- Cover
- Title Page
- Copyright
- Introduction
- Chapter 1: Self-controlled Synchronous Motor: Principles of Function and Simplified Control Model
- 1.1. Introduction
- 1.2. Design aspects specific to the self-controlled synchronous machine
- 1.3. Simplified model for the study of steady state operation
- 1.4. Study of steady-state operation
- 1.5. Operation at nominal speed, voltage and current
- 1.6. Operation with a torque smaller than the nominal torque
- 1.7. Operation with a speed below the nominal speed
- 1.8. Running as a generator
- 1.9. Equivalence of a machine with a commutator and brushes
- 1.10. Equations inferred from the theory of circuits with sliding contacts
- 1.11. Evaluation of alternating currents circulating in steady state in the damper windings
- 1.12. Transposition of the study to the case of a negative rotational speed
- 1.13. Variant of the base assembly
- 1.14. Conclusion
- 1.15. List of the main symbols used
- 1.16. Bibliography
- Chapter 2: Self-controlled Synchronous Motor: Dynamic Model Including the Behavior of Damper Windings and Commutation Overlap
- 2.1. Introduction
- 2.2. Choice of the expression of Nk
- 2.3. Expression of fluxes
- 2.4. General properties of coefficients <X>, <Y> and <Z>
- 2.5. Electrical dynamic equations
- 2.6. Expression of electromechanical variables
- 2.7. Expression of torque
- 2.8. Writing of equations in terms of coenergy
- 2.9. Application to control
- 2.10. Conclusion
- 2.11. Appendix 1: value of coefficients <X>, <Y> and <Z>
- 2.12. Appendix 2: derivatives of coefficients <X>, <Y> and <Z>
- 2.13. Appendix 3: simplifications for small μ
- 2.14. Appendix 4 – List of the main symbols used in Chapters 1 and 2
- 2.15. Bibliography
- Chapter 3: Synchronous Machines in Degraded Mode
- 3.1. General introduction
- 3.2. Analysis of the main causes of failure
- 3.3. Reliability of a permanent magnet synchronous motors drive
- 3.4. Conclusion
- 3.5. Optimal supplies of permanent magnet synchronous machines in the presence of faults
- 3.6. Supplies of faulty synchronous machines with non-sinusoidal back electromagnetic force
- 3.6.1. Generalization of the modeling
- 3.6.2. A heuristic approach to the solution
- 3.6.3. First optimization of ohmic losses without constraint on the homopolar current
- 3.6.4. Second optimization of ohmic losses with the sum of currents of non-faulty phases being zero
- 3.6.5. Third optimization of ohmic losses with a homopolar current of zero (in all phases)
- 3.6.6. Global formulations
- 3.6.6.1. Case 1: a fault current with independent phases
- 3.6.6.2. Case 2: a fault current that is independent of other phase currents, with a homopolar current of 0 on n − 1 phases
- 3.6.6.3. Case 3: a fault current independent of the other phase currents, with homopolar current of 0 on n phases
- 3.6.6.4. Application to a five-phase machine and independent phases with two phases in open circuit
- 3.6.6.5. Application to a non-sinusoidal five-phase machine with a phase in open circuit
- 3.6.6.6. Application to a sinusoidal five-phase machine in the presence of saturation
- 3.6.6.7. Application to a five-phase machine with sinusoidal back emfs and phase a in short circuit
- 3.7. Experimental learning strategy in closed loop to obtain optimal currents in all cases
- 3.8. Simulation results
- 3.9. General conclusion
- 3.10. Glossary
- 3.11. Bibliography
- Chapter 4: Control of the Double-star Synchronous Machine Supplied by PWM Inverters
- 4.1. Introduction
- 4.2. Description of the electrical actuator
- 4.3. Basic equations
- 4.4. Dynamic models of the double-star synchronous machine
