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相关论文: The Chaotic Nature of TRAPPIST-1 Planetary Spin St…

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TRAPPIST-1 is a nearby ultra-cool dwarf that is host to a remarkable planetary system consisting of seven transiting planets. The orbital properties and radii of the planets have been well-constrained, and recently the masses of the inner…

地球与行星天体物理 · 物理学 2017-06-12 Billy Quarles , Elisa V. Quintana , Eric D. Lopez , Joshua E. Schlieder , Thomas Barclay

Tidally locked worlds provide a unique opportunity for constraining the probable climates of certain exoplanets. They are unique in that few exoplanet spin and obliquity states are known or will be determined in the near future: both of…

地球与行星天体物理 · 物理学 2023-08-02 Cody J. Shakespeare , Jason H. Steffen

We perform numerical simulations of the TRAPPIST-1 system of seven exoplanets orbiting a nearby M dwarf, starting with a previously suggested stable configuration. The long-term stability of this configuration is confirmed, but the motion…

地球与行星天体物理 · 物理学 2018-05-01 Valeri V. Makarov , Ciprian T. Berghea , Michael Efroimsky

We study the dynamical evolution of the TRAPPIST-1 system under the influence of orbital circularization through tidal interaction with the central star. We find that systems with parameters close to the observed one evolve into a state…

地球与行星天体物理 · 物理学 2018-04-25 John C. B. Papaloizou , Ewa Szuszkiewicz , Caroline Terquem

TRAPPIST-1 is a late M-dwarf orbited by seven Earth-sized planets with orbital period ratios near a chain of mean motion resonances. Due to uncertain system parameters, most orbital configurations drawn from the inferred posterior…

地球与行星天体物理 · 物理学 2017-05-24 Daniel Tamayo , Hanno Rein , Cristobal Petrovich , Norman Murray

One longstanding problem for the potential habitability of planets within M dwarf systems is their likelihood to be tidally locked in a synchronously rotating spin state. This problem thus far has largely been addressed only by considering…

地球与行星天体物理 · 物理学 2017-08-18 Alec M. Vinson , Brad M. S. Hansen

The TRAPPIST-1 system is comprised of seven Earth-sized rocky planets in small orbits around a Jupiter-sized ultracool dwarf star 12 parsec away. These planets cover an irradiation range similar to the range of the inner solar system. Three…

地球与行星天体物理 · 物理学 2024-01-23 Michaël Gillon

One focus of modern astronomy is to detect temperate terrestrial exoplanets well-suited for atmospheric characterisation. A milestone was recently achieved with the detection of three Earth-sized planets transiting (i.e. passing in front…

The star TRAPPIST-1 hosts a system of seven transiting, terrestrial exoplanets apparently in a resonant chain, at least some of which are in or near the Habitable Zone. Many have examined the roles of tides in this system, as tidal…

地球与行星天体物理 · 物理学 2018-09-25 Jason T. Wright

TRAPPIST-1 is an 0.09 $M_{\odot}$ star, which harbours a system of seven Earth-sized planets. Two main features stand out: (i) all planets have similar radii, masses, and compositions; and (ii) all planets are in resonance. Previous works…

地球与行星天体物理 · 物理学 2022-02-16 Shuo Huang , Chris W. Ormel

Climate modeling has shown that tidally influenced terrestrial exoplanets, particularly those orbiting M-dwarfs, have unique atmospheric dynamics and surface conditions that may enhance their likelihood to host viable habitats. However,…

地球与行星天体物理 · 物理学 2023-04-05 Howard Chen , Gongjie Li , Adiv Paradise , Ravi Kopparapu

About a dozen exoplanetary systems have been discovered with three or more planets participating in a sequence of mean-motion resonances. The unique and complex architectures of these so-called "resonant chains" motivate efforts to…

地球与行星天体物理 · 物理学 2023-11-30 Sarah C. Millholland , Teo Lara , Jan Toomlaid

Accurate modeling of tidal interactions is crucial for interpreting recent JWST observations of the thermal emissions of TRAPPIST-1~b and c and for characterizing the surface conditions and potential habitability of the other planets in the…

The planetary system of TRAPPIST-1, discovered in 2016-2017, is a treasure-trove of information. Thanks to a combination of observational techniques, we have estimates of the radii and masses of the seven planets of this very exotic system.…

地球与行星天体物理 · 物理学 2018-10-29 Emeline Bolmont

Recently, four additional Earth-mass planets were discovered orbiting the nearby ultracool M8 dwarf TRAPPIST-1, making a remarkable total of seven planets with equilibrium temperatures compatible with the presence of liquid water on their…

太阳与恒星天体物理 · 物理学 2017-07-26 Cecilia Garraffo , Jeremy J. Drake , Ofer Cohen , Julian D. Alvarado-Gomez , Sofia P. Moschou

TRAPPIST-1 is a nearby 0.08 M M-star, which was recently found to harbor a planetary system of at least seven Earth-mass planets, all within 0.1 au. The configuration confounds theorists as the planets are not easily explained by either in…

地球与行星天体物理 · 物理学 2017-07-26 Chris Ormel , Beibei Liu , Djoeke Schoonenberg

TRAPPIST-1 (Gillon et al. 2017) is an extremely compact planetary system: seven earth-sized planets orbit at distances lower than 0.07 AU around one of the smallest M-dwarf known in the close neighborhood of the Sun (with a mass of less…

地球与行星天体物理 · 物理学 2018-10-29 Sylvain Breton , Emeline Bolmont , Gabriel Tobie , Stéphane Mathis

With seven planets, the TRAPPIST-1 system has the largest number of exoplanets discovered in a single system so far. The system is of astrobiological interest, because three of its planets orbit in the habitable zone of the ultracool M…

地球与行星天体物理 · 物理学 2018-05-30 Amy C. Barr , Vera Dobos , László L. Kiss

The TRAPPIST-1 planetary system consists of seven planets within 0.05 au of each other, five of which are in a multi-resonant chain. {These resonances suggest the system formed via planet migration; subsequent tidal evolution has damped…

地球与行星天体物理 · 物理学 2019-05-15 R. Brasser , A. C. Barr , V. Dobos

The ultracool M-dwarf star TRAPPIST-1 is surrounded by seven planets configured in a resonant chain. Transit-timing variations have shown that the planets are caught in multiple three-body resonances and that their orbits are slightly…

地球与行星天体物理 · 物理学 2022-07-20 R. Brasser , G. Pichierri , V. Dobos , A. C. Barr
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