J/A+A/594/A85ivo://CDS.VizieR/J/A+A/594/A85doi:10.26093/cds/vizier.35940085CDSMiotello A.van Dishoeck E.F.Kama M.Bruderer S.2016-10-17T06:57:04Z2016-10-17T07:56:19ZCDS support team

CDS, Observatoire de Strasbourg, 11 rue de l'Universite, F-67000 Strasbourg, France

cds-question@unistra.frastronomical-modelschemical-abundancespre-main-sequence-starsDespite intensive studies of protoplanetary disks, there is still no reliable way to determine their total (gast+dust) mass and their surface density distribution, quantities that are crucial for describing both the structure and the evolution of disks up to the formation of planets. The goal of this work is to use less abundant CO isotopologues, such as ^13^CO, C^18^O and C^17^O, whose detection is routine for ALMA, to infer the gas mass of disks. Isotope-selective ects need to be taken into account in the analysis, because they can significantly modify CO isotopologues line intensities. CO isotope-selective photodissociation has been implemented in the physical-chemical code DALI (Dust And LInes) and more than 800 disk models have been run for a range of disk and stellar parameters. Dust and gas temperature structures have been computed self-consistently, together with a chemical calculation of the main atomic and molecular species. Both disk structure and stellar parameters have been investigated by varying the parameters in the grid of models. Total fluxes have been ray-traced for different CO isotopologues and for various low J- transitions for different inclinations.2016A&A...594A..85Mhttps://cdsarc.cds.unistra.fr/viz-bin/cat/J/A+A/594/A85CatalogResearchIsServedByTAP VizieR generic servicehttps://cds.unistra.fr/vizier-org/licences_vizier.htmlhttps://vizier.cds.unistra.fr/viz-bin/VizieR-2?-source=J/A+A/594/A85https://vizier.iucaa.in/viz-bin/VizieR-2?-source=J/A+A/594/A85http://vizieridia.saao.ac.za/viz-bin/VizieR-2?-source=J/A+A/594/A85https://vizier.cds.unistra.fr/viz-bin/votable?-source=J/A+A/594/A85https://vizier.iucaa.in/viz-bin/votable?-source=J/A+A/594/A85http://vizieridia.saao.ac.za/viz-bin/votable?-source=J/A+A/594/A85GETtext/xml+votablehttps://tapvizier.cds.unistra.fr/TAPVizieR/tapdefaultJ/A+A/594/A85/tablea4Parameters of the T Tauri models and simulated intensities assuming a distance d=100pc and a beam size of 10"recnoRecord number assigned by the VizieR team. Should Not be used for identification.meta.recordintRcCritical radiusAUphys.size.radiusfloatgammaPower-law index of the surface densityspect.indexfloathcScale height angleradphys.sizefloatpsiDisk flaringstat.paramfloatMdiskTotal disk masssolMassphys.massdoubleI870um10Continuum intensity @ 870 micron, with disk inclination i=10{deg}Kspect.line.intensity;em.mm.200-400GHz;spect.continuumdoubleI870um80Continuum intensity @ 870 micron, with disk inclination i=80{deg}Kspect.line.intensity;em.mm.200-400GHz;spect.continuumdoubleI12CO(1-0)1012CO(1-0) line intensity, with disk inclination i=10{deg} (1)K.km/sphot.flux.density;em.radiodoubleI12CO(1-0)8012CO(1-0) line intensity, with disk inclination i=80{deg} (1)K.km/sphot.flux.density;em.radiodoubleI12CO(2-1)1012CO(2-1) line intensity, with disk inclination i=10{deg} (1)K.km/sphot.flux.density;em.radiodoubleI12CO(2-1)8012CO(2-1) line intensity, with disk inclination i=80{deg} (1)K.km/sphot.flux.density;em.radiodoubleI12CO(3-2)1012CO(3-2) line intensity, with disk inclination i=10{deg} (1)K.km/sphot.flux.density;em.radiodoubleI12CO(3-2)8012CO(3-2) line intensity, with disk inclination i=80{deg} (1)K.km/sphot.flux.density;em.radiodoubleI12CO(6-5)1012CO(6-5) line intensity, with disk inclination i=10{deg} (1)K.km/sphot.flux.density;em.radiodoubleI12CO(6-5)8012CO(6-5) line intensity, with disk inclination i=80{deg} (1)K.km/sphot.flux.density;em.radiodoubleI13CO(1-0)1013CO(1-0) line intensity, with disk inclination i=10{deg} (1)K.km/sphot.flux.density;em.radiodoubleI13CO(1-0)8013CO(1-0) line