M. Kim
Also known as: Min Kim, Minjae Gaspar Kim
University College London, University of Warwick, Kiel University, Heidelberg University, Austrian Academy of Sciences
About
I am a planetary scientist dedicated to unraveling the mysteries of planet formation and evolution. My research focuses on the chemical and dynamical evolution in planetary systems, dust formation, and their roles in planetary environments and habitability in exoplanetary systems.
Through the GEPOD ("Global Evolution of Planet-fOrming Disks") project, we're developing a comprehensive observational and theoretical framework to understand planet formation—addressing one of the most fundamental questions in modern astronomy: how do planetary systems, including our own, come to be? We combine cutting-edge numerical simulations with multi-wavelength observations to study the evolution of gas and dust in protoplanetary disks, the birthplaces of planets.
My research also examines dust traces from debris discs around stars to reveal details about planetary system formation and evolution. I apply radiative transfer and SPH simulations to circumstellar disks around main-sequence stars and manage extensive datasets including the Herschel debris disk and MIDAS/Rosetta dust particle catalogues.
Additionally, I am the ESA project lead studying the dust of comet 67P/Churyumov-Gerasimenko collected by Rosetta/MIDAS (under "Primitiveness of cometary dust collected by MIDAS on-board Rosetta", Contract No. 4000129476). This work examines dust morphology at micro- to nanometer scales to enhance our understanding of comets and dust growth processes in the early Solar System.
Employment
-
University College London2024 - Present
-
University of Warwick Research Fellow2022 - 2024
-
Austrian Academy of Sciences ESA project Lead2022 - 2022
-
Austrian Academy of Sciences ESA/Rosetta Postdoc2021 - 2021
Education
-
Kiel University Ph. D. in Astrophysics
-
Heidelberg University M. Sc. in Physics and Astronomy
Projects & Funding
Projects & funding information is unavailable.
Publications (50)
- Protoplanetary Disk Cavities with JWST-MIRI: A Dichotomy in Molecular Emission Save
- PLANETARY SCIENCE THEORIES AND OBSERVATIONS - Exoplanetary system and exoplanet Save
- The JWST Early Release Science Program for Direct Observations of Exoplanetary Systems. VI. Evidence for Radially Evolving Icy Grains in the HD 141569A Disk via NIRCam Coronagraphic Imaging Save
- An imprint of low-mass companions in the substructures of debris disks Save
- Planet-disk interaction in solar system analogs: looking for planets and substructures in debris disk systems. Save
- Probing Planetary Architectures and Disk Composition via Far-Infrared Interferometry Save
- Impact of discontinuous grain size distributions on the spectral energy distribution of debris disks Save
- Protoplanetary and debris disks in the η Chamaeleontis Association Save
- The JWST Early Release Science Program for Direct Observations of Exoplanetary Systems. V. Do Self-consistent Atmospheric Models Represent JWST Spectra? A Showcase with VHS 1256–1257 b Save
- Collection alteration and pristine structural properties of dust particles collected by MIDAS/Rosetta at comet 67P/Churyumov-Gerasimenko Save