1997
DOI: 10.1086/118405
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The Kozai Mechanism and the Stability of Planetary Orbits in Binary Star Systems

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Cited by 327 publications
(331 citation statements)
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“…"Short-period" companions alter planetary orbits independent of each other, while "long-period" companions cause the entire system only to precess as a unit. Innanen et al (1997) have performed billion-year integrations of the orbits of the outer giant planets and found them to be stable against the perturbative effects of a 0.05 M , companion on a 400 AU circular orbit, for all inclination angles. This result, scaled by preserving the tidal field M/a 3 , indicates that similar stability would occur for a 1 M , companion on a ∼1000 AU orbit.…”
Section: Duplicitymentioning
confidence: 99%
“…"Short-period" companions alter planetary orbits independent of each other, while "long-period" companions cause the entire system only to precess as a unit. Innanen et al (1997) have performed billion-year integrations of the orbits of the outer giant planets and found them to be stable against the perturbative effects of a 0.05 M , companion on a 400 AU circular orbit, for all inclination angles. This result, scaled by preserving the tidal field M/a 3 , indicates that similar stability would occur for a 1 M , companion on a ∼1000 AU orbit.…”
Section: Duplicitymentioning
confidence: 99%
“…have recently reinvigorated the research into this problem (see, e.g., Innanen et al 1997;Mazeh et al 1997;Holman et al 1997). Unlike the nearly circular and coplanar planetary orbits in the Solar System, some exoplanets are found on eccentric and/or inclined orbits (see review by Winn & Fabrycky 2014 and references therein).…”
mentioning
confidence: 99%
“…There is potentially also an additional precession due to the presence of a distant M dwarf companion, a 0.26M⊙ M dwarf located at 1260 AU (Mugrauer et al 2006). However, this is too small to affect the dynamics of the planetary configuration on small scales, although it can generate precession of the system as a unit (Innanen et al 1997;Kaib et al 2011;Boue' & Fabrycky 2014). In order to better match the observations, we furthermore assume that the planetary system invariable plane is inclined at 37 • to the line of sight, except for the transitting 55 Canc e. This increases all the masses by a factor of 1.25 from that inferred in the radial velocity solution.…”
Section: Secular Architecturementioning
confidence: 99%
“…The presence of an M-dwarf companion at > 1000 AU can, in principle, induce precession of the planetary system (Innanen et al 1997;Kaib et al 2011;Boue' & Fabrycky 2014) if the orbit is sufficiently eccentric and inclined. However, the precession timescales are long compared to the time it takes 55 Canc e to cross the resonance, and so the orbit tilting discussed here is insensitive to the influence of the external companion.…”
Section: Effect Of the Companionmentioning
confidence: 99%
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