intensity, with disk inclination i=80{deg} (1)K.km/sphot.flux.density;em.radiodoubleI13CO(2-1)1013CO(2-1) line intensity, with disk inclination i=10{deg} (1)K.km/sphot.flux.density;em.radiodoubleI13CO(2-1)8013CO(2-1) line intensity, with disk inclination i=80{deg} (1)K.km/sphot.flux.density;em.radiodoubleI13CO(3-2)1013CO(3-2) line intensity, with disk inclination i=10{deg} (1)K.km/sphot.flux.density;em.radiodoubleI13CO(3-2)8013CO(3-2) line intensity, with disk inclination i=80{deg} (1)K.km/sphot.flux.density;em.radiodoubleI13CO(6-5)1013CO(6-5) line intensity, with disk inclination i=10{deg} (1)K.km/sphot.flux.density;em.radiodoubleI13CO(6-5)8013CO(6-5) line intensity, with disk inclination i=80{deg} (1)K.km/sphot.flux.density;em.radiodoubleIC18O(1-0)10C18O(1-0) line intensity, with disk inclination i=10{deg} (1)K.km/sphot.flux.density;em.radiodoubleIC18O(1-0)80C18O(1-0) line intensity, with disk inclination i=80{deg} (1)K.km/sphot.flux.density;em.radiodoubleIC18O(2-1)10C18O(2-1) line intensity, with disk inclination i=10{deg} (1)K.km/sphot.flux.density;em.radiodoubleIC18O(2-1)80C18O(2-1) line intensity, with disk inclination i=80{deg} (1)K.km/sphot.flux.density;em.radiodoubleIC18O(3-2)10C18O(3-2) line intensity, with disk inclination i=10{deg} (1)K.km/sphot.flux.density;em.radiodoubleIC18O(3-2)80C18O(3-2) line intensity, with disk inclination i=80{deg} (1)K.km/sphot.flux.density;em.radiodoubleIC18O(6-5)10C18O(6-5) line intensity, with disk inclination i=10{deg} (1)K.km/sphot.flux.density;em.radiodoubleIC18O(6-5)80C18O(6-5) line intensity, with disk inclination i=80{deg} (1)K.km/sphot.flux.density;em.radiodoubleIC17O(1-0)10C17O(1-0) line intensity, with disk inclination i=10{deg} (1)K.km/sphot.flux.density;em.radiodoubleIC17O(1-0)80C17O(1-0) line intensity, with disk inclination i=80{deg} (1)K.km/sphot.flux.density;em.radiodoubleIC17O(2-1)10C17O(2-1) line intensity, with disk inclination i=10{deg} (1)K.km/sphot.flux.density;em.radiodoubleIC17O(2-1)80C17O(2-1) line intensity, with disk inclination i=80{deg} (1)K.km/sphot.flux.density;em.radiodoubleIC17O(3-2)10C17O(3-2) line intensity, with disk inclination i=10{deg} (1)K.km/sphot.flux.density;em.radiodoubleIC17O(3-2)80C17O(3-2) line intensity, with disk inclination i=80{deg} (1)K.km/sphot.flux.density;em.radiodoubleIC17O(6-5)10C17O(6-5) line intensity, with disk inclination i=10{deg} (1)K.km/sphot.flux.density;em.radiodoubleIC17O(6-5)80C17O(6-5) line intensity, with disk inclination i=80{deg} (1)K.km/sphot.flux.density;em.radiodoubleI[CI](3P1-3P0)10Line intensity of [CI](3P1-3P0), with disk inclination i=10{deg} (1)K.km/sphot.flux.density;em.radiodoubleI[CI](3P1-3P0)80Line intensity of [CI](3P1-3P0), with disk inclination i=80{deg} (1)K.km/sphot.flux.density;em.radiodoubleI[CI](3P2-3P1)10Line intensity of [CI](3P2-3P1), with disk inclination i=10{deg} (1)K.km/sphot.flux.density;em.radiodoubleI[CI](3P2-3P1)80Line intensity of [CI](3P2-3P1), with disk inclination i=80{deg} (1)K.km/sphot.flux.density;em.radiodoubleJ/A+A/594/A85/tablea5Parameters of the Herbig models and simulated intensities assuming a distance d=100pc and a beam size of 10"recnoRecord number assigned by the VizieR team. Should Not be used for identification.meta.recordintRcCritical radiusAUphys.size.radiusfloatgammaPower-law index of the surface densityspect.indexfloathcScale height angleradphys.sizefloatpsiDisk flaringstat.paramfloatMdiskTotal disk masssolMassphys.massdoubleI870um10Continuum intensity @ 870 micron, with disk inclination i=10{deg}Kspect.line.intensity;em.mm.200-400GHz;spect.continuumdoubleI870um80Continuum intensity @ 870 micron, with disk inclination i=80{deg}Kspect.line.intensity;em.mm.200-400GHz;spect.continuumdoubleI12CO(1-0)1012CO(1-0) line intensity, with disk inclination i=10{deg} (1)K.km/sphot.flux.density;em.radiodoubleI12CO(1-0)8012CO(1-0) line intensity, with