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exoALMA III: Line-intensity Modeling and System Property Extraction from Protoplanetary Disks
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abstract
The ALMA large program exoALMA offers a unique window into the three-dimensional physical and dynamical properties of 15 circumstellar disks where planets may be actively forming. Here, we present an analysis methodology to map the gas disk structure and substructure encoded in 12CO, 13CO, and CS line emission from our targets. To model and characterize the disk structure probed by optically thin species, such as CS and, in some cases, 13CO, we introduce a composite line profile kernel that accounts for increased intensities caused by the projected overlap between the disk's front and back side emission. Our workflow, built on the Discminer modelling framework, incorporates an improved iterative two-component fitting method for inclined sources ($i>40^\circ$), to mitigate the impact of the disk backside on the extraction of velocity maps. Also, we report best-fit parameters for the Keplerian stellar masses, as well as inclinations, position angles, systemic velocities, rotation direction, and emission surfaces of the disks in our sample.
Forward citations
Cited by 3 Pith papers
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Angular Momentum of Planet-Forming Disks: Implications for Infall Driven Misalignments
Most Class II disks have lower total angular momentum than late Bondi–Hoyle cloud infall is predicted to supply, so late-stage streamers can reorient disks and explain observed misalignments.
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Angular Momentum of Planet-Forming Disks: Implications for Infall Driven Misalignments
Most planet-forming disks have less angular momentum than late-infalling cloud gas is predicted to carry, so infalling streamers are a plausible cause of the observed misalignments.
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Extending dynamical mass measurements: probing GI as a possible origin of mm-dust spirals
Dynamical rotation-curve fits give M_disk ≈ 0.30 M_sun for HD 97048 and ≈ 0.21 M_sun for WaOph 6, and indicate disks with mm-dust spirals have systematically lower Toomre Q.
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