It is shown that the self inductance of a wire loop can be written as a curve integral akin to the Neumann formula for the mutual inductance of two wire loops. The only difference is that contributions where the two integration variables get too close to each other must be excluded from the curve integral and evaluated in detail. The contributions of these excluded segments depend on the distribution of the current in the cross section of the wire. They add to a simple constant proportional to the wire length. The error of the new expression is of first order in the wire radius if there are sharp corners and of second order in the wire radius for smooth wire loops
We compare the magnetic field at the centre and the self-magnetic flux through a current-carrying ci...
Anyone who has ever grabbed an automobile spark-pluq wire at the wrong place, with the engine runnin...
Annotated lecture slides of lecture 29 for Elementary Physics II (PHY 204), taught by Gerhard Müller...
It is shown that the self inductance of a wire loop may be written as a curve integral akin to the N...
The best analytical formulae for the self-inductance of rectangular coils of circular cross section ...
Published version of an article published in Progress In Electromagnetics Research B, 28, 273-287. A...
This is the final version. Available from British Cave Research Association via the link in this rec...
This paper gives a method that maps the static magnetic field due to a system of parallel current-ca...
We compare the magnetic field at the center of and the self-magnetic flux through a current-carrying...
Purpose - Optimizing an electromechanical device often requires a significant number of evaluations ...
We built a numerical tool allowing the evaluation of self-inductance of arbitrarily shaped coils wit...
AbstractVector potential and inductances for simple current distributions with rotational symmetry a...
We built a numerical tool allowing the evaluation of self-inductance of arbitrarily shaped coils wit...
ABSTRACT: In this paper, we give new formulas for calculating the self-inductance for circular coils...
A compact six-figure approximation formula for the inductance of a cylindrical current sheet is pres...
We compare the magnetic field at the centre and the self-magnetic flux through a current-carrying ci...
Anyone who has ever grabbed an automobile spark-pluq wire at the wrong place, with the engine runnin...
Annotated lecture slides of lecture 29 for Elementary Physics II (PHY 204), taught by Gerhard Müller...
It is shown that the self inductance of a wire loop may be written as a curve integral akin to the N...
The best analytical formulae for the self-inductance of rectangular coils of circular cross section ...
Published version of an article published in Progress In Electromagnetics Research B, 28, 273-287. A...
This is the final version. Available from British Cave Research Association via the link in this rec...
This paper gives a method that maps the static magnetic field due to a system of parallel current-ca...
We compare the magnetic field at the center of and the self-magnetic flux through a current-carrying...
Purpose - Optimizing an electromechanical device often requires a significant number of evaluations ...
We built a numerical tool allowing the evaluation of self-inductance of arbitrarily shaped coils wit...
AbstractVector potential and inductances for simple current distributions with rotational symmetry a...
We built a numerical tool allowing the evaluation of self-inductance of arbitrarily shaped coils wit...
ABSTRACT: In this paper, we give new formulas for calculating the self-inductance for circular coils...
A compact six-figure approximation formula for the inductance of a cylindrical current sheet is pres...
We compare the magnetic field at the centre and the self-magnetic flux through a current-carrying ci...
Anyone who has ever grabbed an automobile spark-pluq wire at the wrong place, with the engine runnin...
Annotated lecture slides of lecture 29 for Elementary Physics II (PHY 204), taught by Gerhard Müller...