2000+): Faint Object Camera And Spectrograph (multi-slit with up to 100 objects)
- HDS (2000+): High-Dispersion Spectrograph (R~100,000) at 300-1000nm
- MOIRCS (2005+) Multi-Object Infrared Camera and Spectrograph
- OHS (2000+) OH-Airglow Suppressor; near-infrared (1-2 microns) spectrograph
- Suprime-Cam (2000+): wide-area (FOV=30'x24') imager at optical wavelengths
10.4m Grand Telescopio Canarias (GTC; various collaborations, La Palma; 2005+): 10.4m segemented telescope; Latitude=+28 deg, 45' (elevation=2330m)
- ELMER: multi-purpose optical 370-1000nm instrument: imaging (FOV=3'x3'), rapid photometry, spectroscopy (R=200 to 2500), multi-object spectroscopy, in a variety of modes
- OSIRIS: imaging (FOV=7'x7'), spectroscopy (R=500 to 2500) and multi-object spectroscopy (20 objects) at 365-1050nm
- CANARI-CAM: imaging (25.6"x19.2"), spectroscopy (R~60-1300), coronography, and imaging polarimetry at mid-infrared wavelengths (8-24 microns)
- EMIR: wide-field imaging (6'x6') and multi-object spectroscopy (R=4000) at near-infrared wavelengths (0.9-2.5 microns)
9.2m Hobby-Eberly Telescope (HET; various US and German institutions; McDonald Observatory, Texas): 9.2m telescope tailored for spectroscopy; fixed altitude telescope
11m South-African Large Telescope (SALT; South Africa; will shortly become operational) optmised for high-resolution spectroscopy (multi-object, Fabry-Perot; FOV=8') at optical-to-near-infrared wavelengths (320-2500nm) but also polarimetry; fixed altitude telescope; Elevation=1798m
3.6m Canadra French Hawaii Telescope (CFHT; Mauna Kea, Hawaii) with a broad range of imaging and spectroscopic instruments; Latitude=+19 deg, 49' (elevation=4139m)
3m InfraRed Telescope Facility (IRTF; Institute of Astronomy, Mauna Kea, Hawaii) with a broad range of imaging and spectroscopic instruments; Latitude=+19 deg, 49' (elevation=4139m)
Kitt Peak National Observatory (KPNO; NOAO, Arizona), including the 4m Mayall Telescope, the 3.5m WIYN Telescope, and the 2.1m Telescope; Latitude=+31 deg, 57' (elevation=2096m)
Cerro Tololo Inter-American Observatory (CTIO; NOAO, Chile), including the 4.0m Blanco Telescope, and the 4.1m SOAR Telescope; Latitude=-30 deg, 9' (elevation=2738m)
Apache Point Observatory (APO; New Mexico), including the Astrophysical Research Consortium 3.5m Telescope, and the Sloan Digital Sky Survey 2.5m Telescope; Latitude=+32 deg, 46' (elevation=2788m)
Calar Alto Observatory (German-Spanish; Southern Spain), including the 3.5m Telescope, and the 2.2m Telescope; Latitude=+37 deg, 10' (elevation=2168m)
Las Campanas Observatory (Carnegie Institution of Washington; La Serena, Chile), including the two 6.5m Magellan Telescopes, and the Irenee du Pont 2.5 Telescope; Latitude=-29 deg, 0' (elevation=2300m)
Palomar Observatory (Caltech; San Diego, California), including the 200in Hale Telescope with these instruments; Latitude=+33 deg, 21' (elevation=1706m)
Steward Observatory (University of Arizona plus various partners; variety of US locations), including the
7x8.4m Giant Magellan Telescope (under design), 2x8.4m Large Binocular Telescope (under design), 8.4m Large Synoptic Survey Telescope (FOV=10 sq degree; under design), 2x6.5m Magellan Project Telescope (under design), and the 6.5m Multi-Mirror Telescope (latitude=+31 deg, 41')
Some Extremely Large Telescope (ELT) designs:
The science case for extremely large telescopes
Overwhelmingly Large Telescope (OWL; ESO, 2016+): design for a 100m telescope, which will provide unrivalled light-gathering power and sensitivity with milli-arcsecond resolution
European 50m Telescope (EURO50; Finland, Ireland, Spain, Sweden, UK, 2013+): design for 50m telescope, possibly to be located in La Palma or Northern Chile
Thirty-Meter Telescope (TMT, formerly CELT; collaboration of mainly Californian institutes)
American Giant Segmented Mirror Telescope (GSMT; NOAO and Gemini): design for 30m-class telescopes
Canadian Very Large Optical Telescope (VLOT; Canadra): design for 20m telescope to replace the 4m CFHT
Ultraviolet to Infrared Space-Borne Observatories:
Hubble Space Telescope (HST, NASA great observatory; April 25th 1990+); ~2.4m telescope sensitive at ultra-violet to near-infrared wavelengths with ~0.1 arcsec resolution; Proposal deadline: ~January
Spitzer Space Telescope (SST, NASA great observatory; August 25th 2003+); ~0.8m telescope sensitive at infrared wavelengths (3-180 microns); Proposal deadline: ~February
Far-Ultraviolet Spectroscopic Explorer (FUSE, NASA; 24th June 1999+); 80cm telescope sensitive to 90.5-118.5nm emission, optimised for high-resolution spectroscopy (R=20,000); Proposal deadline: ~September
