The effect of luminosity outbursts on the protoplanetary disk dynamics
arXiv:2009.01888 · doi:10.1051/0004-6361/202038122
Abstract
Aims: Response of a protoplanetary disk to luminosity bursts of various duration is studied with the purpose to determine the effect of the bursts on the strength and sustainability of gravitational instability in the disk. A special emphasis is paid to the spatial distribution of gas and grown dust (from 1 mm to a few cm) during and after the burst. Methods: Numerical hydrodynamics simulations using the FEOSAD code were employed to study the dynamics of gas and dust in the thin-disk limit. Dust-to-gas friction including back reaction and dust growth were also considered. Bursts of various duration (from 100 to 500 yr) were initiated in accordance with a thermally ignited magnetorotational instability. Luminosity curves for constant- and declining-magnitude bursts were adopted to represent two typical limiting cases for FU-Orionis-type eruptions. Results: The short-term effect of the burst is to reduce the strength of gravitational instability by heating and expanding the disk. The longest bursts with duration comparable to the revolution period of the spiral can completely dissolve the original two-armed spiral pattern in the gas disk by the end of the burst, while the shortest bursts only weaken the spiral pattern. The reaction of grown dust to the burst is somewhat different. The spiral-like initial distribution with deep cavities in the inter-armed regions transforms into a ring-like distribution with deep gaps. This transformation is most expressed for the longest-duration bursts. The long-term effect of the burst depends on the initial disk conditions at the onset of the burst. In some cases, vigorous disk fragmentation sets in several thousand years after the burst, which was absent in the model without the bursts (abridged).
arXiv commentAccepted for publication by Astronomy & Astrophysics
References in corpus (37)
- From filamentary clouds to prestellar cores to the stellar IMF: Initial highlights from the Herschel Gould Belt survey
- First Results from High Angular Resolution ALMA Observations Toward the HL Tau Region
- The Disk Substructures at High Angular Resolution Project (DSHARP): I. Motivation, Sample, Calibration, and Overview
- A simple model for the evolution of the dust population in protoplanetary disks
- Dense Cores in Dark Clouds. XIV. N2H+(1-0) maps of dense cloud cores
- FARGO: a fast eulerian transport algorithm for differentially rotating disks
- Rosseland and Planck Mean Opacities for Protoplanetary Discs
- Gaps and Rings in an ALMA Survey of Disks in the Taurus Star-forming Region
- Dust Filtration by Planet-Induced Gap Edges: Implications for Transitional Disks
- The burst mode of accretion and disk fragmentation in the early embedded stages of star formation
- Observational Signatures of Planets in Protoplanetary Disks I: Gaps Opened by Single and Multiple Young Planets in Disks
- On planet formation in HL Tau
- Imaging the water-snow line during a protostellar outburst
- Accelerated planetesimal growth in self-gravitating protoplanetary discs
- Meridional flows in the disk around a young star
- Variable protostellar accretion with episodic bursts
- Formation of giant planets and brown dwarfs on wide orbits
- High-Temperature Ionization in Protoplanetary Disks
- Accretion Outbursts in Self-gravitating Protoplanetary Disks
- The importance of episodic accretion for low-mass star formation
- Secular evolution of viscous and self-gravitating circumstellar discs
- A numerical simulation of a "super-Earth" core delivery from ~ 100 AU to ~ 8 AU
- The early evolution of viscous and self-gravitating circumstellar disks with a dust component
- The ALMA early science view of FUor/EXor objects - V: continuum disc masses and sizes
- Signatures of Gravitational Instability in Resolved Images of Protostellar Disks
- Chemical Evolution in VeLLOs
- Simulating planet migration in globally evolving disks
- Embedded protostellar disks around (sub-)solar stars. II. Disk masses, sizes, densities, temperatures and the planet formation perspective
- Luminosity outburst chemistry in protoplanetary discs: going beyond standard tracers
- Gravitoviscous protoplanetary disks with a dust component. I. The importance of the inner sub-au region
- The effect of radiative feedback on disc fragmentation
- Gravito-turbulence and the excitation of small-scale parametric instability in astrophysical discs
- Analysis of Numerical Algorithms for Computing Rapid Momentum Transfers between the Gas and Dust in Simulations of Circumstellar Disks
- Gravitoviscous protoplanetary disks with a dust component. II. Spatial distribution and growth of dust in a clumpy disk
- V346 Nor: the post-outburst life of a peculiar young eruptive star
- FU Orionis outbursts, preferential recondensation of water ice, and the formation of giant planets
- Improving the thin-disk models of circumstellar disk evolution. The 2+1-dimensional model
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- Evolution of dust in protoplanetary disks of eruptive stars
- Magnetically-activated accretion outbursts of pre-main sequence discs
- Primordial Dusty Rings and Episodic Outbursts in Protoplanetary Discs
- Magnetic disk winds in protoplanetary disks: Description of the model and impact on global disk evolution
- ALMA observation of the protoplanetary disk around WW Cha: faint double-peaked ring and asymmetric structure
- Accretion bursts in young intermediate-mass stars make planet formation challenging
- Primordial dust rings, hidden dust mass, and the first generation of planetesimals in gravitationally unstable protoplanetary disks
- The role of detailed gas and dust opacities in shaping the evolution of the inner disc edge subject to episodic accretion
- C/O ratios in self-gravitating protoplanetary discs with dust evolution
- Dust in the wind of outbursting young stars
- Modelling the Break in the Specific Angular Momentum within the Envelope-Disk Transition Zone