disk inclination i=80{deg} (1)K.km/sphot.flux.density;em.radiodoubleI12CO(2-1)1012CO(2-1) line intensity, with disk inclination i=10{deg} (1)K.km/sphot.flux.density;em.radiodoubleI12CO(2-1)8012CO(2-1) line intensity, with disk inclination i=80{deg} (1)K.km/sphot.flux.density;em.radiodoubleI12CO(3-2)1012CO(3-2) line intensity, with disk inclination i=10{deg} (1)K.km/sphot.flux.density;em.radiodoubleI12CO(3-2)8012CO(3-2) line intensity, with disk inclination i=80{deg} (1)K.km/sphot.flux.density;em.radiodoubleI12CO(6-5)1012CO(6-5) line intensity, with disk inclination i=10{deg} (1)K.km/sphot.flux.density;em.radiodoubleI12CO(6-5)8012CO(6-5) line intensity, with disk inclination i=80{deg} (1)K.km/sphot.flux.density;em.radiodoubleI13CO(1-0)1013CO(1-0) line intensity, with disk inclination i=10{deg} (1)K.km/sphot.flux.density;em.radiodoubleI13CO(1-0)8013CO(1-0) line intensity, with disk inclination i=80{deg} (1)K.km/sphot.flux.density;em.radiodoubleI13CO(2-1)1013CO(2-1) line intensity, with disk inclination i=10{deg} (1)K.km/sphot.flux.density;em.radiodoubleI13CO(2-1)8013CO(2-1) line intensity, with disk inclination i=80{deg} (1)K.km/sphot.flux.density;em.radiodoubleI13CO(3-2)1013CO(3-2) line intensity, with disk inclination i=10{deg} (1)K.km/sphot.flux.density;em.radiodoubleI13CO(3-2)8013CO(3-2) line intensity, with disk inclination i=80{deg} (1)K.km/sphot.flux.density;em.radiodoubleI13CO(6-5)1013CO(6-5) line intensity, with disk inclination i=10{deg} (1)K.km/sphot.flux.density;em.radiodoubleI13CO(6-5)8013CO(6-5) line intensity, with disk inclination i=80{deg} (1)K.km/sphot.flux.density;em.radiodoubleIC18O(1-0)10C18O(1-0) line intensity, with disk inclination i=10{deg} (1)K.km/sphot.flux.density;em.radiodoubleIC18O(1-0)80C18O(1-0) line intensity, with disk inclination i=80{deg} (1)K.km/sphot.flux.density;em.radiodoubleIC18O(2-1)10C18O(2-1) line intensity, with disk inclination i=10{deg} (1)K.km/sphot.flux.density;em.radiodoubleIC18O(2-1)80C18O(2-1) line intensity, with disk inclination i=80{deg} (1)K.km/sphot.flux.density;em.radiodoubleIC18O(3-2)10C18O(3-2) line intensity, with disk inclination i=10{deg} (1)K.km/sphot.flux.density;em.radiodoubleIC18O(3-2)80C18O(3-2) line intensity, with disk inclination i=80{deg} (1)K.km/sphot.flux.density;em.radiodoubleIC18O(6-5)10C18O(6-5) line intensity, with disk inclination i=10{deg} (1)K.km/sphot.flux.density;em.radiodoubleIC18O(6-5)80C18O(6-5) line intensity, with disk inclination i=80{deg} (1)K.km/sphot.flux.density;em.radiodoubleIC17O(1-0)10C17O(1-0) line intensity, with disk inclination i=10{deg} (1)K.km/sphot.flux.density;em.radiodoubleIC17O(1-0)80C17O(1-0) line intensity, with disk inclination i=80{deg} (1)K.km/sphot.flux.density;em.radiodoubleIC17O(2-1)10C17O(2-1) line intensity, with disk inclination i=10{deg} (1)K.km/sphot.flux.density;em.radiodoubleIC17O(2-1)80C17O(2-1) line intensity, with disk inclination i=80{deg} (1)K.km/sphot.flux.density;em.radiodoubleIC17O(3-2)10C17O(3-2) line intensity, with disk inclination i=10{deg} (1)K.km/sphot.flux.density;em.radiodoubleIC17O(3-2)80C17O(3-2) line intensity, with disk inclination i=80{deg} (1)K.km/sphot.flux.density;em.radiodoubleIC17O(6-5)10C17O(6-5) line intensity, with disk inclination i=10{deg} (1)K.km/sphot.flux.density;em.radiodoubleIC17O(6-5)80C17O(6-5) line intensity, with disk inclination i=80{deg} (1)K.km/sphot.flux.density;em.radiodoubleI[CI](3P1-3P0)10Line intensity of [CI](3P1-3P0), with disk inclination i=10{deg} (1)K.km/sphot.flux.density;em.radiodoubleI[CI](3P1-3P0)80Line intensity of [CI](3P1-3P0), with disk inclination i=80{deg} (1)K.km/sphot.flux.density;em.radiodoubleI[CI](3P2-3P1)10Line intensity of [CI](3P2-3P1), with disk inclination i=10{deg} (1)K.km/sphot.flux.density;em.radiodoubleI[CI](3P2-3P1)80Line intensity of [CI](3P2-3P1), with disk inclination i=80{deg} (1)K.km/sphot.flux.density;em.radiodouble