Simple physical arguments show that a generalization of the basic Petschek reconnection rate allows it to be extended to the Hall magnetohydrodynamic (MHD) rate. This result is confirmed by direct numerical simulations of the compressible fluid equations. To ensure that Petschek reconnection is obtained we specify a localized resistivity. The new generalized reconnection rate therefore gives an accurate estimate of the unforced Petschek reconnection rate for both MHD and Hall MHD. Since the Hall Petschek rate does not vanish in the limit of zero resistivity this generalized rate may also give the collisionless Hall Petschek reconnection rate. (c) 2006 American Institute of Physics
Steady magnetic reconnection in the framework of incompressible Hall magnetohydrodynamics is conside...
The impact of using a nonlocalized electrical resistivity having a spatially asymmetric profile is c...
The conventional definition of reconnection rate as the electric field parallel to an x-line is pro...
It is not always appreciated that Petschek’s reconnection mechanism is a particular solution of the ...
In this paper two theoretical approaches for the calculation of the rate of quasi-stationary, two-di...
One of the key questions in magnetic reconnection is what determines the reconnection rate. We inves...
Magnetic reconnection is a fundamental plasma process, which can explosively convert magnetic energy...
The controversial topic of the existence of a Petschek solution in steady-state magnetic reconnectio...
We study the role of the Hall current and electron inertia in collisionless magnetic reconnection wi...
We explain two puzzling aspects of Petschek's model for fast reconnection. One is its failure to occ...
This paper employs an analytic reconnection model to investigate the conditions under which Hall cur...
The two theories for magnetic reconnection, one of Sweet and Parker, and the other of Petschek, are ...
Using two-dimensional time dependent viscoresistive magnetohydrodynamic simulations, we report for t...
Context. The role of the Hall term in magnetic reconnection at line-tied planar magnetic X-points is...
The Hall Magnetohydrodynamic (MHD) model is a new paradigm for describing fast magnetic reconnection...
Steady magnetic reconnection in the framework of incompressible Hall magnetohydrodynamics is conside...
The impact of using a nonlocalized electrical resistivity having a spatially asymmetric profile is c...
The conventional definition of reconnection rate as the electric field parallel to an x-line is pro...
It is not always appreciated that Petschek’s reconnection mechanism is a particular solution of the ...
In this paper two theoretical approaches for the calculation of the rate of quasi-stationary, two-di...
One of the key questions in magnetic reconnection is what determines the reconnection rate. We inves...
Magnetic reconnection is a fundamental plasma process, which can explosively convert magnetic energy...
The controversial topic of the existence of a Petschek solution in steady-state magnetic reconnectio...
We study the role of the Hall current and electron inertia in collisionless magnetic reconnection wi...
We explain two puzzling aspects of Petschek's model for fast reconnection. One is its failure to occ...
This paper employs an analytic reconnection model to investigate the conditions under which Hall cur...
The two theories for magnetic reconnection, one of Sweet and Parker, and the other of Petschek, are ...
Using two-dimensional time dependent viscoresistive magnetohydrodynamic simulations, we report for t...
Context. The role of the Hall term in magnetic reconnection at line-tied planar magnetic X-points is...
The Hall Magnetohydrodynamic (MHD) model is a new paradigm for describing fast magnetic reconnection...
Steady magnetic reconnection in the framework of incompressible Hall magnetohydrodynamics is conside...
The impact of using a nonlocalized electrical resistivity having a spatially asymmetric profile is c...
The conventional definition of reconnection rate as the electric field parallel to an x-line is pro...