In this paper we present the first identification of foreshock cavitons and the formation of spontaneous hot flow anomalies (SHFAs) with the Vlasiator global magnetospheric hybrid-Vlasov simulation code. In agreement with previous studies we show that cavitons evolve into SHFAs. In the presented run, this occurs very near the bow shock. We report on SHFAs surviving the shock crossing into the down-stream region and show that the interaction of SHFAs with the bow shock can lead to the formation of a magnetosheath cavity, previously identified in observations and simulations. We report on the first identification of long-term local weakening and erosion of the bow shock, associated with a region of increased foreshock SHFA and caviton formati...
International audienceWe present a case study of Geotail, Interball-1, IMP-8, and Wind observations ...
Kinetic processes occurring upstream of planetary bow shocks can greatly perturb the magnetosphere-...
This research at Imperial College London was funded by STFC Grants ST/I505713/1, ST/K001051/1 and ST...
In this paper we present the first identification of foreshock cavitons and the formation of spontan...
The foreshock located upstream of Earth's bow shock hosts a wide variety of phenomena related to the...
The foreshock located upstream of Earth's bow shock hosts a wide variety of phenomena related to the...
Motivated by recent THEMIS observations, this paper uses 2.5-D electromagnetic hybrid simulations to...
Spacecraft observations and global hybrid (kinetic ions and fluid electrons) simulations have demons...
We use a global hybrid-Vlasov simulation for the magnetosphere, Vlasiator, to investigate magnetoshe...
Earth’s magnetosheath consists of shocked solar wind plasma that has been compressed and slowed down...
Hot Flow Anomalies (HFAs) are transients observed at planetary bow shocks, formed by the shock inter...
We present Time History of Events and Macroscale Interactions during Substorms (THEMIS) observations...
Case and statistical studies of the bow shock geometry at hot flow anomaly (HFA) edges have been per...
Dissertation (Ph.D.) University of Alaska Fairbanks, 2022Interactions between bow shock-reflected (f...
Magnetosheath jets are regions of high dynamic pressure, which can traverse from the bow shock towar...
International audienceWe present a case study of Geotail, Interball-1, IMP-8, and Wind observations ...
Kinetic processes occurring upstream of planetary bow shocks can greatly perturb the magnetosphere-...
This research at Imperial College London was funded by STFC Grants ST/I505713/1, ST/K001051/1 and ST...
In this paper we present the first identification of foreshock cavitons and the formation of spontan...
The foreshock located upstream of Earth's bow shock hosts a wide variety of phenomena related to the...
The foreshock located upstream of Earth's bow shock hosts a wide variety of phenomena related to the...
Motivated by recent THEMIS observations, this paper uses 2.5-D electromagnetic hybrid simulations to...
Spacecraft observations and global hybrid (kinetic ions and fluid electrons) simulations have demons...
We use a global hybrid-Vlasov simulation for the magnetosphere, Vlasiator, to investigate magnetoshe...
Earth’s magnetosheath consists of shocked solar wind plasma that has been compressed and slowed down...
Hot Flow Anomalies (HFAs) are transients observed at planetary bow shocks, formed by the shock inter...
We present Time History of Events and Macroscale Interactions during Substorms (THEMIS) observations...
Case and statistical studies of the bow shock geometry at hot flow anomaly (HFA) edges have been per...
Dissertation (Ph.D.) University of Alaska Fairbanks, 2022Interactions between bow shock-reflected (f...
Magnetosheath jets are regions of high dynamic pressure, which can traverse from the bow shock towar...
International audienceWe present a case study of Geotail, Interball-1, IMP-8, and Wind observations ...
Kinetic processes occurring upstream of planetary bow shocks can greatly perturb the magnetosphere-...
This research at Imperial College London was funded by STFC Grants ST/I505713/1, ST/K001051/1 and ST...