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Mechanical properties of rubble pile asteroids (Dimorphos, Itokawa, Ryugu, and Bennu) through surface boulder morphological analysis

Author

Listed:
  • Colas Q. Robin

    (Université de Toulouse)

  • Alexia Duchene

    (Université de Toulouse)

  • Naomi Murdoch

    (Université de Toulouse)

  • Jean-Baptiste Vincent

    (DLR Institute of Planetary Research)

  • Alice Lucchetti

    (INAF-Astronomical Observatory of Padova)

  • Maurizio Pajola

    (INAF-Astronomical Observatory of Padova)

  • Carolyn M. Ernst

    (Johns Hopkins University Applied Physics Laboratory)

  • R. Terik Daly

    (Johns Hopkins University Applied Physics Laboratory)

  • Olivier S. Barnouin

    (Johns Hopkins University Applied Physics Laboratory)

  • Sabina D. Raducan

    (University of Bern)

  • Patrick Michel

    (Lagrange Laboratory
    School of Engineering)

  • Masatochi Hirabayashi

    (Georgia Institute of Technology)

  • Alexander Stott

    (Université de Toulouse)

  • Gabriela Cuervo

    (Université de Toulouse)

  • Erica R. Jawin

    (Smithonian National Air and Space Museum)

  • Josep M. Trigo-Rodriguez

    (Campus UAB, Carrer Can Magrans s/n)

  • Laura M. Parro

    (Alicante University)

  • Cecily Sunday

    (Université de Toulouse
    University of Maryland)

  • Damien Vivet

    (Université de Toulouse)

  • David Mimoun

    (Université de Toulouse)

  • Andrew S. Rivkin

    (Johns Hopkins University Applied Physics Laboratory)

  • Nancy L. Chabot

    (Johns Hopkins University Applied Physics Laboratory)

Abstract

Planetary defense efforts rely on estimates of the mechanical properties of asteroids, which are difficult to constrain accurately from Earth. The mechanical properties of asteroid material are also important in the interpretation of the Double Asteroid Redirection Test (DART) impact. Here we perform a detailed morphological analysis of the surface boulders on Dimorphos using images, the primary data set available from the DART mission. We estimate the bulk angle of internal friction of the boulders to be 32.7 ± 2. 5° from our measurements of the roundness of the 34 best-resolved boulders ranging in size from 1.67–6.64 m. The elongated nature of the boulders around the DART impact site implies that they were likely formed through impact processing. Finally, we find striking similarities in the morphology of the boulders on Dimorphos with those on other rubble pile asteroids (Itokawa, Ryugu and Bennu). This leads to very similar internal friction angles across the four bodies and suggests that a common formation mechanism has shaped the boulders. Our results provide key inputs for understanding the DART impact and for improving our knowledge about the physical properties, the formation and the evolution of both near-Earth rubble-pile and binary asteroids.

Suggested Citation

  • Colas Q. Robin & Alexia Duchene & Naomi Murdoch & Jean-Baptiste Vincent & Alice Lucchetti & Maurizio Pajola & Carolyn M. Ernst & R. Terik Daly & Olivier S. Barnouin & Sabina D. Raducan & Patrick Miche, 2024. "Mechanical properties of rubble pile asteroids (Dimorphos, Itokawa, Ryugu, and Bennu) through surface boulder morphological analysis," Nature Communications, Nature, vol. 15(1), pages 1-11, December.
  • Handle: RePEc:nat:natcom:v:15:y:2024:i:1:d:10.1038_s41467-024-50147-w
    DOI: 10.1038/s41467-024-50147-w
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    References listed on IDEAS

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    1. Olivier Barnouin & Ronald-Louis Ballouz & Simone Marchi & Jean-Baptiste Vincent & Harrison Agrusa & Yun Zhang & Carolyn M. Ernst & Maurizio Pajola & Filippo Tusberti & Alice Lucchetti & R. Terik Daly , 2024. "The geology and evolution of the Near-Earth binary asteroid system (65803) Didymos," Nature Communications, Nature, vol. 15(1), pages 1-14, December.
    2. J. Bigot & P. Lombardo & N. Murdoch & D. J. Scheeres & D. Vivet & Y. Zhang & J. Sunshine & J. B. Vincent & O. S. Barnouin & C. M. Ernst & R. T. Daly & C. Sunday & P. Michel & A. Campo-Bagatin & A. Luc, 2024. "The bearing capacity of asteroid (65803) Didymos estimated from boulder tracks," Nature Communications, Nature, vol. 15(1), pages 1-11, December.

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