Planet Shadows in Protoplanetary Disks. I: Temperature Perturbations
arXiv:0801.4561 · doi:10.1086/533583
Abstract
Planets embedded in optically thick passive accretion disks are expected to produce perturbations in the density and temperature structure of the disk. We calculate the magnitudes of these perturbations for a range of planet masses and distances. The model predicts the formation of a shadow at the position of the planet paired with a brightening just beyond the shadow. We improve on previous work on the subject by self-consistently calculating the temperature and density structures under the assumption of hydrostatic equilibrium and taking the full three-dimensional shape of the disk into account rather than assuming a plane-parallel disk. While the excursion in temperatures is less than in previous models, the spatial size of the perturbation is larger. We demonstrate that a self-consistent calculation of the density and temperature structure of the disk has a large effect on the disk model. In addition, the temperature structure in the disk is highly sensitive to the angle of incidence of stellar irradition at the surface, so accurately calculating the shape of the disk surface is crucial for modeling the thermal structure of the disk.
14 pages, 14 figures. To appear in ApJ
References in corpus (14)
- Spectral Energy Distributions of T Tauri Stars With Passive Circumstellar Disks
- Accretion Disks around Young Objects. I. The Detailed Vertical Structure
- Accretion Disks Around Young Objects. III. Grain Growth
- Flaring vs. self-shadowed disks: the SEDs of Herbig Ae/Be stars
- Accretion Disks Around Young Objects. II. Tests of Well-Mixed Models with Ism Dust
- Halting Type I planet migration in non-isothermal disks
- Three-dimensional Calculations of High and Low-mass Planets Embedded in Protoplanetary Discs
- 3D-radiation hydro simulations of disk-planet interactions: I. Numerical algorithm and test cases
- Growing and moving low-mass planets in non-isothermal disks
- Turbulent Torques on Protoplanets in a Dead Zone
- The interaction of planets with a disc with MHD turbulence III: Flow morphology and conditions for gap formation in local and global simulations
- Type I Migration in a Non-Isothermal Protoplanetary Disk
- Radiative Transfer on Perturbations in Protoplanetary Disks
- Disk Temperature Variations and Effects on the Snow Line in the Presence of Small Protoplanets
Cited by in corpus (24)
- Molecules with ALMA at Planet-forming Scales (MAPS) I: Program Overview and Highlights
- FARGO3D: A new GPU-oriented MHD code
- Constraining the X-ray and Cosmic Ray Ionization Chemistry of the TW Hya Protoplanetary Disk: Evidence for a Sub-interstellar Cosmic Ray Rate
- What is the Mass of a Gap-Opening Planet?
- The 0.5-2.22-micron Scattered Light Spectrum of the Disk Around TW Hya: Detection of a Partially Filled Disk Gap at 80 AU
- Gaps in Protoplanetary Disks as Signatures of Planets: I. Methodology and Validation
- Scattered light shadows in warped protoplanetary discs
- Time evolution of snow regions and planet traps in an evolving protoplanetary disk
- Gaps in Protoplanetary Disks as Signatures of Planets: II. Inclined Disks
- Recent developments in planet migration theory
- Planet Shadows in Protoplanetary Disks. II: Observable Signatures
- Surface Geometry of Protoplanetary Disks Inferred From Near-Infrared Imaging Polarimetry
- Imaging the heart of astrophysical objects with optical long-baseline interferometry
- Radiatively heated, protoplanetary discs with dead zones. I. Dust settling and thermal structure of discs around M stars
- Time evolution of a viscous protoplanetary disk with a free geometry: toward a more self-consistent picture
- A global two-layer radiative transfer model for axisymmetric, shadowed protoplanetary disks
- Photoevaporation Does Not Create a Pileup of Giant Planets at 1 AU
- Radiative Transfer Models of a Possible Planet in the AB Aurigae Disk
- Dust Rings and Cavities in the Protoplanetary Disks around HD 163296 and DoAr 44
- Gaps in Protoplanetary Disks as Signatures of Planets: III. Polarization
- An impact-free mechanism to deliver water to terrestrial planets and exoplanets
- Future Exoplanet Research: Science Questions and How to Address Them
- The Location of the Snow Line in Protostellar Disks
- Molecules with ALMA at Planet-forming Scales (MAPS) XVII: Determining the 2D Thermal Structure of the HD 163296 Disk