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TrES-1 b: A Case Study in Detecting Secular Evolution of Exoplanet Orbits

  • Authors: Simone R. Hagey, Billy Edwards, Angelos Tsiaras, Aaron C. Boley, Anastasia Kokori, Norio Narita, Pedro V. Sada, Filip Walter, Robert T. Zellem, Napaporn A-thano, Kevin B. Alton, Miguel Ángel Álava Amat, Paul Benni, Emmanuel Besson, Patrick Brandebourg, Marc Bretton, Mauro Caló, Martin Valentine Crow, Jean-Christophe Dalouzy, Marc Deldem, Tõnis Eenmäe, Stephane Ferratfiat, Pere Guerra, Gary Vander Haagen, Ken Hose, Adrian Jones, Yves Jongen, Didier Laloum, Stefano Lora, Alessandro Marchini, Jacques Michelet, Matej Mihelčič, Johannes Mieglitz, Eric Miny, David Molina, Mario Morales Aimar, Raphael Nicollerat, Ivo Peretto, Manfred Raetz, François Regembal, Robert Roth, Lionel Rousselot, Mark Salisbury, Darryl Sergison, Anaël Wünsche, Jaroslav Trnka

Simone R. Hagey et al 2025 The Astronomical Journal 170 .

  • Provider: AAS Journals

Caption: Figure 10.

Required orbit eccentricity (e) as a function of the modified tidal quality factor (﹩{Q}_{p}^{{\prime} }﹩) for TrES-1 b, assuming eccentricity tides are the dominant mechanism driving orbital decay. The black curve and surrounding gray region show the eccentricity values needed to match the best-fit decay rate of ﹩-7.{1}_{-1.6}^{+\,1.5}﹩ ms yr−1. The shaded blue region represents the theoretically expected range of ﹩{Q}_{p}^{{\prime} }﹩ for HJs (M. M. Mahmud et al. 2023), while the red dashed line marks the estimated value for Jupiter (V. Lainey et al. 2009). The fact that the required eccentricity (e ≳ 0.2) falls well outside observational constraints suggests that eccentricity tides cannot drive orbital decay.

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