Galaxy Evolution Explorer (GALEX, NASA; May 21st 2003+); 29 month mission with a 50cm telescope, sensitive at ultraviolet wavelengths with a far-ultraviolet (135-180nm) and near-ultraviolet (180-280nm) detectors; will carry out a variety of surveys, including (amongst others) an all-sky survey, medium and deep imaging surveys, and wide and medium spectroscopic surveys (R=130-300), in addition to guest-observer programs
Some Future Ultraviolet to Infrared Space-Borne Observatories:
ASTRO-F (ISAS/JAXA; launch early 2006+); ~0.68m telescope sensitive at infrared wavelengths (1.8-180 microns); only has 1.5yr lifetime (due to cryogenic lifetime) and will perform all-sky survey; ~30% of the mission time is available for guest observer observations, split as 20% to Japan/Korea and 10% to European astronomers; Proposal deadline: ~November
- Far-Infrared Surveyor (FIS): four filters covering 50-180 microns (FOV=12.5'x7.5') and a fourier transform spectrometer (R=30-75 or R=170-450) covering 50-200 microns
- Infrared Camera (IRC): three cameras covering 1.8-26 microns over ~10'x~10' FOV, and low-resolution spectroscopy (R~20-135)
Stratospheric Observatory for Infrared Astronomy (SOFIA, NASA and DLR, Germany; launch 2006+): a 2.5m telescope on-board a modified Boeing 747SP! It will be able to take observations over a huge wavelength range (0.3 microns to 1.6mm) and achieve diffraction limited imaging at >15 microns; expected to make observations ~4x per week for ~20 years; acquiring new targets is non trivial as it requires a change in the flight path! The first generation of instruments will allow for a wide variety of observations (9 instruments in total); ~80% of the observation time will go to US+international institutions and ~20% will go to German institutions; expected proposal deadline: ~May
Herschel (ESA; launch 2007+ with Planck); 3.5m telescope sensitive at infrared-submillimeter wavelengths (60-670 microns); expected to have 3yr lifetime (due to cryogenic constraints)
Japanese far-infrared observatory (SPICA; launch 2010+); ~4m telescope to operate at ~5-200 microns; need to update with more details
Far-InfraRed Mission (ESA, FIRM; launch 2015+); design for arcsecond or less resolution observatory to operate at ~50-600 microns; need to update with more details
Wide-field Infrared Survey Explorer (WISE, NASA MIDEX; launch 2008+); planned 6 month mission with a 50cm telescope to perform an all-sky survey at 3.5-23 microns (FOV=38'x38') up to 1000 times more sensitive than the IRAS survey
James Webb Space Telescope (JWST, NASA origins; launch 2011+); planned ~6.5m telescope sensitive at optical to infrared wavelengths (0.6-28 microns); expected to have 5-10yr lifetime; successor to the Hubble Space Telescope (HST)
Single Aperture Far-Infrared observatory (SAFIR, NASA origins; launch 2015-2020): proposed follow-on mission to the Spitzer and Herschel observatories; an 8-10m diameter telescope sensitive to emission at ~20-1000 microns, with both imaging and spectroscopy capabilities
Submillimetre/Millimetre Observatories:
Click here for a comprehensive list of submillimetre/millimetre observatory links
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15m James Clerk Maxwell Telescope (JCMT, PPARC; Mauna Kea, Hawaii): Proposal deadline: 31 March and 31 September; Latitude=+19 deg, 49' (elevation=4139m)
10.4m Caltech Submillimeter Observatory (CSO, Caltech/NSF; Mauna Kea, Hawaii): Proposal deadline: 31 May and 31 October; Latitude=+19 deg, 49' (elevation=4139m)
30m IRAM telescope (French-German-Spainish collaboration): sited at Pico Veleta (elevation=2850m) in Spain; Proposal deadline: early March and early September
IRAM interferometer (French-German-Spainish collaboration): sited at Plateau de Bure (elevation=2550m) in France; 0.5" resolution at 230GHz with 20" FOV; Proposal deadline: early March and early September
15m SEST Telescope (Sweden-ESO, La Silla, Chile); Latitude=-29 deg, 15' (elevation=2400m); now decommissioned
Some Future Submillimetre/Millimetre Observatories:
12m APEX Telescope (various European institutions and ESO, Atacama desert, Chile; first light mid 2005); designed to work at 0.2-1.5mm wavelengths; pathfinder telescope for the more ambitious ALMA telescope; elevation=5100m
- LABOCA: imaging at 870 microns; a 350 micron array will also be constructed
- Heterodyne Recievers: spectral line observing at a variety of frequencies
Similar Atacama/ALMA experiments are planned/ongoing, including CAT (Cornell-Atacama 25m Telescope), NANTEN2 (4m spectral-line telescope to survey the southern sky), and ASTE (Atacama Submillimeter Telescope Experiment; Japanese 10m telescope)
