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In This Chapter
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Permanent Magnet Synchronous Generator Systems
- Introduction
- Practical Configurations and Their Characterization
- Air Gap Field Distribution, emf, and Torque
- Stator Core Loss Modeling
- Circuit Model
- Circuit Model of PMSG with Shunt Capacitors and AC Load
- Circuit Model of PMSG with Diode Rectifier Load
- Utilization of Third Harmonic for PMSG with Diode Rectifiers
- Autonomous PMSGs with Controlled Constant Speed and AC Load
- Grid-Connected Variable-Speed PMSG System
- PM Genset with Multiple Outputs
- Super-High-Speed PM Generators: Design Issues
- Super-High-Speed PM Generators: Power Electronics Control Issues
- Design of a 42 VDC Battery-Controlled-Output PMSG System
- Design Initial Data
- Minimum Speed: nmin
- Number of Poles: 2p1
- Rotor Configuration
- Stator Winding Type
- Winding Tapping
- PMSG Current Waveform
- Diode Rectifier Imposes Almost Unity Power Factor
- Peak Torque-Based Sizing
- Generator-to-DC Voltage Relationships
- ΨPM, Ls, and Rs
- Methods for Testing PMSGs
- Standstill Tests
- No-Load Generator Tests
- Short-Circuit Generator Tests
- Stator Leakage Inductance and Skin Effect
- Motor No-Load Test
- Generator Load Tests
- Grid to Stand-Alone Transition Motion-Sensorless Dual-Inverter Control of PMSG with Asymmetrical Grid Voltage Sags and Harmonics Filtering: A Case Study
- Voltage Sags Ride-Through Capability
- Stand-Alone PMSG Control: Harmonic and Negative- Sequence Voltage Compensation under Nonlinear Load
- Seamless Switching Transfer from Stand-Alone to Grid (and Back)
- Transition from Stand-Alone to Grid-Connected Mode
- Transition from Grid-Connected to Stand-Alone Mode
- PMSG Motion-Sensorless Control System
- Test Platform and Experimental Results
- Voltage Sags Ride-Through
- Harmonic and Negative-Sequence Voltage Compensation under Nonlinear Load
- Transition from Stand-Alone to Grid-Connected Mode
- Transition from Grid-Connected to Stand-Alone Mode
- Conclusion
- Note on Medium-Power Vehicular Electric Generator Systems
- Summary
Abstract
By permanent magnet synchronous generators (PMSGs), we mean here radial or axial air gap PM brushless generators with distributed (q < 1) or concentrated (q < 1) windings and rectangular or sinusoidal current control with surface PM or interior PM (IPM) rotors. Multiple pole transverse flux machines (TFMs) or flux switching (reversal) machines (FRMs) conceived for low speed and high torque density will be discussed in Chapter 11.
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