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相关论文: Avoiding resonance capture in multi-planet extraso…

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We investigate orbital resonances expected to arise when a system of two planets, with masses in the range 1-4 Earth masses, undergoes convergent migration while embedded in a section of gaseous disc where the flow is laminar. We consider…

天体物理学 · 物理学 2009-11-13 J. C. B. Papaloizou , E. Szuszkiewicz

We present two-dimensional hydrodynamical simulations of pairs of planets migrating simultaneously in the Type I regime in a protoplanetary disc. Convergent migration naturally leads to the trapping of these planets in mean-motion…

地球与行星天体物理 · 物理学 2017-12-27 T. O. Hands , R. D. Alexander

Migration of planetary systems caused by the action of dissipative forces may lead the planets to be trapped in a resonance. In this work we study the conditions and the dynamics of such resonant trapping. Particularly, we are interested in…

地球与行星天体物理 · 物理学 2016-11-03 George Voyatzis

We present an analytical and numerical study of the orbital migration and resonance capture of fictitious two-planet systems with masses in the super-Earth range undergoing Type-I migration. We find that, depending on the flare index and…

地球与行星天体物理 · 物理学 2017-06-28 X. S. Ramos , C. Charalambous , P. Benítez-Llambay , C. Beaugé

Planetary formation theories and, more specifically, migration models predict that planets can be captured in mean-motion resonances (MMRs) during the disc phase. The distribution of period ratios between adjacent planets shows an…

地球与行星天体物理 · 物理学 2022-06-22 Carolina Charalambous , Jean Teyssandier , Anne-Sophie Libert

We examine the eccentricity evolution of a system of two planets locked in a mean motion resonance, in which the outer planet loses energy and angular momentum. The sink of energy and angular momentum could be either a gas or planetesimal…

天体物理学 · 物理学 2009-11-06 N. Murray , M. Paskowitz , M. Holman

Planets around binary stars and those in multiplanet systems may experience resonant eccentricity excitation and disruption due to perturbations from a distant stellar companion. This "evection resonance" occurs when the apsidal precession…

地球与行星天体物理 · 物理学 2016-04-27 Wenrui Xu , Dong Lai

The aim of this work is to study the impact of a binary companion on the evolution of two-planet systems during both the type-II migration phase and their long-term evolution after the dissipation of the protoplanetary disk. We use the…

地球与行星天体物理 · 物理学 2022-08-17 Arnaud Roisin , Nikita Doukhanin , Jean Teyssandier , Anne-Sophie Libert

We investigate the evolution of two-planet systems embedded in a protoplanetary disc, which are composed of a Jupiter-mass planet plus another body located further out in the disc. We consider outermost planets with masses ranging from 10…

天体物理学 · 物理学 2009-11-13 Arnaud Pierens , Richard P. Nelson

Massive planets form within the lifetime of protoplanetary disks and undergo orbital migration due to planet-disk interactions. When the first planet reaches the inner edge of the disk its migration stops and the second planet is locked in…

地球与行星天体物理 · 物理学 2018-08-27 Gabriele Pichierri , Alessandro Morbidelli , Aurélien Crida

The Kepler mission has discovered that multiple close-in super-Earth planets are common around solar-type stars, but their period ratios do not show strong pile-ups near mean motion resonances (MMRs). One scenario is that super-Earths form…

地球与行星天体物理 · 物理学 2017-04-26 Beibei Liu , Chris W. Ormel , Douglas N. C. Lin

Super-Earths can form at large orbital radii and migrate inward due to tidal interactions with the circumstellar disk. In this scenario, convergent migration may occur and lead to the formation of resonant pairs of planets. We explore the…

地球与行星天体物理 · 物理学 2020-09-30 Francesco Marzari , Gennaro D'Angelo

Multiple planets undergoing disk migration may be captured into a chain of mean-motion resonances with the innermost planet parked near the disk's inner edge. Subsequent dynamical evolution may disrupt these resonances, leading to the…

We present a thorough study of the impact of a migrating planet on a planetesimal disk, by exploring a broad range of masses and eccentricities for the planet. We discuss the sensitivity of the structures generated in debris disks to the…

天体物理学 · 物理学 2009-11-13 Rémy Reche , Hervé Beust , J. C. Augereau , Olivier Absil

The observed orbits of extrasolar planets suggest that many giant planets migrate a considerable distance towards their parent star as a result of interactions with the protoplanetary disk, and that some of these planets become trapped in…

天体物理学 · 物理学 2009-11-10 Edward W. Thommes , Jack J. Lissauer

This paper considers the effects of turbulence on mean motion resonances in extrasolar planetary systems and predicts that systems rarely survive in a resonant configuration. A growing number of systems are reported to be in resonance,…

天体物理学 · 物理学 2008-05-13 Fred C. Adams , Gregory Laughlin , Anthony M. Bloch

Resonant populations of trans-Neptunian objects serve as crucial dynamical archives for unraveling the early migratory history of the Solar System. A quantitative assessment of the capture efficiency into various mean motion resonances…

地球与行星天体物理 · 物理学 2026-05-12 Hailiang Li , Li-Yong Zhou , Xiaoping Zhang

The Kepler mission has recently discovered a number of exoplanetary systems, such as Kepler-11 and Kepler-32, in which ensembles of several planets are found in very closely packed orbits (often within a few percent of an AU of one…

地球与行星天体物理 · 物理学 2015-06-22 T. O. Hands , R. D. Alexander , W. Dehnen

We study the formation of the 9:7 mean motion resonance in a system of two low-mass planets ($m_{1}=m_{2}=3M_{\oplus}$) embedded in a gaseous protoplanetary disk employing a full 2D hydrodynamic treatment of the disk-planet interactions.…

地球与行星天体物理 · 物理学 2019-02-20 Zijia Cui , John C. B. Papaloizou , Ewa Szuszkiewicz

The process of migration into resonance capture has been well studied for planetary systems where the gravitational potential is generated exclusively by the star and planets. However, massive protoplanetary disks add a significant…

地球与行星天体物理 · 物理学 2022-06-01 Zachary Murray , Sam Hadden , Matthew J. Holman