activity
20182021
most citedSaltation under Martian Gravity and its Influence on the Global Dust Distribution

43 citations · 191 across the 8 of their papers we have counts for

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Showing astro-ph.EPShow all

8 papers · 1 filter

astro-ph.EP202122 cited

A Smoking Gun for Planetesimal Formation: Charge Driven Growth into a New Size Range

Jens Teiser, Maximilian Kruss, Felix Jungmann +1

Collisions electrically charge grains which promotes growth by coagulation. We present aggregation experiments with three large ensembles of basalt beads ($150\,μ\mathrm{m} - 180\,…

astro-ph.EP202013 cited

Laboratory Impact Splash Experiments to Simulate Asteroid Surfaces

Tabea Bogdan, Jonathan E. Kollmer, Jens Teiser +2

Granular material that is bound by the low gravity of a small asteroid is mobilized by slow velocity impacts. These splashes generated by impacts might play an important role in sc…

astro-ph.EP202026 cited

Composition and Size Dependent Sorting in Preplanetary Growth: Seeding the Formation of Mercury-like Planets

Maximilian Kruss, Gerhard Wurm

In an earlier work, we found that large metallic iron fractions in dust aggregates and strong magnetic fields boost preplanetary growth. This sets an initial bias for the formation…

astro-ph.EP201925 cited

Wind erosion on Mars and other small terrestrial planets

Maximilian Kruss, Grzegorz Musiolik, Tunahan Demirci +2

We carried out wind tunnel experiments on parabolic flights with 100 m Mojave Mars simulant sand. The experiments result in shear stress thresholds and erosion rates for varying…

astro-ph.EP2019

Are Pebble Pile Planetesimals Doomed?

Tunahan Demirci, Maximilian Kruss, Jens Teiser +4

In parabolic flight experiments we studied the wind induced erosion of granular beds composed of spherical glass beads at low gravity and low ambient pressure. Varying g-levels wer…

astro-ph.EP201837 cited

Seeding the Formation of Mercurys: An Iron-sensitive Bouncing Barrier in Disk Magnetic Fields

Maximilian Kruss, Gerhard Wurm

The inner part of protoplanetary disks can be threaded by strong magnetic fields. In laboratory levitation experiments, we study how magnetic fields up to 7 mT influence the aggreg…