The plasma science (PLS) Instrument on the Galileo spacecraft (orbiting Jupiter from December 1995 to September 2003) measured properties of the ions that were trapped in the magnetic field. The PLS data provide a survey of the plasma properties between approx. 5 and 30 Jupiter radii [R(sub J)] in the equatorial region. We present plasma properties derived via two analysis methods: numerical moments and forward modeling. We find that the density decreases with radial distance by nearly 5 orders of magnitude from approx. 2 to 3000 cm(exp.-3) at 6R(sub j) to approx. 0.05cm(sub -3) at 30 R(sub j). The density profile did not show major changes from orbit to orbit, suggesting that the plasma production and transport remained constant within abo...
[1] Magnetometer data acquired as the Galileo Orbiter apoapsis rotated from dawn to dusk across the ...
Abstract Discs of plasma around giant planets are natural laboratories that contain within mechanism...
The purpose of this report is to address uncertainties in the plasma models at Jupiter responsible f...
The plasma environment within Jupiter's bow shock is considered in terms of the in situ, calibrated ...
A systematic study of energetic ion trajectories in Jupiter's plasma sheet region predicts a signifi...
The Jovian magnetosphere equatorial region is filled with cold dense plasma that in a broad sense co...
A survey of plasma wave observations at Jupiter obtained by the plasma wave instrument on board the ...
Jupiter's plasma environment is one of the most interesting plasma laboratories in our solar System....
We developed a new empirical model for corotating plasma in the Jovian magnetosphere. The model, nam...
Magnetometer and plasma science data from the Voyager 1 and Voyager 2 encounters of Jupiter are comb...
Jupiter is the archetype of a rotation-driven magnetosphere dominated by an internal source of plasm...
International audienceIn collisionless plasmas, turbulence is thought to play an important role in m...
[1] Magnetometer data acquired as the Galileo Orbiter apoapsis rotated from dawn to dusk across the ...
Abstract Discs of plasma around giant planets are natural laboratories that contain within mechanism...
The purpose of this report is to address uncertainties in the plasma models at Jupiter responsible f...
The plasma environment within Jupiter's bow shock is considered in terms of the in situ, calibrated ...
A systematic study of energetic ion trajectories in Jupiter's plasma sheet region predicts a signifi...
The Jovian magnetosphere equatorial region is filled with cold dense plasma that in a broad sense co...
A survey of plasma wave observations at Jupiter obtained by the plasma wave instrument on board the ...
Jupiter's plasma environment is one of the most interesting plasma laboratories in our solar System....
We developed a new empirical model for corotating plasma in the Jovian magnetosphere. The model, nam...
Magnetometer and plasma science data from the Voyager 1 and Voyager 2 encounters of Jupiter are comb...
Jupiter is the archetype of a rotation-driven magnetosphere dominated by an internal source of plasm...
International audienceIn collisionless plasmas, turbulence is thought to play an important role in m...
[1] Magnetometer data acquired as the Galileo Orbiter apoapsis rotated from dawn to dusk across the ...
Abstract Discs of plasma around giant planets are natural laboratories that contain within mechanism...
The purpose of this report is to address uncertainties in the plasma models at Jupiter responsible f...