Nicole Wallack (Caltech)

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Presentation transcript:

Nicole Wallack (Caltech) Investigating Trends in Atmospheric Compositions of Cool Gas Giant Planets Using Spitzer Secondary Eclipses Nicole Wallack (Caltech) Heather Knutson, Caroline Morley, Nancy Thomas, Daniel Thorngren, Jean-Michel Désert, Jonathan Fortney, Joshua Kammer, and Julianne Moses

Using Solar System Trends to Probe Planet Evolution Increasing atmospheric “metallicity” C/H ~ 4 x Solar metallicity C/H ~ 70 x Solar metallicity (Wong et al. 2004) (Karkoschka & Tomasko 2011; Sromovsky et al. 2011) NASA Decreasing core mass fraction/ Increasing mass

Clouds Affect Our Ability to Detect an Atmospheric Composition-Planet Mass Trend from Transmission Spectra (Adapted from Wakeford et al. 2018) (Figure from Parmentier et al. 2016)

Using Spitzer Secondary Eclipses to Determine Atmospheric Composition WASP-69b Downward Slope High CO/CH4 absorption Upward Slope Low CO/CH4 Absorption (Moses et al. 2013; Stevenson et al. 2012; Morley et al. 2016)

Secondary Eclipses of Cool (T< ~1000 K) Planets 8 Previously Published Planets 2 Planets In-Prep: GJ 3470b HAT-P-12b 5 New Planets: HAT-P-15b HAT-P-17b HAT-P-26b HAT-P-18b WASP-69b 1.9MJ 0.2 MJ 0.5 MJ 0.06 MJ 0.3 MJ 900 K 800 K 800 K 1000 K 1000 K Multiple Visits in Each Spitzer Bandpass

No Trend in Atmospheric Composition With Temperature CH4 Rich CO Poor Sanity check: 0.8- 26.3 x solar (Wakeford et al. 2017) HAT-P-26b GJ 3470b Sanity check: > 200 x solar (Moses et al. 2013; Morley et al. 2016) CO Rich CH4 Poor GJ 436b (Wallack et al. in prep)

No Trend in Atmospheric Composition With Planet Mass CH4 Rich CO Poor HAT-P-26b GJ 3470b CO Rich CH4 Poor GJ 436b (Wallack et al. in prep)

Possible Trend in Atmospheric Composition With Bulk Metallicity CH4 Rich CO Poor HAT-P-26b GJ 3470b CO Rich CH4 Poor GJ 436b (Wallack et al. in prep) Thorngren et al. 2016

Evidence for a Trend in Atmospheric Composition With Stellar Metallicity CH4 Rich CO Poor HAT-P-26b GJ 3470b CO Rich CH4 Poor GJ 436b (Wallack et al. in prep)

JWST Will Allow Us to Better Constrain Atmospheric Compositions NASA