A web calculator based on hydrodynamic modeling of impacts of cosmic objects from 20 m to 3 km in diameter

Abstract We completed numerical simulations of a number of asteroid and comet impacts on Earth to predict related shock wave and thermal radiation effects and to estimate seismic effects, as well as ionospheric disturbances. Using interpolation of the results, we were able to estimate these effects for arbitrary impact parameters. In addition, we used previously developed models to estimate the size of the impact crater and ejecta thickness. Finally, we developed a user‐friendly web‐based calculator ( https://asteroidhazard.pro/ ) that quickly estimates shock wave pressure and radiation exposure at a given location, as well as crater size and average ejecta layer thickness, if any, seismic magnitude, change in ionospheric density, and some other values. The input parameters of the calculator are the impactor diameter and density, its speed and inclination angle of the trajectory above the atmosphere, and the coordinates of the observer (the point on the ground where it is necessary to determine the impact consequences). This paper describes the methods of numerical simulations and techniques for approximating the results. We present a few examples of how to assess the impact hazard, in particular, overpressure and wind speed on the surface, thermal radiation, and seismic shaking after a crater‐forming impact or an airburst in the atmosphere.

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Institutions

Publication Details

Journal
Meteoritics and Planetary Science
Published
2025-02-19
DOI
https://doi.org/10.1111/maps.14329
Citations
1
Primary Topic
Astro and Planetary Science
Type
article
Field-Weighted Citation Impact
1.15

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article

A web calculator based on hydrodynamic modeling of impacts of cosmic objects from 20 m to 3 km in diameter

В. В. Шувалов, V. V. Svetsov, D. O. Glazachev, E. D. Podobnaya et al.
1 citations
Meteoritics and Planetary Science
Astro and Planetary Science
1.15
article

A web calculator based on hydrodynamic modeling of impacts of cosmic objects from 20 m to 3 km in diameter

В. В. Шувалов, V. V. Svetsov, D. O. Glazachev, E. D. Podobnaya, О. П. Попова, N. A. Artemieva, V. M. Khazins
article en
1 citations

Abstract

Abstract We completed numerical simulations of a number of asteroid and comet impacts on Earth to predict related shock wave and thermal radiation effects and to estimate seismic effects, as well as ionospheric disturbances. Using interpolation of the results, we were able to estimate these effects for arbitrary impact parameters. In addition, we used previously developed models to estimate the size of the impact crater and ejecta thickness. Finally, we developed a user‐friendly web‐based calculator ( https://asteroidhazard.pro/ ) that quickly estimates shock wave pressure and radiation exposure at a given location, as well as crater size and average ejecta layer thickness, if any, seismic magnitude, change in ionospheric density, and some other values. The input parameters of the calculator are the impactor diameter and density, its speed and inclination angle of the trajectory above the atmosphere, and the coordinates of the observer (the point on the ground where it is necessary to determine the impact consequences). This paper describes the methods of numerical simulations and techniques for approximating the results. We present a few examples of how to assess the impact hazard, in particular, overpressure and wind speed on the surface, thermal radiation, and seismic shaking after a crater‐forming impact or an airburst in the atmosphere.

Meteoritics and Planetary ScienceVol. 60(4)
Institute of Geosphere Dynamics (RU)
Ministry of Science and Higher Education of the Russian Federation
Openalex Percentile: Top 21%
Astro and Planetary Science
1.15
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