Dust entrainment in photoevaporative winds: Synthetic observations of transition disks
arXiv:2201.12108 · doi:10.1051/0004-6361/202142785
Abstract
X-ray- and extreme-ultraviolet- (XEUV-) driven photoevaporative winds acting on protoplanetary disks around young T-Tauri stars may strongly impact disk evolution, affecting both gas and dust distributions. We compute dust densities for the wind regions of XEUV-irradiated transition disks with gap sizes of 20 and 30 AU, and determine whether they can be observed at wavelengths in scattered and polarised light with current instrumentation. For an XEUV-driven outflow around a T-Tauri star with , we find dust mass-loss rates , and if we invoke vertical settling, the outflow is quite collimated. The synthesised images exhibit a distinct chimney-like structure. The relative intensity of these chimneys is low, but under optimal conditions, their detection may still be feasible with current instrumentation such as JWST NIRCam and SPHERE IRDIS.
Accepted for publication in A&A. 20+10 pages, 17+12 figures (References updated, minor adjustments.)
References in corpus (26)
- PLUTO: a Numerical Code for Computational Astrophysics
- SPLASH: An interactive visualisation tool for Smoothed Particle Hydrodynamics simulations
- Protoplanetary Disk Structures in Ophiuchus
- X-Shooter spectroscopy of young stellar objects in Lupus: Accretion properties of class II and transitional objects
- Lupus disks with faint CO isotopologues: low gas/dust or large carbon depletion?
- Observations of edge-on protoplanetary disks with ALMA I. Results from continuum data
- Global MHD simulations of stratified and turbulent protoplanetary discs. II. Dust settling
- X-ray enabled MOCASSIN: a 3D code for photoionized media
- Multiple rings in the transition disk and companion candidates around RXJ1615.3-3255. High contrast imaging with VLT/SPHERE
- Exploring dust around HD142527 down to 0.025" / 4au using SPHERE/ZIMPOL
- The Evolution of Disk Winds from a Combined Study of Optical and Infrared Forbidden Lines
- The dispersal of protoplanetary discs. II: Photoevaporation models with observationally derived irradiating spectra
- HD 169142 in the eyes of ZIMPOL/SPHERE
- The interpretation of protoplanetary disc wind diagnostic lines from X-ray photoevaporation and analytical MHD models
- Effect of dust radial drift on viscous evolution of gaseous disk
- Radiation pressure clear-out of dusty photoevaporating discs
- Large gaps and high accretion rates in photoevaporative transition disks with a dead zone
- Modeling the delivery of dust from discs to ionized winds
- Radiation-Hydrodynamical Models of X-ray Photoevaporation in Carbon Depleted Circumstellar Discs
- The imprint of X-ray photoevaporation of planet-forming discs on the orbital distribution of giant planets
- Dust delivery and entrainment in photoevaporative winds
- On the maximum grain size entrained by photoevaporative winds
- Inner dusty regions of protoplanetary discs -- II. Dust dynamics driven by radiation pressure and disc winds
- The general applicability of self-similar solutions for thermal disc winds
- The imprint of X-ray photoevaporation of planet-forming discs on the orbital distribution of giant planets -- II. Theoretical predictions
- Giant planet migration during the disc dispersal phase
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- Photoevaporation of protoplanetary discs with PLUTO+PRIZMO I. Lower X-ray-driven mass-loss rates due to enhanced cooling
- Toward a Population Synthesis of Disks and Planets I. Evolution of Dust with Entrainment in Winds and Radiation Pressure
- Millimeter emission in photoevaporating disks is determined by early substructures
- Disk Evolution Study Through Imaging of Nearby Young Stars (DESTINYS): Scattered light detection of a possible disk wind in RY Tau
- On the origin of transition disk cavities: Pebble-accreting protoplanets vs Super-Jupiters
- Observability of Photoevaporation Signatures in the Dust Continuum Emission of Transition Discs
- Time-dependent long-term hydrodynamic simulations of the inner protoplanetary disk III: The influence of photoevaporation