This paper proposes the application of phasor bond graphs (PhBG) as a tool for a numerical integration solution of the power flow problem. PhBG’s are multiport elements with two-dimensional multibond as representation of the real and imaginary part of a phasor. The methodology suggested consist in inserting dynamic C-elements into the PhBG model. A C-element is connected to each 0-junction where the voltage is unknown. Therefore, they act as a kind of controller by integrating the current error in a node until the voltage has reached the equilibrium point. In other words: they introduce a relaxation process by breaking the algebraic loops in the implicit algebraic model
This paper deals with mathematical formulation of bond graphs. It is proven that the power continuou...
This paper presents the formulation of Port- Controlled Hamiltonian Models from Bond Graphs. For thi...
In this paper we present a systematic framework for modeling of power networks. The basic idea is to...
The steady-state analysis of electrical circuits is frequently done by means of phasors. This paper ...
This paper proposes a phasor representation of electrical networks by using bond graph methodology. ...
This paper proposes a phasor representation of electrical networks by using bond graph methodology. ...
This paper presents the use of phasor bond graphs to obtain the steady-state behavior of a synchrono...
This paper presents the use of phasor bond graphs to obtain the steady-state behavior of a synchrono...
The discovery of flux controlled memristors (Memory Resistor) by Leon Chua in 1971 as the missing e...
In this chapter the basics of the port-based approach are introduced as well as their natural notati...
This paper deals with the modelling of power electronic systems using the bond graph formalism. The ...
Port-based modeling of dynamic systems is the topic of the first chapter of the book that will be on...
Modelling and simulation are essential ingredients of the analysis and design process in power elect...
This paper presents methods to obtain models in the form of Input-State-Output Port-Hamiltonian Syst...
Abstract — A systematic exposition of modeling of electrome-chanical systems in the bond graph forma...
This paper deals with mathematical formulation of bond graphs. It is proven that the power continuou...
This paper presents the formulation of Port- Controlled Hamiltonian Models from Bond Graphs. For thi...
In this paper we present a systematic framework for modeling of power networks. The basic idea is to...
The steady-state analysis of electrical circuits is frequently done by means of phasors. This paper ...
This paper proposes a phasor representation of electrical networks by using bond graph methodology. ...
This paper proposes a phasor representation of electrical networks by using bond graph methodology. ...
This paper presents the use of phasor bond graphs to obtain the steady-state behavior of a synchrono...
This paper presents the use of phasor bond graphs to obtain the steady-state behavior of a synchrono...
The discovery of flux controlled memristors (Memory Resistor) by Leon Chua in 1971 as the missing e...
In this chapter the basics of the port-based approach are introduced as well as their natural notati...
This paper deals with the modelling of power electronic systems using the bond graph formalism. The ...
Port-based modeling of dynamic systems is the topic of the first chapter of the book that will be on...
Modelling and simulation are essential ingredients of the analysis and design process in power elect...
This paper presents methods to obtain models in the form of Input-State-Output Port-Hamiltonian Syst...
Abstract — A systematic exposition of modeling of electrome-chanical systems in the bond graph forma...
This paper deals with mathematical formulation of bond graphs. It is proven that the power continuou...
This paper presents the formulation of Port- Controlled Hamiltonian Models from Bond Graphs. For thi...
In this paper we present a systematic framework for modeling of power networks. The basic idea is to...