ProjectCircumDisk – The Dynamics of circumbinary Disks and embedded Planets
Basic data
Acronym:
CircumDisk
Title:
The Dynamics of circumbinary Disks and embedded Planets
Duration:
01/04/2016 to 31/03/2020
Abstract / short description:
The majority of stars reside in binary star systems. During their formation a sufficiently close binary star system
is still surrounded by a circumbinary disk from which there is still material being accreted onto the binary.
The orbital motion of the binary transfers angular momentum to the disk and a central inner cavity forms.
These cavities have been directly detected in some special systems and the high spatial resolution
capabilities of ALMA will allow to investigate more of these sources in even higher detail.
A very active recent research topic is the formation and evolution of the circumbinary planets
in these disks as observed by the Kepler-mission.
Clearly, the structure and dynamics of the circumbinary disk is strongly influenced by the properties of the binary star.
In this project we plan to
perform new two- and three-dimensional hydrodynamical simulations to elaborate the detailed structure of the disk.
In particular the inner regions close to the stars are in the focus of this research.
Given the disk physics we will perform evolutionary simulations of embedded planets and compare their final configuration
with the results of the Kepler mission, in order to understand their formation process.
is still surrounded by a circumbinary disk from which there is still material being accreted onto the binary.
The orbital motion of the binary transfers angular momentum to the disk and a central inner cavity forms.
These cavities have been directly detected in some special systems and the high spatial resolution
capabilities of ALMA will allow to investigate more of these sources in even higher detail.
A very active recent research topic is the formation and evolution of the circumbinary planets
in these disks as observed by the Kepler-mission.
Clearly, the structure and dynamics of the circumbinary disk is strongly influenced by the properties of the binary star.
In this project we plan to
perform new two- and three-dimensional hydrodynamical simulations to elaborate the detailed structure of the disk.
In particular the inner regions close to the stars are in the focus of this research.
Given the disk physics we will perform evolutionary simulations of embedded planets and compare their final configuration
with the results of the Kepler mission, in order to understand their formation process.
Keywords:
formation of planets
Planetenentstehung
star formation
Sternentstehung
binary stars
Doppelsterne
Involved staff
Managers
Kley, Wilhelm
Faculty of Science
University of Tübingen
University of Tübingen
Institute of Astronomy and Astrophysics (IAAT)
Department of Physics, Faculty of Science
Department of Physics, Faculty of Science
Contact persons
Institute of Astronomy and Astrophysics (IAAT)
Department of Physics, Faculty of Science
Department of Physics, Faculty of Science
Institute of Astronomy and Astrophysics (IAAT)
Department of Physics, Faculty of Science
Department of Physics, Faculty of Science
CRC-TR 7 - Gravitational Wave Astronomy
Collaborative research centers and transregios
Collaborative research centers and transregios
Local organizational units
Institute of Astronomy and Astrophysics (IAAT)
Department of Physics
Faculty of Science
Faculty of Science
Funders
Bonn, Nordrhein-Westfalen, Germany