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Max Planck Institute for Astronomy


From dusk till dawn

Researchers used the James Webb Space Telescope to measure how star light absorption changes as WASP-121 b rotates, probing its atmosphere longitude by longitude. The data indicate that hot winds heat the evening terminator region, causing it to absorb more stellar radiation and expand.

SourceMax Planck Institute for Astronomy·JournalNature Astronomy·TypeObservational study·DateJun 10, 2026

SPHERE’s debris disk gallery: tell-tale signs of dust and small bodies in distant solar systems

The SPHERE instrument has produced an unprecedented gallery of debris disks in exoplanetary systems, allowing for deductions of smaller bodies. These observations provide a glimpse of the earliest history of the solar system, with small bodies serving as remnants from planetesimals that did not evolve into larger planets.

SourceMax Planck Institute for Astronomy·JournalAstronomy and Astrophysics·TypeObservational study·DateDec 3, 2025

Water tornado in the laboratory: A simple experiment simulates planet formation

Researchers create water tornado to investigate flow properties in protoplanetary discs, mimicking gravitational field and finding particles' motion conforming to Kepler's laws. The experiment provides insights into dust-particle interactions promoting planet formation.

SourceMax Planck Institute for Astronomy·JournalMonthly Notices of the Royal Astronomical Society Letters·TypeExperimental study·DateJul 21, 2025

Astronomers find the nearest massive black hole, a missing link in massive black hole formation

Researchers have found the nearest massive black hole to Earth, located at the center of Omega Centauri, a galaxy that was swallowed by the Milky Way. The discovery provides insight into the formation history of galaxies and confirms long-held suspicions about the existence of intermediate-mass black holes.

SourceMax Planck Institute for Astronomy·JournalNature·TypeObservational study·DateJul 10, 2024

Migration solves exoplanet puzzle

Research suggests that planetary migration is the key to explaining the mysterious gap in the size distribution of super-Earths. Simulations show that sub-Neptunes' evolution contributes to the observed radius valley, while rocky planets 'shrink' by losing their atmosphere.

SourceMax Planck Institute for Astronomy·JournalNature Astronomy·TypeComputational simulation/modeling·DateFeb 9, 2024