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Measurements of the Ion Species of Cathodic Arc Plasma in an Axial Magnetic Field
By: Anders, A.; Oks, E.M.;
2011 / IEEE
Description
This item was taken from the IEEE Periodical ' Measurements of the Ion Species of Cathodic Arc Plasma in an Axial Magnetic Field ' Metal and gas ion species and their charge state distributions were measured for pulsed copper cathodic arcs in argon background gas in the presence of an axial magnetic field. It was found that changing the cathode position relative to anode and ion extraction system, as well as increasing the gas pressure, did not affect much the arc burning voltage and the related power dissipation. However, the burning voltage and power dissipation greatly increased as the magnetic field strength was increased. The fraction of metal ions and the mean ion charge state were reduced as the discharge length was increased. The observations can be explained by the combination of charge exchange collisions and electron impact ionization. They confirm that previously published data on characteristic material-dependent charge state distributions (e.g., Anders and Yushkov in 2002) are not universal but valid for high vacuum conditions and the specifics of the applied magnetic fields.
Related Topics
Arcs (electric)
Charge Exchange
Electron Impact Ionisation
Plasma Collision Processes
Plasma Pressure
High Vacuum Condition
Cathodic Arc Plasma
Axial Magnetic Field
Gas Ion Species Measurement
Metal Ion Species Measurement
Pulsed Copper Cathodic Arcs
Ion Extraction System
Gas Pressure
Arc Burning Voltage
Mean Ion Charge State
Charge Exchange Collision
Electron Impact Ionization
Material-dependent Charge State Distribution
Plasmas
Cathodes
Metals
Vacuum Arcs
Argon
Ionization
Plasma Transport Processes
Arc Discharges
Magnetic Field
Plasma Materials Processing
Plasma Measurements
Plasma Sources
Plasma Transport Processes
Engineered Materials, Dielectrics And Plasmas
Engineering
Power Dissipation