26 Nov

Atmospheric Chemistry of Terrestrial Exoplanets

Date:

Thu:
2:15 pm - 4:00 pm

26 November 2026

Location:

Room C307 & via zoom Theresienstr. 41C 80333, Munich

Abstract

Diverse stellar environments and orbital configurations shape the atmospheric physics and chemistry of terrestrial exoplanets. Understanding these atmospheric conditions is essential for assessing their habitability and interpreting future spectroscopic observations. In this lecture, we will explore the latest findings from state-of-the-art climate-chemistry models describing these atmospheres. We will discuss how such predictions inform future space missions designed to assess exoplanet habitability and look for atmospheric biosignatures, thereby advancing our understanding of the origin and distribution of life in the Universe.

Earth's dynamic atmosphere - showing a lightening strike - with the Milky Way in the background.
© NASA/Kjell Lindgren

Speaker

© M. Braam

Dr. Marrick Braam

SNSF Ambizione Fellow
Center for Space and Habitability (CSH)
University of Bern

Speaker Profile

https://www.marrickbraam.com/

Research Interests

Modelling and theory of terrestrial exoplanet atmospheres | Atmospheric chemistry & dynamics | Climate | Energetic processes (flares, lightning) | Habitability | Prebiotic chemistry | Planetary origins of life

List of publications

Speaker Meetings

Depending on the speaker's availability, one-on-one meetings may be possible before or after the seminar. In case of interest, please send us an e-mail

Abstract

Diverse stellar environments and orbital configurations shape the atmospheric physics and chemistry of terrestrial exoplanets. Understanding these atmospheric conditions is essential for assessing their habitability and interpreting future spectroscopic observations. In this lecture, we will explore the latest findings from state-of-the-art climate-chemistry models describing these atmospheres. We will discuss how such predictions inform future space missions designed to assess exoplanet habitability and look for atmospheric biosignatures, thereby advancing our understanding of the origin and distribution of life in the Universe.