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Author Lam, Chi-Seng, author

Title Design and control of hybrid active power filters / Chi-Seng Lam, Man-Chung Wong
Published Heidelberg : Springer, 2014
Table of Contents
1.Introduction1
1.1.Power Quality Issues1
1.2.Standards of Power Quality Issues3
1.3.Development of Hybrid Active Power Filter3
1.3.1.HAPF Topology 1--Series APF and Shunt PPF5
1.3.2.HAPF Topology 2--Shunt APF and Shunt PPF6
1.3.3.HAPF Topology 3--APF in Series with Shunt PPF7
1.4.Research Objectives8
1.4.1.Circuit Configuration of a Three-Phase Four-Wire Center-Split HAPF10
1.4.2.Conventional and Proposed Compensating Current Generation Method for HAPF13
1.4.3.Limitations of Conventional Three-Phase HAPF17
1.5.Organization of the Book17
 References19
2.Analysis of HAPF in Harmonic Resonances Prevention and Compensation Capabilities23
2.1.Introduction23
2.2.HAPF Single-Phase Harmonic Circuit Model24
2.2.1.HAPF Single-Phase Harmonic Circuit Model Due to ILxh Only24
2.2.2.HAPF Single-Phase Harmonic Circuit Model Due to Vsxh Only26
2.3.Investigation of HAPF Steady-State Compensating Performances27
2.3.1.HAPF Capability to Prevent Parallel Resonance28
2.3.2.HAPF Capability to Prevent Series Resonance29
2.3.3.HAPF Capability to Improve Filtering Performances32
2.3.4.HAPF Capability to Enhance System Robustness33
2.4.Summary36
 References37
3.Nonlinearity and Linearization of Hysteresis PWM Study and Analysis for HAPF39
3.1.Introduction39
3.2.Modeling of a Three-Phase Four-Wire Center-Split HAPF and APF40
3.2.1.Circuit Configuration of a Three-Phase Four-Wire Center-Split HAPF and APF40
3.2.2.Mathematical Modeling of a Three-Phase Four-Wire Center-Split HAPF and APF42
3.3.Hysteresis PWM Control for HAPF43
3.3.1.Nonlinearity of HAPF Inverter Current Slope43
3.3.2.Single-Phase Simulation and Experimental Results for HAPF Inverter Current Slope Linearization Analysis44
3.3.3.Summary for Determining Quasi-Linear Limit Tlimit and Linear Limit T50
3.4.HAPF Linearization Study Verification Under Three-Phase Four-Wire Power Quality Compensator Application50
3.4.1.Determination of Final Sampling Time Tfinal and Hysteresis Band Hfinal51
3.4.2.Simulation and Experimental Verifications for HAPF Linearization Study Under Three-Phase Four-Wire Power Quality Compensator Application51
3.4.3.Simulation Results52
3.4.4.Experimental Results55
3.5.Summary58
 References60
4.Adaptive DC-Link Voltage Control Technique for HAPF in Reactive Power Compensation61
4.1.Introduction61
4.2.Single-Phase Fundamental Equivalent Circuit Model of HAPF62
4.3.HAPF Required Minimum DC-Link Voltage with Respect to Loading Reactive Power65
4.3.1.Full-Compensation by Coupling Passive Part66
4.3.2.Under-Compensation by Coupling Passive Part66
4.3.3.Over-Compensation by Coupling Passive Part66
4.4.Adaptive DC-link Voltage Controller for A Three-Phase Four-Wire HAPF68
4.4.1.Instantaneous Power Compensation Control Block68
4.4.2.Adaptive DC-Link Voltage Control Block68
4.4.3.Final Reference Compensating Current and PWM Control Block71
4.5.Simulation and Experimental Verifications of the Adaptive DC-Link Voltage Controller for the Three-Phase Four-Wire HAPF71
4.5.1.Under-Compensation by Coupling Passive Part Situation (LcI = 6 mH, Cc1 = 140 μF)73
4.5.2.Over-Compensation by Coupling Passive Part Situation (Lc1 = 6 mH, Cc1 = 190 μF)74
4.5.3.Comparison Between Fixed and Adaptive DC-Link Voltage Control80
4.6.Summary84
 References84
5.Minimum Inverter Capacity Design for HAPF87
5.1.Introduction87
5.2.Mathematical Modeling of A Three-Phase Four-Wire Center-Split HAPF in D-Q-0 Coordinate89
5.2.1.Equivalent Circuit Models of a Three-Phase Four-Wire HAPF in D-Q-0 Coordinate89
