The large penetration of distributed generation requires accurate line and cable models in a frequency range much wider than the classical interval, 0-2.5 kHz, used for traditional harmonic and interharmonic penetration studies. In the paper, the behavior of MV cable lines is considered in the frequency range from 0 to 100 kHz, with reference to a casestudy. Models base on the classical Π and Γ line equivalent circuits are considered. Reference is made to open and short circuited line input terminals conditions. A comparison of the performances of different complexity models, in terms of impedance magnitude accuracy at output terminal, is developed
Coupling of carrier wave frequencies up to 95 kHz (within the European CENELEC A-band) for online di...
One difficulty in calculating harmonic voltages and currents throughout a transmission or distributi...
One difficulty in calculating harmonic voltages and currents throughout a transmission or distributi...
The large penetration of distributed generation requires accurate line and cable models in a frequen...
Abstract- The aim of this paper is the development of a theoretical model of medium voltage (MV) cab...
The aim of this paper is the development of a theoretical model of medium-voltage (MV) cables in the...
The aim of this paper is the development of a theoretical model of medium-voltage (MV) cables in the...
The aim of this paper is to illustrate the development of a theoretical and experimental study on th...
The aim of this paper is to illustrate the development of a theoretical and experimental study on th...
The calculation of frequency-dependent cable parameters is essential for simulations of transient ph...
Understanding harmonic propagation in high voltage transmission lines and cables is important for th...
Understanding harmonic propagation in high voltage transmission lines and cables is important for th...
Understanding harmonic propagation in high voltage transmission lines and cables is important for th...
Understanding harmonic propagation in high voltage transmission lines and cables is important for th...
Understanding harmonic propagation in high voltage transmission lines and cables is important for th...
Coupling of carrier wave frequencies up to 95 kHz (within the European CENELEC A-band) for online di...
One difficulty in calculating harmonic voltages and currents throughout a transmission or distributi...
One difficulty in calculating harmonic voltages and currents throughout a transmission or distributi...
The large penetration of distributed generation requires accurate line and cable models in a frequen...
Abstract- The aim of this paper is the development of a theoretical model of medium voltage (MV) cab...
The aim of this paper is the development of a theoretical model of medium-voltage (MV) cables in the...
The aim of this paper is the development of a theoretical model of medium-voltage (MV) cables in the...
The aim of this paper is to illustrate the development of a theoretical and experimental study on th...
The aim of this paper is to illustrate the development of a theoretical and experimental study on th...
The calculation of frequency-dependent cable parameters is essential for simulations of transient ph...
Understanding harmonic propagation in high voltage transmission lines and cables is important for th...
Understanding harmonic propagation in high voltage transmission lines and cables is important for th...
Understanding harmonic propagation in high voltage transmission lines and cables is important for th...
Understanding harmonic propagation in high voltage transmission lines and cables is important for th...
Understanding harmonic propagation in high voltage transmission lines and cables is important for th...
Coupling of carrier wave frequencies up to 95 kHz (within the European CENELEC A-band) for online di...
One difficulty in calculating harmonic voltages and currents throughout a transmission or distributi...
One difficulty in calculating harmonic voltages and currents throughout a transmission or distributi...