In this chapter, the author presents an electromagnetic levitation system for active magnetic bearing wheels. This system consists of a rotor, a shaft, a cover, and a base. The author derives a meaningful electromagnetic force by using the singular value decomposition. The author develops a control system using the proportional‐integral‐derivative controller to control the position of the rotor and regulate the two gimbal angles of the rotor. The author gives the numerical simulation and experimental results on the control of the electromagnetic levitation system
Magnetically levitated rotor electric machines can be used under such conditions wherein application...
The purpose of this paper is to motivate and inspire students to investigate and understand fundamen...
[EN] In this study the modeling, control design, robustness analysis and vibration active suppressio...
Magnetic levitation is classified and it is shown that the industrially apploed active levitation is...
Electrodynamic bearings (EDBs) are passive magnetic bearings that exploit the interaction between ed...
The paper introduces the mathematical model of rotor for active magnetic bearing reaction/momentum w...
In the last decades the deeper and more detailed understanding of rotating machinery dynamic behavio...
Magnetic levitation (Maglev) system is a stimulating nonlinear mechatronic system in which an electr...
Magnetic Levitation Systems (MLS) is a higher advanced technology without any mechanical contact tha...
This paper describes the implementation of magnetic bearings and their active control system. The wo...
Momentum wheels are frequently used for the attitude control of satellites. Most existing momentum w...
An engineering model of a momentum wheel is described that is suspended by magnetic bearings. It con...
Abstract- Active magnetic bearing (AMB) systems can support a rotor without physical contact and ena...
AbstractA mathematical description of complete (non-contact) electromagnetic suspension of the rotor...
Magnetic bearings are systems capable of supporting rotors in absence of mechanical contact. Among m...
Magnetically levitated rotor electric machines can be used under such conditions wherein application...
The purpose of this paper is to motivate and inspire students to investigate and understand fundamen...
[EN] In this study the modeling, control design, robustness analysis and vibration active suppressio...
Magnetic levitation is classified and it is shown that the industrially apploed active levitation is...
Electrodynamic bearings (EDBs) are passive magnetic bearings that exploit the interaction between ed...
The paper introduces the mathematical model of rotor for active magnetic bearing reaction/momentum w...
In the last decades the deeper and more detailed understanding of rotating machinery dynamic behavio...
Magnetic levitation (Maglev) system is a stimulating nonlinear mechatronic system in which an electr...
Magnetic Levitation Systems (MLS) is a higher advanced technology without any mechanical contact tha...
This paper describes the implementation of magnetic bearings and their active control system. The wo...
Momentum wheels are frequently used for the attitude control of satellites. Most existing momentum w...
An engineering model of a momentum wheel is described that is suspended by magnetic bearings. It con...
Abstract- Active magnetic bearing (AMB) systems can support a rotor without physical contact and ena...
AbstractA mathematical description of complete (non-contact) electromagnetic suspension of the rotor...
Magnetic bearings are systems capable of supporting rotors in absence of mechanical contact. Among m...
Magnetically levitated rotor electric machines can be used under such conditions wherein application...
The purpose of this paper is to motivate and inspire students to investigate and understand fundamen...
[EN] In this study the modeling, control design, robustness analysis and vibration active suppressio...