activity
20242026
most citedEffects of Stellar X-ray Photoevaporation on Planetesimal Formation via the Streaming Instability

1 citations · 1 across the 3 of their papers we have counts for

collaborators

8 papers

astro-ph.EP2026

Late-infall-induced formation of giant planets, multigenerational planetesimals, and disk substructures

Haichen Zhao, Tommy Chi Ho Lau, Joanna DrÄ Å¼kowska +3

Late infall can replenish the building materials of planets in protoplanetary disks and dramatically alter their structural evolution. The resulting pressure bumps effectively accu…

astro-ph.EP2026

A tension between dust and gas radii: the role of substructures and external photoevaporation in protoplanetary disks

Luca Delussu, Rossella Anania, Tilman Birnstiel +5

Protoplanetary disk substructures are thought to play a crucial role in disk evolution and planet formation. Population studies of disks large-sample size surveys show that substru…

astro-ph.EP20261 cited

Effects of Stellar X-ray Photoevaporation on Planetesimal Formation via the Streaming Instability

Xuchu Ying, Beibei Liu, Haifeng Yang +7

The formation of planetesimals via the streaming instability (SI) is a crucial step in planet formation, yet its triggering conditions and efficiency are highly sensitive to both d…

astro-ph.IM2025

TriPoDPy: 1D Tri-Population size distributions forDust evolution in protoplanetary disks

Nicolas Leo Kaufmann, Thomas Pfeil, Sebastian Stammler +3

TriPoDPy is a code simulating the dust evolution, including dust growth and dynamics in protoplanetary disks using the parametric dust model presented in (Pfeil et al., 2024). The…

astro-ph.EP2025

Formation of Multiple Dynamical Classes in the Kuiper Belt via Disk Dissipation

Tommy Chi Ho Lau, Til Birnstiel, Sebastian Markus Stammler +1

Planetesimal formation likely lasted for millions of years in the solar nebula, and the cold classicals in the Kuiper Belt are suggested to be the direct products of streaming inst…

astro-ph.EP2025

Turbulence Inhibits Planetesimal Formation in Class 0/I Disks Subject to Infall

Daniel Carrera, Abigail Davenport, Jacob B. Simon +5

There is growing evidence that planet formation begins early, within the Myr Class 0/I phase, when infall dominates disk dynamics. Our goal is to determine if Class 0/I…