We study the solar wind-driven, nonthermal escape of O+ ions from Venus in a global hybrid simulation. In the model, a well-developed ion foreshock forms ahead of the Venusian quasi-parallel bow shock under nominal upstream conditions. Large-scale magnetosonic ultra-low frequency (ULF) waves at 20- to 30-s period are excited and convect downstream along the foreshock with the solar wind. We show that the foreshock ULF waves transmit through the bow shock in the downstream region and interact with the planetary ion acceleration, causing 25% peak-to-peak fluctuations in the O+ escape rate. These results demonstrate the importance of upstream plasma waves on the energization and escape of heavy ions from the planetary atmospheres.Peer reviewe
Venus, unlike Earth, is an extremely dry planet although both began with similar masses, distances f...
We study the interaction between Venus and the solar wind using a global three-dimensional self-cons...
The Earth's bow shock is a boundary where the solar wind becomes decelerated from supersonic to subs...
We study the solar wind‐driven, nonthermal escape of O+ ions from Venus in a global hybrid simulatio...
We study the solar wind interaction with Mars in a global three-dimensional hybrid model. A well-dev...
We study the solar wind induced oxygen ion escape from Venus' upper atmosphere and the Venus Expres...
International audienceThe location of ultra-low frequency (ULF) quasi-monochromatic wave onset upstr...
The interaction of the solar wind with Venus is dominated by the planet's ionosphere that acts as an...
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...
The present‐day Venusian atmosphere is dry, yet, in its earlier history a significant amount of wate...
The purpose of this dissertation is to expand our understanding of oxygen ion escape to space from V...
Mars and Venus have no global magnetic field. The solar wind interacts directly with their ionospher...
The solar wind interacts with the non-magnetic planet Venus by processes within the mantle region, l...
International audienceThe present atmosphere of Venus contains almost no water, but recent measureme...
Venus, unlike Earth, is an extremely dry planet although both began with similar masses, distances f...
We study the interaction between Venus and the solar wind using a global three-dimensional self-cons...
The Earth's bow shock is a boundary where the solar wind becomes decelerated from supersonic to subs...
We study the solar wind‐driven, nonthermal escape of O+ ions from Venus in a global hybrid simulatio...
We study the solar wind interaction with Mars in a global three-dimensional hybrid model. A well-dev...
We study the solar wind induced oxygen ion escape from Venus' upper atmosphere and the Venus Expres...
International audienceThe location of ultra-low frequency (ULF) quasi-monochromatic wave onset upstr...
The interaction of the solar wind with Venus is dominated by the planet's ionosphere that acts as an...
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...
The present‐day Venusian atmosphere is dry, yet, in its earlier history a significant amount of wate...
The purpose of this dissertation is to expand our understanding of oxygen ion escape to space from V...
Mars and Venus have no global magnetic field. The solar wind interacts directly with their ionospher...
The solar wind interacts with the non-magnetic planet Venus by processes within the mantle region, l...
International audienceThe present atmosphere of Venus contains almost no water, but recent measureme...
Venus, unlike Earth, is an extremely dry planet although both began with similar masses, distances f...
We study the interaction between Venus and the solar wind using a global three-dimensional self-cons...
The Earth's bow shock is a boundary where the solar wind becomes decelerated from supersonic to subs...