We study the solar wind induced oxygen ion escape from Venus' upper atmosphere and the Venus Express observations of the Venus-solar wind interaction by the HYB-Venus hybrid simulation code. We compare the simulation to the magnetic field and ion observations during an orbit of nominal upstream conditions. Further, we study the response of the induced magnetosphere to the emission of planetary ions. The hybrid simulation is found to be able to reproduce the main observed regions of the Venusian plasma environment: the bow shock (both perpendicular and parallel regions), the magnetic barrier, the central tail current sheet, the magnetic tail lobes, the magnetosheath and the planetary wake. The simulation is found to best fit the ob...
Owing to the heritage of previous missions such as the Pioneer Venus Orbiter and Venus Express, the ...
International audienceThe present atmosphere of Venus contains almost no water, but recent measureme...
We study the interaction between Venus and the solar wind using a global three-dimensional self-cons...
The purpose of this dissertation is to expand our understanding of oxygen ion escape to space from V...
We study the solar wind‐driven, nonthermal escape of O+ ions from Venus in a global hybrid simulatio...
As an Earth-like planet Venus probably had a primordial dipole field for several million years after...
International audienceWe investigate dependences of O+ escape rates from Venus both on the solar win...
AbstractVenus is gradually losing some of its atmosphere in the form of ions through its induced mag...
We study the solar wind-driven, nonthermal escape of O+ ions from Venus in a global hybrid simulatio...
The present‐day Venusian atmosphere is dry, yet, in its earlier history a significant amount of wate...
Venus, unlike Earth, is an extremely dry planet although both began with similar masses, distances f...
The solar wind interacts with the non-magnetic planet Venus by processes within the mantle region, l...
Owing to the heritage of previous missions such as the Pioneer Venus Orbiter and Venus Express, the ...
Atmospheric escape from the upper atmosphere of Venus is mainly influenced by the loss of hydrogen a...
The upper atmosphere and ionosphere of Venus have been explored by a series of Mariner and Venera sp...
Owing to the heritage of previous missions such as the Pioneer Venus Orbiter and Venus Express, the ...
International audienceThe present atmosphere of Venus contains almost no water, but recent measureme...
We study the interaction between Venus and the solar wind using a global three-dimensional self-cons...
The purpose of this dissertation is to expand our understanding of oxygen ion escape to space from V...
We study the solar wind‐driven, nonthermal escape of O+ ions from Venus in a global hybrid simulatio...
As an Earth-like planet Venus probably had a primordial dipole field for several million years after...
International audienceWe investigate dependences of O+ escape rates from Venus both on the solar win...
AbstractVenus is gradually losing some of its atmosphere in the form of ions through its induced mag...
We study the solar wind-driven, nonthermal escape of O+ ions from Venus in a global hybrid simulatio...
The present‐day Venusian atmosphere is dry, yet, in its earlier history a significant amount of wate...
Venus, unlike Earth, is an extremely dry planet although both began with similar masses, distances f...
The solar wind interacts with the non-magnetic planet Venus by processes within the mantle region, l...
Owing to the heritage of previous missions such as the Pioneer Venus Orbiter and Venus Express, the ...
Atmospheric escape from the upper atmosphere of Venus is mainly influenced by the loss of hydrogen a...
The upper atmosphere and ionosphere of Venus have been explored by a series of Mariner and Venera sp...
Owing to the heritage of previous missions such as the Pioneer Venus Orbiter and Venus Express, the ...
International audienceThe present atmosphere of Venus contains almost no water, but recent measureme...
We study the interaction between Venus and the solar wind using a global three-dimensional self-cons...