Bibcode
Ricker, George R.; Winn, Joshua N.; Vanderspek, Roland; Latham, David W.; Bakos, Gáspár Á.; Bean, Jacob L.; Berta-Thompson, Zachory K.; Brown, Timothy M.; Buchhave, Lars; Butler, Nathaniel R.; Butler, R. Paul; Chaplin, William J.; Charbonneau, David; Christensen-Dalsgaard, Jørgen; Clampin, Mark; Deming, Drake; Doty, John; De Lee, Nathan; Dressing, Courtney; Dunham, Edward W.; Endl, Michael; Fressin, Francois; Ge, Jian; Henning, Thomas; Holman, Matthew J.; Howard, Andrew W.; Ida, Shigeru; Jenkins, Jon M.; Jernigan, Garrett; Johnson, John Asher; Kaltenegger, Lisa; Kawai, Nobuyuki; Kjeldsen, Hans; Laughlin, Gregory; Levine, Alan M.; Lin, Douglas; Lissauer, Jack J.; MacQueen, Phillip; Marcy, Geoffrey; McCullough, Peter R.; Morton, Timothy D.; Narita, Norio; Paegert, Martin; Palle, E.; Pepe, Francesco; Pepper, Joshua; Quirrenbach, Andreas; Rinehart, Stephen A.; Sasselov, Dimitar; Sato, Bun'ei; Seager, Sara; Sozzetti, Alessandro; Stassun, Keivan G.; Sullivan, Peter; Szentgyorgyi, Andrew; Torres, Guillermo; Udry, Stephane; Villasenor, Joel
Bibliographical reference
Journal of Astronomical Telescopes, Instruments, and Systems, Volume 1, id. 014003 (2015).
Advertised on:
1
2015
Citations
1000
Refereed citations
927
Description
The Transiting Exoplanet Survey Satellite (TESS) will search for planets
transiting bright and nearby stars. TESS has been selected by NASA for
launch in 2017 as an Astrophysics Explorer mission. The spacecraft will
be placed into a highly elliptical 13.7-day orbit around the Earth.
During its 2-year mission, TESS will employ four wide-field optical
charge-coupled device cameras to monitor at least 200,000 main-sequence
dwarf stars with IC≈4-13 for temporary drops in brightness
caused by planetary transits. Each star will be observed for an interval
ranging from 1 month to 1 year, depending mainly on the star's ecliptic
latitude. The longest observing intervals will be for stars near the
ecliptic poles, which are the optimal locations for follow-up
observations with the James Webb Space Telescope. Brightness
measurements of preselected target stars will be recorded every 2 min,
and full frame images will be recorded every 30 min. TESS stars will be
10 to 100 times brighter than those surveyed by the pioneering Kepler
mission. This will make TESS planets easier to characterize with
follow-up observations. TESS is expected to find more than a thousand
planets smaller than Neptune, including dozens that are comparable in
size to the Earth. Public data releases will occur every 4 months,
inviting immediate community-wide efforts to study the new planets. The
TESS legacy will be a catalog of the nearest and brightest stars hosting
transiting planets, which will endure as highly favorable targets for
detailed investigations.
Related projects
Exoplanets and Astrobiology
The search for life in the universe has been driven by recent discoveries of planets around other stars (known as exoplanets), becoming one of the most active fields in modern astrophysics. The growing number of new exoplanets discovered in recent years and the recent advance on the study of their atmospheres are not only providing new valuable
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