Chair of Theoretical Astrophysics of Extrasolar Planets

The Munich Exoplanet Chair (sub-department) works broadly on the theory, observation, simulation and phenomenology of exoplanets with a strong focus on understanding their atmospheres. Within the Chair, we have expertise in exoplanetary atmospheres (chemistry, dynamics, radiative transfer, Bayesian inference methods), astrochemistry, disk chemistry and exoplanet observations (using both ground- and space-based telescopes). The Chair is part of the mission consortium of the ARIEL space telescope of the European Space Agency (ESA).

Research Groups

General theory and phenomenology of exoplanetary atmospheres

Theory Group Webpage

Planet formation theory, astrochemistry of protoplanetary disks and planetary atmospheres

Astrochemistry Group Webpage

Exoplanet observations & modelling, precise radial velocities, planet interiors, stellar activity, young planets

Exoplanet Observations Group Webpage

Exoplanets, geodynamics, geochemistry, petrology

Geosciences Group Webpage

General circulation models (GCMs), radiative transfer, photochemistry

GCMs Group Webpage

Team meetings (including visitors), seminars & Master projects

News from the Munich Exoplanet Chair

Recent Publications

  • Ph.D student Anna Lueber recently led an atmospheric retrieval study of the hot Jupiter WASP-39b, which is a target of the Early Release Science (ERS) program of the James Webb Space Telescope (JWST). The paper has been published in the Astronomy & Astrophysics journal. By running a large suite of retrievals on 4 spectra measured by 4 different instruments of the JWST, the study showed that the detections of sulfur dioxide and carbon monoxide are model-dependent based on interpreting these spectra alone.

  • A paper led by David Cont (Fraunhofer-Schwarzschild-Fellow) has recently been accepted for publication in the journal Astronomy & Astrophysics. The study consists of an in-depth characterization of the emission spectrum of the ultra-hot Jupiter WASP-178b, providing detailed insights into the thermal, chemical and dynamical properties of its dayside. The successful application of a joint retrieval of CRIRES+, TESS and CHEOPS observations highlights the potential of combined studies with space- and ground-based instruments and represents a promising avenue for advancing our understanding of exoplanet atmospheres.

Members

Keith Baka

PhD Student

Prateek Boga

Master Student

Dr. David Cont

Fraunhofer-Schwarzschild Postdoctoral Fellow

Dr. Alex Cridland

Staff Scientist

Thomas Drant

Ph.D Student

Dr. Leonardos Gkouvelis

Staff Scientist

Matthias Heim

Master Student

Prof. Dr. Kevin Heng

Professor

Sophie Lange

Master Student

Dr. Louise Nielsen

Staff Scientist & Fraunhofer-Schwarzschild Fellow

Surya Shivaprasad

Master student

Ina Taxis

Master Student

Dr. Meng Tian

Staff Scientist

Benjamin Wechselberger

Master Student