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相关论文: Constraining Planetary Migration and Tidal Dissipa…

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Hot stars with hot Jupiters have a wide range of obliquities, while cool stars with hot Jupiters tend to have low obliquities. An enticing explanation for this pattern is tidal realignment of the cool host stars, although this explanation…

地球与行星天体物理 · 物理学 2021-06-23 Kassandra R. Anderson , Joshua N. Winn , Kaloyan Penev

Since 1995, more than 1500 exoplanets have been discovered around a large diversity of host stars (from M- to A-type stars). Tidal dissipation in stellar convective envelopes is a key actor that shapes the orbital architecture of…

太阳与恒星天体物理 · 物理学 2015-07-29 S. Mathis

The dynamical evolution of short-period low-mass binary stars (with mass $M < 1.5M_{\odot}$, from formation to the late main-sequence, and with orbital periods less than $\sim$10 days) is strongly influenced by tidal dissipation. This…

太阳与恒星天体物理 · 物理学 2025-07-18 Jessica Birky , Rory K. Barnes , James R. A. Davenport

The unexpected discovery of hot Jupiters challenged the classical theory of planet formation inspired by our solar system. Until now, the origin and evolution of hot Jupiters are still uncertain. Determining their age distribution and…

In recent years it has been shown that the tidal coupling between extrasolar planets and their stars could be an important mechanism leading to orbital evolution. Both the tides the planet raises on the star and vice versa are important and…

太阳与恒星天体物理 · 物理学 2015-05-27 Kaloyan Penev , Dimitar Sasselov

The discovery of the first transiting hot Jupiters (HJs; giant planets on orbital periods shorter than $P\sim10$ days) was announced more than twenty years ago. As both ground- and space-based follow-up observations are piling up, we are…

High-eccentricity migration is an important channel for the formation of hot Jupiters (HJs). In particular, Lidov-Kozai (LK) oscillations of orbital eccentricity/inclination induced by a distant planetary or stellar companion, combined with…

地球与行星天体物理 · 物理学 2019-02-13 Michelle Vick , Dong Lai , Kassandra R. Anderson

Various interactions affect the population of close-in planets. Among them, the tidal and magnetic interactions drive orbital decay and star-planet angular momentum exchange, leading to stellar spin-up. As a result of the above processes, a…

地球与行星天体物理 · 物理学 2023-02-15 Yaroslav Lazovik

The magnetic activity of planet-hosting stars is an important factor to estimate the atmospheric stability of close-in exoplanets and the age of their host stars. It has long been speculated that close-in exoplanets can influence the…

太阳与恒星天体物理 · 物理学 2014-05-13 K. Poppenhaeger , S. J. Wolk

We study the effect of dynamical tides associated with the excitation of gravity waves in an interior radiative region of the central star on orbital evolution in observed systems containing Hot Jupiters. We consider WASP-43, Ogle-tr-113,…

太阳与恒星天体物理 · 物理学 2017-07-26 S. V. Chernov , P. B. Ivanov , J. C. B. Papaloizou

High-eccentricity migration is a likely formation mechanism for many observed hot Jupiters, particularly those with a large misalignment between the stellar spin axis and orbital angular momentum axis of the planet. In one version of…

地球与行星天体物理 · 物理学 2023-02-08 Michelle Vick , Yubo Su , Dong Lai

We examine the radius evolution of close-in giant planets with a planet evolution model that couples the orbital-tidal and thermal evolution. For 45 transiting systems, we compute a large grid of cooling/contraction paths forward in time,…

地球与行星天体物理 · 物理学 2009-09-28 N. Miller , J. J. Fortney , B. Jackson

High-eccentricity tidal migration predicts the existence of highly eccentric proto-hot Jupiters on the "tidal circularization track," meaning that they might eventually become hot Jupiters, but that their migratory journey remains…

The existence of giant extrasolar planets on short-period orbits ("hot Jupiters") challenges planet formation theories because such planets are difficult to form close to the star. High-eccentricity migration is a leading explanation, in…

地球与行星天体物理 · 物理学 2026-03-16 Grant C. Weldon , Bradley M. S. Hansen , Smadar Naoz

We study the orbital evolution of hot Jupiters due to the excitation and damping of tidally driven $g$-modes within solar-type host stars. Linearly resonant $g$-modes (the dynamical tide) are driven to such large amplitudes in the stellar…

地球与行星天体物理 · 物理学 2016-01-13 Reed Essick , Nevin N. Weinberg

It is debated whether close-in giant planets can form in-situ and if not, which mechanisms are responsible for their migration. One of the observable tests for migration theories is the current value of the angle between the stellar…

地球与行星天体物理 · 物理学 2018-10-17 Cilia Damiani , Stéphane Mathis

In this work, we investigate the dynamical survival of short-period inner planets during the high-eccentricity tidal migration of companion exterior giant planets. Using a combination of analytic arguments and N-body simulations including…

地球与行星天体物理 · 物理学 2025-12-19 Juliette Becker

The first discovered extrasolar worlds -- giant, ``hot Jupiter'' planets on short-period orbits -- came as a surprise to solar-system-centric models of planet formation, prompting the development of new theories for planetary system…

地球与行星天体物理 · 物理学 2023-03-29 Dong-Hong Wu , Malena Rice , Songhu Wang

The evolution of exoplanetary systems with a close-in planet is ruled by the tides mutually raised on the two bodies and by the magnetic braking of the host star. This paper deals with consequences of this evolution and some features that…

地球与行星天体物理 · 物理学 2023-07-05 S. Ferraz-Mello , C. Beaugé

We use the distribution of extrasolar planets in circular orbits around stars with surface convective zones detected by ground based transit searches to constrain how efficiently tides raised by the planet are dissipated on the parent star.…

地球与行星天体物理 · 物理学 2015-06-05 Kaloyan Penev , Brian Jackson , Federico Spada , Nicole Thom