The method of retarded potentials is used to derive the Biot-Savart law, taking into account the correction that describes the chaotic motion of charged particles in rectilinear currents. Then this method is used for circular currents and the following theorem is proved: The magnetic field on the rotation axis of an axisymmetric charged body or charge distribution has only one component directed along the rotation axis, and the magnetic field is expressed through the surface integral, which does not require integration over the azimuthal angle ϕ . In the general case, for arbitrary charge distribution and for any location of the rotation axis, the magnetic field is expressed through the volume integral, in which the integrand does not depen...
This paper presents a general theory for the fields generated by a circular current loop and compare...
We study the generalization of the Biot-Savart law from electrodynamics in the presence of curvature...
Deduce a series expansion of an axially symmetric, static magnetic field in terms of its axial field...
Using the method of retarded potentials, approximate formulae are obtained that describe the electro...
This work presents an analytical method to calculate the magnetic field at any point of the space, b...
We have investigated the magnetization characteristics of rotation-symmetrical magnetic bodies in a ...
Analytic solutions are presented for the orbit of a charged particle in the combination of a uniform...
The Biot-Savart law is a well-known and powerful theoretical tool used to calculate magnetic fields ...
A spherical shell of radius a carries charge Q uniformly distributed over its surface. Give expressi...
The integral form of the fourth Maxwell’s equation is often written in two different ways: in the fi...
An invariant geometrical description of the world lines of charged particles in arbitrary homogeneou...
In this work, we consider axially symmetric stationary electromagnetic fields in the framework of sp...
Knowledge in classical mechanics and relativity theoryThe retarded, time-dependent electromagnetic f...
Abstract—Based on the theory about charge moment tensor and the magnetic moment of a rotational char...
The classical equations of motion of a charged particle in a spherically symmetric distribution of m...
This paper presents a general theory for the fields generated by a circular current loop and compare...
We study the generalization of the Biot-Savart law from electrodynamics in the presence of curvature...
Deduce a series expansion of an axially symmetric, static magnetic field in terms of its axial field...
Using the method of retarded potentials, approximate formulae are obtained that describe the electro...
This work presents an analytical method to calculate the magnetic field at any point of the space, b...
We have investigated the magnetization characteristics of rotation-symmetrical magnetic bodies in a ...
Analytic solutions are presented for the orbit of a charged particle in the combination of a uniform...
The Biot-Savart law is a well-known and powerful theoretical tool used to calculate magnetic fields ...
A spherical shell of radius a carries charge Q uniformly distributed over its surface. Give expressi...
The integral form of the fourth Maxwell’s equation is often written in two different ways: in the fi...
An invariant geometrical description of the world lines of charged particles in arbitrary homogeneou...
In this work, we consider axially symmetric stationary electromagnetic fields in the framework of sp...
Knowledge in classical mechanics and relativity theoryThe retarded, time-dependent electromagnetic f...
Abstract—Based on the theory about charge moment tensor and the magnetic moment of a rotational char...
The classical equations of motion of a charged particle in a spherically symmetric distribution of m...
This paper presents a general theory for the fields generated by a circular current loop and compare...
We study the generalization of the Biot-Savart law from electrodynamics in the presence of curvature...
Deduce a series expansion of an axially symmetric, static magnetic field in terms of its axial field...