Here we present materials from the paper Young asteroid families as the primary source of meteorites by Brož, Vernazza, Marsset et al.
See the submitted paper, published paper, as well as accompanying paper by Marsset et al.! For those in a hurry, we have an 8-minute research summary that was presented at the DPS 2024 meeting.
Major results and implications ↓
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Supplementary animations →
An 8-minute research summary. | Fig. 2 The Koronis2 family is 7.6 My old from convergence of orbits. | Fig. 3 Excess of metre-sized bodies among young families with respect to large but old ones. Karin family. Cf. inverse vers. | Extended Data Fig. 1 Extrapolation of the observed SFD for the Koronis2 family. Cf. inverse vers. | Karin-like collision contributing to the abundance of H chondrites. Volumetric rendering, specific energy. Computed with Opensph. | Ditto for looong time span. | Ditto for particle rendering, |velocity|. | Shape model of (158) Koronis from DAMIT | Ditto for (832) Karin. | NWA 869 meteorite, ordinary chondrite, H5. |
Supplementary files ↓
boulder/ | Collisional models, initial conditions |
main_belt_families_2021Jun/ | Family indentification |
nbody_backward/ | Backward integrations |
nbody_metresized/ | Transport model, 1-m bodies |
nbody_synthetic/ | Transport model, 1-km bodies |
Fig2.tar.gz | Fig. 2 data |
Fig3.tar.gz | Fig. 3 data |
FigA1.tar.gz | Extended Data Fig. 1 data |
boulder_simplex_CRATERING.tar.gz | Boulder code, Monte-Carlo collisions (Morbidelli et al. 2009) |
hcluster4.tar.gz | HCM algorithm |
karin1.sph | Project for Opensph (Ševeček et al. 2019) |
swift.tar.gz | SWIFT integrator (Levison & Duncan 1994) |
swift_bs_f_omega.tar.gz | ditto, for initial conditions |
swift_mvs2_fp_ye_YORP_FBR.tar.gz | ditto, for backward integrations |
swift_rmvs3_fp_ye_yorp_20220227_GIT.tar.gz | ditto, for forward integrations |
swift_rmvs3_fp_ye_YORP_STRENGTHREGIME.tar.gz | ditto, previous vers. |
paper2.pdf | paper (submitted vers.) |