Combined Array for Research in Millimeter-wave Astronomy (CARMA; operational soon): merging of the Owens Valley Radio Observatory (OVRO) millimeter array and the Berkeley-Illinois-Maryland Association (BIMA) millmeter array to form a powerful astronomical tool
Large Millimeter Telescope (LMT, INAOE and University of Massachusetts; operational 2007+): 50m telescope designed to observe at 1-4mm with a broad variety of instruments, sited close to Puebla, Mexico (elevation=4600m)
The Atacama Large Millimeter Array (ALMA; operational from 2008+ and fully complete 2013+) is an international collaboration to build a synthesis radio telescope that will operate at millimeter and submillimeter wavelengths; 64x12m antennaes with large baselines (10+km) will be used to achieve sub-arcsec resolution (down to ~0.01 arcseconds) for imaging and spectral line observations
Planck (ESA; launch 2007+ with Herschel): part of the "Cosmic Vision Programme" that is designed to image the anisotropies of the Cosmic Background Radiation Field over the whole sky
Radio Observatories:
MERLIN (PPARC, operated by Jodrell Bank/University of Manchester; various GB loations): array of radio telescopes distributed around Great Britain, with separations of up to 217km, operating at frequencies of 151 MHz to 24 GHz; at 5 GHz the resolution of MERLIN is better than 0.05 arcseconds; proposal deadline: ~15 March and ~15 September
European VLBI Network (EVN; various European locations): collaboration of the major radio astronomical institutes in Europe, Asia, and South Africa to perform high-angular resolution observations of radio sources; proposal deadline: ~June
Very Large Array (VLA, NRAO; New Mexico): 27 radio antennas of 25m diameter in Y-shaped configuration with a maximum basline of 36km, achieving resolutions up to 0.04 arcseconds (43 GHz); Latitude: 34 deg, 4' (elevation=2124m); proposal deadline: ~October
Very Long Baseline Array (VLBA, NRAO/NSF; various US locations): 10 radio antennas of 25m diameter separated by up to 5,000 miles; proposal deadlines: ~Feb, ~June, ~October
100m Effelsberg Radio Telescope (GBT, NRAO; West Virginia): can operate down to 3mm; Latitude: 50 deg, 31'; proposal deadline: ~October
100m Green Bank Telescope (GBT, NRAO; West Virginia): worlds largest fully steerable single aperture antenna; Latitude: 38 deg, 25'; proposal deadline: ~June
45m Giant Meterwave Radio Telescope (GMRT, various institutions in India; Pune, India): array of 30x45m antennas with a baseline of up to 25m; worlds largest radio telescope at metre wavelengths; Latitude: 19.1 deg; proposal deadline: ~1 August
305m Arecibo Radio Telescope (Arecibo, Puerto Rico): the worlds largest single-dish telescope, operating at 3cm to 6m wavelengths; Latitude: 18 deg 20'; proposal deadline: ~1 Feb, ~1 June, and ~1 October
Parkes (Parkes, NSW,
Australia): 64-m Single dish, 20cm multibeam most useful receiver;
Latitude: -33 deg, 0'; proposal deadline: ~1 June and ~1 December
Australia
Telescope Compact Array (ATCA, Narrabri, NSW, Australia): 6 radio
antennas of 25m diameter in an East-West configuration with a maximum
basline of 6km, bands available: 20 cm, 13 cm, 6 cm, 3 cm, 1 cm, 3mm,
achieving resolutions up to 0.5 arcseconds (1cm) and 2 arcsec in the
millimeter. North-south baseline of 214m to assist mm obseravtions;
Latitude: -30 deg, 18'; proposal deadline: ~1 June and ~1 December
Some Future Radio Observatories:
e-MERLIN (PPARC, operational 2006+): upgrade to MERLIN to achieve 30x better sensitivity than the current setup and ~3x improved spatial resolution to complement next generation of observatories and be a path finder for SKA
Long Wavelength Array
(LWA, operational from 2008+ and fully operational from 2010+): adding
low-frequency mode to the VLA+NMA telescopes, allowing for
observations at 25-87.5 MHz (and maybe also a 10-30 MHz antenna at
some stage), with 400-km baselines, sub-mJy sensitivity, and arcsecond
resolution (5-1.4 arcsecond at 25-87.5 MHz)
Expanded Very Large Array (E-VLA, operational 2007+): upgrade to VLA to achieve ~5-20x better sensitivity than the current setup and improved spatial resolution
Square Kilometer Array (SKA; operational from 2013+ and fully operational by 2020+): the next generation radio array to complement ALMA and JWST; interferometric array of individual antenna stations to achieve an equivalent collecting area of one square kilometera and spatial resolution down to ~1 milliarcsecond! A number of configurations are being considered, including 150 stations with ~90m-equivalent telescopes and 30 stations with ~200m-equivalent telescopes: ~50% located within inner 5km, ~75% within 150km and all within 5000km.