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Fragment properties from large-scale asteroid collisions: I: Results from SPH/N-body simulations using porous parent bodies and improved material models

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arxiv 1808.03464 v1 pith:3LU27WZK submitted 2018-08-10 astro-ph.EP

classification astro-ph.EP
keywords parentporoustargetsbodiesdisruptionimpactmaterialn-body
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Understanding the collisional fragmentation and subsequent reaccumulation of fragments is crucial for studies of the formation and evolution of the small-body populations. Using an SPH / N-body approach, we investigate the size-frequency distributions (SFDs) resulting from the disruption of 100 km-diameter targets consisting of porous material, including the effects of pore-crushing as well as friction. Overall, the porous targets have a significantly higher impact strength (Q*D) than the rubble-pile parent bodies investigated previously (Benavidez et al., 2012) and show a behavior more similar to non-porous monolithic targets (Durda et al., 2007). Our results also confirm that for a given specific impact energy, the SFDs resulting from a parent body disruption are strongly dependent on the size scale.

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  1. Impacts into rotating targets: angular momentum draining and efficient formation of synthetic families

    astro-ph.EP 2019-08 conditional novelty 6.0 of 10

    Rotation makes oblique cratering impacts eject up to five times more debris and, on average, impacts spin asteroids down.

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