On the dynamics of the plasma entry and guiding in a straight magnetized filter of a pulsed vacuum arc

In this paper, a study of the plasma jet generated in a pulsed copper vacuum arc along a straight magnetized filter is presented. The ion saturation current and the plasma potential at different radial and axial positions and magnetic field intensities were measured using electrostatic probes. A the...

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Publicado: 2007
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Acceso en línea:https://bibliotecadigital.exactas.uba.ar/collection/paper/document/paper_00933813_v35_n6PART2_p1710_Giuliani
http://hdl.handle.net/20.500.12110/paper_00933813_v35_n6PART2_p1710_Giuliani
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spelling paper:paper_00933813_v35_n6PART2_p1710_Giuliani2023-06-08T15:08:39Z On the dynamics of the plasma entry and guiding in a straight magnetized filter of a pulsed vacuum arc Magnetic field Plasma jet Vacuum arc Axial positions Electrostatic probes Gaussian Ion saturation currents Magnetic field variations Magnetic-field intensities Plasma motions Plasma potentials Pulsed vacuum arcs Radial compressions Radial profiles Rotational velocities Theoretical models Vacuum arc Cavity resonators Dynamics Magnetic fields Magnetic filters Plasma accelerators Plasma jets Vacuum Vacuum applications Vacuum technology Plasmas In this paper, a study of the plasma jet generated in a pulsed copper vacuum arc along a straight magnetized filter is presented. The ion saturation current and the plasma potential at different radial and axial positions and magnetic field intensities were measured using electrostatic probes. A theoretical model was developed to understand the dynamics of the plasma entry and guiding in the filter. This model takes into account magnetic field variations and Gaussian ion radial profiles. An analysis of the experimental results with the theoretical model shows that, in our device, as the magnetic field intensity increases along the filter, the plasma motion evolves from a radial compression with a low rotational velocity at the filter entrance to a rotating jet guided along the duct. © 2007 IEEE. 2007 https://bibliotecadigital.exactas.uba.ar/collection/paper/document/paper_00933813_v35_n6PART2_p1710_Giuliani http://hdl.handle.net/20.500.12110/paper_00933813_v35_n6PART2_p1710_Giuliani
institution Universidad de Buenos Aires
institution_str I-28
repository_str R-134
collection Biblioteca Digital - Facultad de Ciencias Exactas y Naturales (UBA)
topic Magnetic field
Plasma jet
Vacuum arc
Axial positions
Electrostatic probes
Gaussian
Ion saturation currents
Magnetic field variations
Magnetic-field intensities
Plasma motions
Plasma potentials
Pulsed vacuum arcs
Radial compressions
Radial profiles
Rotational velocities
Theoretical models
Vacuum arc
Cavity resonators
Dynamics
Magnetic fields
Magnetic filters
Plasma accelerators
Plasma jets
Vacuum
Vacuum applications
Vacuum technology
Plasmas
spellingShingle Magnetic field
Plasma jet
Vacuum arc
Axial positions
Electrostatic probes
Gaussian
Ion saturation currents
Magnetic field variations
Magnetic-field intensities
Plasma motions
Plasma potentials
Pulsed vacuum arcs
Radial compressions
Radial profiles
Rotational velocities
Theoretical models
Vacuum arc
Cavity resonators
Dynamics
Magnetic fields
Magnetic filters
Plasma accelerators
Plasma jets
Vacuum
Vacuum applications
Vacuum technology
Plasmas
On the dynamics of the plasma entry and guiding in a straight magnetized filter of a pulsed vacuum arc
topic_facet Magnetic field
Plasma jet
Vacuum arc
Axial positions
Electrostatic probes
Gaussian
Ion saturation currents
Magnetic field variations
Magnetic-field intensities
Plasma motions
Plasma potentials
Pulsed vacuum arcs
Radial compressions
Radial profiles
Rotational velocities
Theoretical models
Vacuum arc
Cavity resonators
Dynamics
Magnetic fields
Magnetic filters
Plasma accelerators
Plasma jets
Vacuum
Vacuum applications
Vacuum technology
Plasmas
description In this paper, a study of the plasma jet generated in a pulsed copper vacuum arc along a straight magnetized filter is presented. The ion saturation current and the plasma potential at different radial and axial positions and magnetic field intensities were measured using electrostatic probes. A theoretical model was developed to understand the dynamics of the plasma entry and guiding in the filter. This model takes into account magnetic field variations and Gaussian ion radial profiles. An analysis of the experimental results with the theoretical model shows that, in our device, as the magnetic field intensity increases along the filter, the plasma motion evolves from a radial compression with a low rotational velocity at the filter entrance to a rotating jet guided along the duct. © 2007 IEEE.
title On the dynamics of the plasma entry and guiding in a straight magnetized filter of a pulsed vacuum arc
title_short On the dynamics of the plasma entry and guiding in a straight magnetized filter of a pulsed vacuum arc
title_full On the dynamics of the plasma entry and guiding in a straight magnetized filter of a pulsed vacuum arc
title_fullStr On the dynamics of the plasma entry and guiding in a straight magnetized filter of a pulsed vacuum arc
title_full_unstemmed On the dynamics of the plasma entry and guiding in a straight magnetized filter of a pulsed vacuum arc
title_sort on the dynamics of the plasma entry and guiding in a straight magnetized filter of a pulsed vacuum arc
publishDate 2007
url https://bibliotecadigital.exactas.uba.ar/collection/paper/document/paper_00933813_v35_n6PART2_p1710_Giuliani
http://hdl.handle.net/20.500.12110/paper_00933813_v35_n6PART2_p1710_Giuliani
_version_ 1768541744016654336