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The Origins Space TelescopeThe Universe has never been seen like this before. The window into the infrared opens only above Earth's atmosphere, and humanity has barely glimpsed outside. About half of the light emitted by stars, planets, and galaxies over the lifetime of the Universe emerges in the infrared. With an unparalleled sensitivity increase — up to a factor of 1,000 more than any previous or planned mission — the advance offered by the Origins Space Telescope (OST) is akin to that from the naked eye to humanity's first telescope, or from Galileo's first telescope to the first telescope in space. While key path-finding missions have glimpsed a rich infrared cosmos, extraordinary discovery space awaits; the time for a far-infrared revolution has begun.Are we alone or is life common in the Universe? OST will directly address this long-standing question by searching for signs of life in the atmospheres of potentially habitable terrestrial planets transiting M dwarf stars. How do planets become habitable? OST will trace the trail of cold water from the interstellar medium, through protoplanetary disks and into the outer reaches of our own Solar System. How do stars, galaxies, black holes and the elements of life form, from the cosmic dawn to today? With broad wavelength coverage and fast mapping speeds, OST will map millions of galaxies, simultaneously measuring star formation rates and black hole growth across cosmic time, peering deeper into the far reaches of the Universe than ever before.OST will be maintained at a temperature of 4 K, enabling its tremendous sensitivity gain, and will operate from 5 m to 600 m, encompassing the mid- and far-infrared. OST has two Mission Concepts: Concept 1 with a 9.1-m deployed off-axis primary, and Concept 2, described here, a non-deployed 5.9-m on-axis telescope with the equivalent collecting area of the James Webb Space Telescope (JWST). Concept 2 includes four instruments with capabilities for imaging (large surveys and pointed), spectroscopy (survey and high-resolution modes) and polarimetry, as well as an instrument for high-precision spectroscopy of transiting exoplanets. Concept 2 is optimized for maximum science return and minimal complexity, and offers fast mapping (approximately 60 arcseconds per second). We describe here the three key science themes for OST and the basic mission specifications.
Document ID
20190002363
Acquisition Source
Goddard Space Flight Center
Document Type
Reprint (Version printed in journal)
Authors
Battersby, Cara
(Connecticut Univ. Storrs, CT, United States)
Armus, Lee
(California Institute of Technology Pasadena, CA, United States)
Bergin, Edwin
(Michigan Univ. Ann Arbor, MI, United States)
Kataria, Tiffany
(Jet Propulsion Lab., California Inst. of Tech. Pasadena, CA, United States)
Meixner, Margaret
(Space Telescope Science Inst. Baltimore, MD, United States)
Pope, Alexandra
(Massachusetts Univ. Amherst, MA, United States)
Stevenson, Kevin B.
(Space Telescope Science Inst. Baltimore, MD, United States)
Cooray, Asantha
(California Univ. Irvine, CA, United States)
Leisawitz, David
(NASA Goddard Space Flight Center Greenbelt, MD, United States)
Scott, Douglas
(University of British Columbia Vancouver, British Columbia, Canada)
Bauer, James
(Maryland Univ. College Park, MD, United States)
Bradford, C. Matt
(Jet Propulsion Lab., California Inst. of Tech. Pasadena, CA, United States)
Ennico, Kimberly
(NASA Ames Research Center Moffett Field, CA, United States)
Fortney, Jonathan J.
(California Univ. Santa Cruz, CA, United States)
Kaltenegger, Lisa
(Cornell Univ. Ithaca, NY, United States)
Melnick, Gary J.
(Harvard-Smithsonian Center for Astrophysics Cambridge, MA, United States)
Milam, Stefanie N.
(NASA Goddard Space Flight Center Greenbelt, MD, United States)
Narayanan, Desika
(Florida Univ. Gainesville, FL, United States)
Padgett, Deborah
(Jet Propulsion Lab., California Inst. of Tech. Pasadena, CA, United States)
Pontoppidan, Klaus
(Space Telescope Science Inst. Baltimore, MD, United States)
Roellig, Thomas
(NASA Ames Research Center Moffett Field, CA, United States)
Sandstrom, Karin
(California Univ. San Diego, CA, United States)
Su, Kate Y. L.
(Arizona Univ. Tucson, AZ, United States)
Vieira, Joaquin
(Illinois Univ. Urbana-Champaign, IL, United States)
Wright, Edward
(California Univ. Los Angeles, CA, United States)
Zmuidzinas, Jonas
(California Institute of Technology Pasadena, CA, United States)
Staguhn, Johannes
(NASA Goddard Space Flight Center Greenbelt, MD, United States)
Sheth, Kartick
(NASA Headquarters Washington, DC United States)
Benford, Dominic
(NASA Headquarters Washington, DC United States)
Mamajek, Eric E.
(Jet Propulsion Lab., California Inst. of Tech. Pasadena, CA, United States)
Neff, Susan G.
(NASA Goddard Space Flight Center Greenbelt, MD, United States)
Carey, Sean
(California Institute of Technology Pasadena, CA, United States)
Burarella, Denis
(Laboratoire d' Astrophysique de Marseille Marseille, France)
De Beck, Elvire
(Onsala Space Observatory Sweden)
Gerin, Maryvonne
(Sorbonne University Paris, France)
Helmich, Frank P.
(Space Research Organization Netherlands Groningen, Netherlands)
Moseley, Harvey
(NASA Goddard Space Flight Center Greenbelt, MD, United States)
Sakon, Itsuki
(Toyo Univ. Tokyo, Japan)
Wiedner, Martinia C.
(Sorbonne University Paris, France)
Date Acquired
April 11, 2019
Publication Date
August 1, 2018
Publication Information
Publication: Nature Astronomy
Publisher: Springer Nature
Volume: 2
Issue: 8
e-ISSN: 2397-3366
Subject Category
Astronomy
Report/Patent Number
GSFC-E-DAA-TN60054
Funding Number(s)
CONTRACT_GRANT: NNN12AA01C-Empl
Distribution Limits
Public
Copyright
Other

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