Confirmation of water emission in the dayside spectrum of the ultrahot Jupiter WASP-121b
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N. Lewis | T. Kataria | J. Spake | D. Sing | J. Barstow | H. Wakeford | T. Mikal-Evans | N. Mayne
[1] F. Spiegelman,et al. A new set of atmosphere and evolution models for cool T–Y brown dwarfs and giant exoplanets , 2020, Astronomy & Astrophysics.
[2] Laura K. McKemmish,et al. Non-detection of TiO and VO in the atmosphere of WASP-121b using high-resolution spectroscopy , 2020, Astronomy & Astrophysics.
[3] S. Cabot,et al. Detection of neutral atomic species in the ultra-hot Jupiter WASP-121b , 2020, Monthly Notices of the Royal Astronomical Society.
[4] C. Watson,et al. Detection of Fe i in the atmosphere of the ultra-hot Jupiter WASP-121b, and a new likelihood-based approach for Doppler-resolved spectroscopy , 2020, 2001.06430.
[5] D. Bayliss,et al. Hot Exoplanet Atmospheres Resolved with Transit Spectroscopy (HEARTS) , 2020, Astronomy & Astrophysics.
[6] M. L'opez-Morales,et al. Detection of Na, K, and H2O in the hazy atmosphere of WASP-6b , 2019, Monthly Notices of the Royal Astronomical Society.
[7] K. Stevenson,et al. Analyzing Eight Years of Transiting Exoplanet Observations Using WFC3's Spatial Scan Monitor , 2019, 1910.02073.
[8] M. Paegert,et al. TESS Observations of the WASP-121 b Phase Curve , 2019, The Astronomical Journal.
[9] C. Henze,et al. Optical phase curve of the ultra-hot Jupiter WASP-121b , 2019, Astronomy & Astrophysics.
[10] Nikole K. Lewis,et al. The Hubble Space Telescope PanCET Program: Exospheric Mg ii and Fe ii in the Near-ultraviolet Transmission Spectrum of WASP-121b Using Jitter Decorrelation , 2019, The Astronomical Journal.
[11] M. Marley,et al. An emission spectrum for WASP-121b measured across the 0.8–1.1 μm wavelength range using the Hubble Space Telescope , 2019, Monthly Notices of the Royal Astronomical Society.
[12] N. Madhusudhan,et al. New avenues for thermal inversions in atmospheres of hot Jupiters , 2019, Monthly Notices of the Royal Astronomical Society.
[13] P. Lagage,et al. Thermo-compositional Diabatic Convection in the Atmospheres of Brown Dwarfs and in Earth’s Atmosphere and Oceans , 2019, The Astrophysical Journal.
[14] A. Burrows,et al. Statistical Characterization of Hot Jupiter Atmospheres Using Spitzer’s Secondary Eclipses , 2019, The Astronomical Journal.
[15] Geza Kovacs,et al. Secondary eclipse of the hot Jupiter WASP-121b at 2 μm , 2019, Astronomy & Astrophysics.
[16] T. Evans,et al. The HST PanCET Program: Hints of Na i and Evidence of a Cloudy Atmosphere for the Inflated Hot Jupiter WASP-52b , 2018, The Astronomical Journal.
[17] N. Lewis,et al. Fully scalable forward model grid of exoplanet transmission spectra , 2018, Monthly Notices of the Royal Astronomical Society.
[18] T. Evans,et al. An Optical Transmission Spectrum for the Ultra-hot Jupiter WASP-121b Measured with the Hubble Space Telescope , 2018, The Astronomical Journal.
[19] T. Evans,et al. An absolute sodium abundance for a cloud-free ‘hot Saturn’ exoplanet , 2018, Nature.
[20] Tommi Koskinen,et al. Extremely Irradiated Hot Jupiters: Non-oxide Inversions, H− Opacity, and Thermal Dissociation of Molecules , 2018, The Astrophysical Journal.
[21] M. Deleuil,et al. From thermal dissociation to condensation in the atmospheres of ultra hot Jupiters: WASP-121b in context , 2018, Astronomy & Astrophysics.
[22] Jacob L. Bean,et al. H− Opacity and Water Dissociation in the Dayside Atmosphere of the Very Hot Gas Giant WASP-18b , 2018, 1801.02489.
[23] Nikole K. Lewis,et al. The Complete Transmission Spectrum of WASP-39b with a Precise Water Constraint , 2017, 1711.10529.
[24] D. Ehrenreich,et al. Hubble PanCET: an isothermal day-side atmosphere for the bloated gas-giant HAT-P-32Ab , 2017, 1711.00859.
[25] Nikolay Nikolov,et al. A library of ATMO forward model transmission spectra for hot Jupiter exoplanets , 2017, 1710.10269.
[26] Michael C. Liu,et al. Cloudless Atmospheres for Young Low-gravity Substellar Objects , 2017, 1710.02640.
[27] Nikole K. Lewis,et al. An ultrahot gas-giant exoplanet with a stratosphere , 2017, Nature.
[28] Nikole K. Lewis,et al. HAT-P-26b: A Neptune-mass exoplanet with a well-constrained heavy element abundance , 2017, Science.
[29] I. Baraffe,et al. Advection of Potential Temperature in the Atmosphere of Irradiated Exoplanets: A Robust Mechanism to Explain Radius Inflation , 2017, 1704.05440.
[30] I. Baraffe,et al. The Effects of Consistent Chemical Kinetics Calculations on the Pressure-Temperature Profiles and Emission Spectra of Hot Jupiters , 2016, 1607.04062.
[31] T. Evans,et al. DETECTION OF H2O AND EVIDENCE FOR TiO/VO IN AN ULTRA-HOT EXOPLANET ATMOSPHERE , 2016, 1604.02310.
[32] S. Hinkley,et al. CLOUDLESS ATMOSPHERES FOR L/T DWARFS AND EXTRASOLAR GIANT PLANETS , 2016, 1601.03652.
[33] A. Santerne,et al. WASP-121 b: a hot Jupiter close to tidal disruption transiting an active F star , 2015, 1506.02471.
[34] Gilles Chabrier,et al. FINGERING CONVECTION AND CLOUDLESS MODELS FOR COOL BROWN DWARF ATMOSPHERES , 2015, 1504.03334.
[35] J. Manners,et al. Accuracy tests of radiation schemes used in hot Jupiter global circulation models , 2014, 1402.0814.
[36] J. Bean,et al. Clouds in the atmosphere of the super-Earth exoplanet GJ 1214b , 2013, Nature.
[37] D. Deming,et al. A featureless transmission spectrum for the Neptune-mass exoplanet GJ 436b , 2013, Nature.
[38] Richard S. Freedman,et al. A Unified Theory for the Atmospheres of the Hot and Very Hot Jupiters: Two Classes of Irradiated Atmospheres , 2007, 0710.2558.
[39] A. Burrows,et al. A Possible Bifurcation in Atmospheres of Strongly Irradiated Stars and Planets , 2003, astro-ph/0305349.