The internal impedance of a wire is the function of the frequency. In a conductor, where the conductivity is sufficiently high, the displacement current density can be neglected. In this case, the conduction current density is given by the product of the electric field and the conductance. One of the aspects of the high-frequency effects is the skin effect (SE). The fundamental problem with SE is it attenuates the higher frequency components of a signal
This paper reports investigation on the use of fractional order calculus to analytically estimate th...
Mathematical models are essential to our understanding of the electrical properties of the skin. In ...
This paper deals with the development of a mathematical model that describes the skin effect in cyli...
The internal impedance of a wire is the function of the frequency. In a conductor, where the conduct...
Abstract The skin eVect is due to the self-inductance of a conductor, and it becomes very relevant a...
Fractional calculus is a mathematical approach dealing with derivatives and integrals of arbitrary a...
Two approximate formulae for skin effect in conductor of rectangular cross section were derived in t...
Anomalous subdiffusion governs the processes which are not energetically driven, on a molecular scal...
A new simple formulation is presented to calculate the skin-effect resistance and internal inductanc...
The Maxwell equations play a fundamental role in the well established formulation of the electromagn...
The electrical properties of many biological materials are known to exhibit frequency dispersions. I...
Although the skin effect has been widely studied over the years, many of its topics remain unclear f...
Although the skin effect has been widely studied over the years, many of its topics remain unclear f...
In this paper, electrical impedance measurement data and fractional calculus have been utilized for ...
We study a three-dimensional model for the skin effect in electromagnetism. The 3-D case of the Maxw...
This paper reports investigation on the use of fractional order calculus to analytically estimate th...
Mathematical models are essential to our understanding of the electrical properties of the skin. In ...
This paper deals with the development of a mathematical model that describes the skin effect in cyli...
The internal impedance of a wire is the function of the frequency. In a conductor, where the conduct...
Abstract The skin eVect is due to the self-inductance of a conductor, and it becomes very relevant a...
Fractional calculus is a mathematical approach dealing with derivatives and integrals of arbitrary a...
Two approximate formulae for skin effect in conductor of rectangular cross section were derived in t...
Anomalous subdiffusion governs the processes which are not energetically driven, on a molecular scal...
A new simple formulation is presented to calculate the skin-effect resistance and internal inductanc...
The Maxwell equations play a fundamental role in the well established formulation of the electromagn...
The electrical properties of many biological materials are known to exhibit frequency dispersions. I...
Although the skin effect has been widely studied over the years, many of its topics remain unclear f...
Although the skin effect has been widely studied over the years, many of its topics remain unclear f...
In this paper, electrical impedance measurement data and fractional calculus have been utilized for ...
We study a three-dimensional model for the skin effect in electromagnetism. The 3-D case of the Maxw...
This paper reports investigation on the use of fractional order calculus to analytically estimate th...
Mathematical models are essential to our understanding of the electrical properties of the skin. In ...
This paper deals with the development of a mathematical model that describes the skin effect in cyli...