TY - JOUR
T1 - The Star-Planet Activity Research CubeSat (SPARCS)
T2 - A mission to understand the impact of stars in exoplanets
AU - Ardila, David R.
AU - Shkolnik, Evgenya
AU - Scowen, Paul
AU - Jewell, April
AU - Nikzad, Shouleh
AU - Bowman, Judd
AU - Fitzgerald, Michael
AU - Jacobs, Daniel
AU - Spittler, Constance
AU - Barman, Travis
AU - Peackock, Sarah
AU - Beasley, Matthew
AU - Gorgian, Varoujan
AU - Llama, Joe
AU - Meadows, Victoria
AU - Swain, Mark
AU - Zellem, Robert
N1 - Publisher Copyright:
Copyright © 2018, The Authors. All rights reserved.
Copyright:
Copyright 2020 Elsevier B.V., All rights reserved.
PY - 2018/8/28
Y1 - 2018/8/28
N2 - The Star-Planet Activity Research CubeSat (SPARCS) is a NASA-funded astrophysics mission, devoted to the study of the ultraviolet (UV) time-domain behavior in low-mass stars. Given their abundance and size, low-mass stars are important targets in the search for habitable-zone, exoplanets. However, not enough is known about the stars flare and quiescent emission, which powers photochemical reactions on the atmospheres of possible planets. Over its initial 1-year mission, SPARCS will stare at ≈10 stars in order to measure short- (minutes) and long- (months) term variability simultaneously in the near-UV (NUV - δc = 280 nm) and far-UV (FUV – lc = 162 nm). The SPARCS payload consists of a 9-cm reflector telescope paired with two high-sensitivity 2D-doped CCDs. The detectors are kept passively cooled at 238K, in order to reduce dark-current contribution. The filters have been selected to provide strong rejection of longer wavelengths, where most of the starlight is emitted. The payload will be integrated within a 6U CubeSat to be placed on a Sun-synchronous terminator orbit, allowing for long observing stares for all targets. Launch is expected to occur not earlier than October 2021.
AB - The Star-Planet Activity Research CubeSat (SPARCS) is a NASA-funded astrophysics mission, devoted to the study of the ultraviolet (UV) time-domain behavior in low-mass stars. Given their abundance and size, low-mass stars are important targets in the search for habitable-zone, exoplanets. However, not enough is known about the stars flare and quiescent emission, which powers photochemical reactions on the atmospheres of possible planets. Over its initial 1-year mission, SPARCS will stare at ≈10 stars in order to measure short- (minutes) and long- (months) term variability simultaneously in the near-UV (NUV - δc = 280 nm) and far-UV (FUV – lc = 162 nm). The SPARCS payload consists of a 9-cm reflector telescope paired with two high-sensitivity 2D-doped CCDs. The detectors are kept passively cooled at 238K, in order to reduce dark-current contribution. The filters have been selected to provide strong rejection of longer wavelengths, where most of the starlight is emitted. The payload will be integrated within a 6U CubeSat to be placed on a Sun-synchronous terminator orbit, allowing for long observing stares for all targets. Launch is expected to occur not earlier than October 2021.
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M3 - Article
AN - SCOPUS:85094347855
JO - Nuclear Physics A
JF - Nuclear Physics A
SN - 0375-9474
ER -