SMALL BODIES OF THE SOLAR SYSTEM-SCIENTIFIC CHALLENGES AND PRACTICAL ASPECTS
Секция: PLENARY TALKS
Аннотация и ключевые слова
Аннотация (русский):
The study of small bodies of the Solar system provides the key to understanding the processes of its formation and evolution. Basic science here is closely related to the applied aspects. First of all, this is true in relation to Near-Earth Objects (NEOs). The brief overview focuses on the discussion of such links. In particular, the following two topics connecting fundamental and practical issues are considered: origin, characteritics, and evolution of the NEO population $\leftrightarrow$ the problem of asteroid-comet hazard; meteoroids of both cometary and asteroid origin $\leftrightarrow$ safety of space activities in near-Earth space. The issues of coordination of research on small bodies topic both at the domestic and international levels are briefly discussed too. Special attention is paid to the prospects for coordinating research work on small bodies within the framework of the federal project ``Mlechny Put'' (Milky Way).

Ключевые слова:
small bodies of the Solar system, Near-Earth Objects, planetary defense, meteoroids, safety of space activities
Список литературы

1. Barbee B. W., Sarli B., Lyzhoft J., et al., 2020, LPI Contrib., 2242, id. 2009

2. Braun V., Horstmann A., Lemmens S., et al., 2021, 8th European Conference on Space Debris, id. 18

3. Buckley D., McBride V., Barres De Almeida U., et al., 2021, Anais da Academia Brasileira de Ciencias, 93, id. e20200917

4. Busarev V.V., Barabanov S. I., and Puzin V. B., 2016, Solar System Research, 50, 4, p. 281

5. Cour-Palais B. G., 1969, ``Meteoroid Environment Model-1969: Near Earth to Lunar Surface", NASA SP-8013 (Washington, DC: NASA)

6. Drolshagen G., Koschny D., Drolshagen S., et al., 2017, Plavetary and Space Science, 143, p. 21

7. Flegel S.K., Krisko P., Gelhaus J., et al., 2010, 38th COSPAR Scientific Assembly, 38, p. 12

8. Granvik M., Morbidelli A., Jedicke R., et al., 2018, Icarus, 312, p. 181

9. Grun E., Zook H.A., Fechtig H., et al., 1985, Icarus, 62, 2, p. 244

10. Harris A.W. and Harris A.W. 1997, Icarus, 126, 2, p. 450

11. Hoffmann T., Gehlen M., Plaggenborg T., et al., 2022, Frontiers in Astronomy and Space Sciences, 9, id. 895732

12. Ivezic Z ., Kahn S.M., Tyson J.A., et al., 2019, Astrophys. J., 873, 2, id. 111

13. Jacobson S., Bose M., Bodewits D., et al., 2021, Bulletin of the American Astronomical Society, 53, 4, id. 171

14. Karpov S., Beskin G., Biryukov A., et al., 2016, Revista Mexicana de Astronomia y Astrofisica Conference Series, 48, p. 91

15. Mainzer A.K., Masiero J.R., Abell P.A., et al., 2023, Planetary Science Journal, 4, 12, id. 224

16. Marchiori G., Tordi M., Ghedin L., et al., 2022, Proc. SPIE, 12182, id. 121824K

17. Moorhead A.V., 2019, LPI Contrib., 2109, id. 6054

18. Murtazov A.K., 2018, Open Astronomy, 27, p. 144

19. Reddy V., Kelley M.S., Farnocchia D., et al., 2019, Icarus, 326, p. 133

20. Shugarov A., Shmagin V., Boqian X., et al., 2021, 7th IAA Planetary Defense Conference, id. 100

21. Shustov B.M., 2019, INASAN Science Reports, 4, p. 356

22. Shustov B.M., Naroenkov S.A., Emel’yanenko V.V., et al., 2013, Solar System Research, 47, 4, p. 288

23. Shustov B.M., Shugarov A.S., Naroenkov, S. A., 2015, Astronomy Reports, 59, 10, p. 983

24. Shustov B.M., Zolotarev R.V., Busarev V.V., et al., 2022, Astronomy Reports, 66, 11, p. 1098

25. Tonry J. L., Denneau L., Heinze A.N., et al., 2018, PASP, 130, id. 064505

26. Yang H. and Ishiguro M., 2018, Astrophys. J., 854, 2, id. 173

27. Zolotarev R.V. and Shustov B.M., 2023, Astronomy Reports, 67, 10, p. 1019

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