International audienceThis paper is related to the study of ELF-VLF wave propagation through the Martian ionosphere using a WKB method. It is expected that waves coming from the atmosphere could be observed by a probe in orbit around Mars. Characteristics of the wave propagation have been determined from Maxwell's equations. The ionospheric conductivities have been calculated using known parameters of the Martian ionosphere in different cases: nightside and dayside, low and high solar activity, and low and high magnetic field. It is shown that ELF-VLF waves with a maximum frequency-4000 Hz can only propagate if we consider a strong magnetic field on the nightside and a low solar activity
Using the analogy method the frequencies of new modes of electromagnetic planetary-scale waves (with...
In the extremely low frequency (ELF) range, the space between the ground and ionosphere forms a sphe...
iABSTRACT Very Low Frequency (VLF) radio waves with frequency in the range 3∼30 kHz propagate within...
A planetary crust with a low electric conductivity has a strong influence on extremely low frequency...
Two electrically conductive planetary spheres, the ionosphere and the ground, form a spherical waveg...
International audienceFor the first time at Mars the statistical distribution of (1-D) electric fiel...
International audienceFor the first time at Mars the statistical distribution of (1-D) electric fiel...
International audienceFor the first time at Mars the statistical distribution of (1-D) electric fiel...
International audienceFor the first time at Mars the statistical distribution of (1-D) electric fiel...
The magnetic environment of Mars is a complex and unique mix of draped interplanetary magnetic field...
We recommend to use the dayside Martian ionosphere as a reflector for global communication, because ...
This handbook examines the effects of the Martian environment on radio wave propagation on Mars and ...
Mars and Venus have no global magnetic field. The solar wind interacts directly with their ionospher...
In this thesis, we theoretically predict the normal characteristics of Very Low Frequency (3~30 kHz)...
We conduct a search for 5–16 Hz magnetic waves below 200 km and within the Martian ionosphere using ...
Using the analogy method the frequencies of new modes of electromagnetic planetary-scale waves (with...
In the extremely low frequency (ELF) range, the space between the ground and ionosphere forms a sphe...
iABSTRACT Very Low Frequency (VLF) radio waves with frequency in the range 3∼30 kHz propagate within...
A planetary crust with a low electric conductivity has a strong influence on extremely low frequency...
Two electrically conductive planetary spheres, the ionosphere and the ground, form a spherical waveg...
International audienceFor the first time at Mars the statistical distribution of (1-D) electric fiel...
International audienceFor the first time at Mars the statistical distribution of (1-D) electric fiel...
International audienceFor the first time at Mars the statistical distribution of (1-D) electric fiel...
International audienceFor the first time at Mars the statistical distribution of (1-D) electric fiel...
The magnetic environment of Mars is a complex and unique mix of draped interplanetary magnetic field...
We recommend to use the dayside Martian ionosphere as a reflector for global communication, because ...
This handbook examines the effects of the Martian environment on radio wave propagation on Mars and ...
Mars and Venus have no global magnetic field. The solar wind interacts directly with their ionospher...
In this thesis, we theoretically predict the normal characteristics of Very Low Frequency (3~30 kHz)...
We conduct a search for 5–16 Hz magnetic waves below 200 km and within the Martian ionosphere using ...
Using the analogy method the frequencies of new modes of electromagnetic planetary-scale waves (with...
In the extremely low frequency (ELF) range, the space between the ground and ionosphere forms a sphe...
iABSTRACT Very Low Frequency (VLF) radio waves with frequency in the range 3∼30 kHz propagate within...