- 4.5. Control of the double-star synchronous machine
- 4.6. Bibliography
- Chapter 5: Vectorial Modeling and Control of Multiphase Machines with Non-salient Poles Supplied by an Inverter
- 5.1. Introduction and presentation of the electrical machines
- 5.2. Control model of inverter-fed permanent magnet synchronous machines
- 5.2.1. Characteristic spaces and generalization of the notion of an equivalent two-phase machine
- 5.2.2. The inverter seen from the machine
- 5.3. Torque control of multiphase machines
- 5.3.1. Control of currents in the natural basis
- 5.3.2. Control of currents in a decoupling basis
- 5.4. Modeling and torque control of multiphase machines in degraded supply mode
- 5.5. Bibliography
- Chapter 6: Hybrid Excitation Synchronous Machines
- Chapter 7: Advanced Control of the Linear Synchronous Motor
- 7.1. Introduction
- 7.1.1. Historical review and applications in the field of linear motors
- 7.1.2. Presentation of linear synchronous motors
- 7.1.3. Technology of linear synchronous motors
- 7.1.4. Linear motor models using sinusoidal magneto-motive force assumption
- 7.1.5. Causal ordering graph representation
- 7.1.6. Advanced modeling of linear synchronous motors
- 7.2. Classical control of linear motors
- 7.3. Advanced control of linear motors
- 7.4. Conclusion
- 7.5. Nomenclature
- 7.6. Acknowledgment
- 7.7. Bibliography
- 7.8. Appendix: LMD10-050 Datasheet of ETEL
- 7.1. Introduction
- Chapter 8: Variable Reluctance Machines: Modeling and Control
- Chapter 9: Control of the Stepping Motor
- 9.1. Introduction
- 9.2. Modeling
- 9.3. Control in open loop
- 9.4. Controls in closed loop
- 9.5. Advanced control: the control of chaos
- 9.6. Bibliography
- Chapter 10: Control of Piezoelectric Actuators
- 10.1. Introduction
- 10.2. Causal model in the supplied voltage referential
- 10.3. Causal model in the referential of the traveling wave
- 10.4. Control based on a behavioral model
- 10.5. Controls based on a knowledge model
- 10.6. Conclusion
- 10.7. Bibliography
- List of Authors
- Index
List of Authors
Pierre-Jean BARRE
LSIS
Arts et Métiers ParisTech Aix-en-Provence
France
François BAUDART
CEREM
Université Catholique de Louvain Louvain-la-Neuve
Belgium
Mohamed Fouad BENKHORIS
IREENA
University of Nantes
Saint Nazaire
France
Damien FLIELLER
GREEN
INSA of Strasbourg France
Moez FEKI
ICOS
École Nationale d’Ingénieurs de Sfax
Tunisia
Frédéric GIRAUD
L2EP
Lille 1 University Villeneuve d’Ascq France
Mickael HILAIRET
LGEP
Paris Sud University
Gif sur Yvette
France
Xavier KESTELYN
L2EP
Arts et Métiers ParisTech Lille
France
Francis LABRIQUE
CEREM
Université Catholique de Louvain
Louvain-la-Neuve
Belgium
Betty LEMAIRE-SEMAIL
L2EP
Lille 1 University
Villeneuve d’Ascq
France
Jean-Paul LOUIS
SATIE
ENS Cachan/UniverSud-Paris
Cachan
France
Thierry LUBIN
GREEN
Henri Poincaré University
Nancy
France
Ernest MATAGNE
CEREM
Université Catholique de Louvain
Louvain-la-Neuve
Belgium
Ngac Ky NGUYEN
MIPS
Haute Alsace University Mulhouse
France
Nicolas PATIN
LEC
Université Technologique de
Compiègne
France
Ghislain REMY
LGEP
Paris Sud University
Gif sur Yvette
France
Bruno ROBERT
CReSTIC
Reims Champagne-Ardenne University
France
Hervé SCHWAB
Robert Bosch GmbH
Bühl (Baden-Württemberg)
Germany
Éric SEMAIL
L2EP
Arts et Métiers ParisTech Lille
France
Guy STURTZER
GREEN
INSA of Strasbourg
France
Abdelmounaïm TOUNZI
L2EP
Lille 1 University Villeneuve d’Ascq
France
Lionel VIDO
SATIE
University of Cergy-Pontoise
France
-
No Comment
..................Content has been hidden....................
You can't read the all page of ebook, please click here login for view all page.