Funding: EU FP7-2011 under Grant Agreement no. 284405 (I.K., W.F.T., and P.W).Context. Disks around pre-main-sequence stars evolve over time by turbulent viscous spreading. The main contender to explain the strength of the turbulence is the magnetorotational instability model, whose efficiency depends on the disk ionization fraction. Aims. Our aim is to compute self-consistently the chemistry including polycyclic aromatic hydrocarbon (PAH) charge chemistry, the grain charging, and an estimate of an effective value of the turbulence α parameter in order to find observational signatures of disk turbulence. Methods. We introduced PAH and grain charging physics and their interplay with other gas-phase reactions in the physico-chemical code PROD...
Aims: To calculate chemistry and gas temperature of evolving protoplanetary disks with decreasing ma...
Artículo de puiblicación ISIWe propose a set of standard assumptions for the modelling of Class II a...
Planetary formation takes place in the protoplanetary disks of gas and dust surrounding young stars....
Context. Disks around pre-main-sequence stars evolve over time by turbulent viscous spreading. The m...
Context. Disks around pre-main-sequence stars evolve over time by turbulent viscous spreading. The m...
Context. Disks around pre-main-sequence stars evolve over time by turbulent viscous spreading. The m...
International audienceContext. Disks around pre-main-sequence stars evolve over time by turbulent vi...
Context. Disks around pre-main-sequence stars evolve over time by turbulent viscous spreading. The m...
We calculate the chemical evolution of protoplanetary disks considering radial viscous accretion, ve...
Context. Dust sedimentation is known to affect the infrared spectra and images of disks. In particul...
We have developed a high-resolution combined physical and chemical model of a protoplanetary disk su...
Magnetorotational instability (MRI) is the most promising mechanism behind accretion in low-mass pro...
We present results from a model of the chemical evolution of protoplanetary disks. In our models, we...
We propose a set of standard assumptions for the modelling of Class II and III protoplanetary disks,...
Aims: To calculate chemistry and gas temperature of evolving protoplanetary disks with decreasing ma...
Artículo de puiblicación ISIWe propose a set of standard assumptions for the modelling of Class II a...
Planetary formation takes place in the protoplanetary disks of gas and dust surrounding young stars....
Context. Disks around pre-main-sequence stars evolve over time by turbulent viscous spreading. The m...
Context. Disks around pre-main-sequence stars evolve over time by turbulent viscous spreading. The m...
Context. Disks around pre-main-sequence stars evolve over time by turbulent viscous spreading. The m...
International audienceContext. Disks around pre-main-sequence stars evolve over time by turbulent vi...
Context. Disks around pre-main-sequence stars evolve over time by turbulent viscous spreading. The m...
We calculate the chemical evolution of protoplanetary disks considering radial viscous accretion, ve...
Context. Dust sedimentation is known to affect the infrared spectra and images of disks. In particul...
We have developed a high-resolution combined physical and chemical model of a protoplanetary disk su...
Magnetorotational instability (MRI) is the most promising mechanism behind accretion in low-mass pro...
We present results from a model of the chemical evolution of protoplanetary disks. In our models, we...
We propose a set of standard assumptions for the modelling of Class II and III protoplanetary disks,...
Aims: To calculate chemistry and gas temperature of evolving protoplanetary disks with decreasing ma...
Artículo de puiblicación ISIWe propose a set of standard assumptions for the modelling of Class II a...
Planetary formation takes place in the protoplanetary disks of gas and dust surrounding young stars....