5.2.2.Coupling Part Filtering Characteristics Analysis of the HAPF without or with Coupling Neutral Inductor90
5.2.3.Resonant Frequency Selection for Coupling LC without or with Coupling Neutral Inductor92
5.3.Minimum Inverter Capacity Analysis of A Three-Phase Four-Wire Center-Split HAPF93
5.4.Simulation and Experimental Verifications for Inverter Capacity Reduction Analysis of the Three-Phase Four-Wire HAPF with Coupling Neutral Inductor98
5.4.1.Simulation Results99
5.4.2.Experimental Results103
5.5.Summary109
 References109
6.Design and Performance of A 220 V 10 kVA Adaptive Low DC-Link Voltage Controlled HAPF with a Coupling Neutral Inductor Experimental System111
6.1.Introduction111
6.2.Adaptive DC-Link Voltage Controller for A HAPF without and with Lcn112
6.2.1.Instantaneous Power Compensation Control Block115
6.2.2.Proposed Adaptive DC-Link Voltage Control Block115
6.2.3.Final Reference Compensating Current and PWM Control Block120
6.3.A 220 V lOkVA Three-Phase Four-Wire Center-Split HAPF Experimental Prototype121
6.3.1.System Configuration of Three-Phase Four-Wire Center-Split HAPF121
6.3.2.Experimental Testing Loads122
6.3.3.Design of PPF Part of HAPF122
6.3.4.Design of APF Part of HAPF124
6.3.5.General Design Procedures for Adaptive DC-Link Voltage Controlled HAPF with Lcn130
6.4.Experimental Verifications of A 220 V 10 KVA Low Adaptive DC-Link Voltage-Controlled HAPF with Lcn Experimental Prototype131
6.4.1.Power Quality Data of the Experimental Loadings132
6.4.2.Experimental Results of Conventional Fixed DC-Link Voltage-Controlled HAPF132
6.4.3.Experimental Results of Adaptive DC-Link Voltage-Controlled HAPF136
6.4.4.Experimental Results of Adaptive DC-Link Voltage-Controlled HAPF with Lcn138
6.4.5.Comparison139
6.5.Summary143
 References144
7.Conclusions and Prospective for Future Work145
7.1.Conclusions145
7.2.Perspectives for Future Work146
 Appendix147
 Biography of Authors157

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Description 1 online resource (xvi, 158 pages) : illustrations (some color)
Series SpringerBriefs in Electrical and Computer Engineering, 2191-8112
SpringerBriefs in electrical and computer engineering, 2191-8112
Contents Analysis of HAPF in Harmonic Resonances Prevention and Compensation Capabilities -- Nonlinearity and Linearization of Hysteresis PWM Study and Analysis for HAPF -- Adaptive DC-Link Voltage Control Technique for HAPF in Reactive Power Compensation -- Minimum Inverter Capacity Design for HAPF -- Design and Performance of A 220V 10kVA Adaptive Low DC-Link Voltage Controlled HAPF With A Coupling Neutral Inductor Experimental System -- Conclusions and Prospective for Future Work -- Appendix
Summary Design and Control of Hybrid Active Power Filters presents an overview of the current quality problems and their compensators. To get a balance between the system cost and performance, hybrid active power filters (HAPFs) are valuable. The book presents the coverage of resonance phenomena prevention capability, filtering performance and system robustness analysis of HAPF; nonlinear inverter current slope characteristics and their linear operation region requirement analysis of the hysteresis PWM for the HAPF; minimum inverter capacity design procedure of HAPF, adaptive dc-link voltage controller for the HAPF and the real design example of a 220V 10kVA HAPF, in which the system performance analysis method, minimum dc voltage deduction concept and adaptive dc voltage idea can be further extended into the other active compensators, such as APF, static synchronous compensator STATCOM, etc. This book will benefit researchers, graduate students, and electrical power engineers in the field of power-quality compensation
Bibliography Includes bibliographical references
Notes Online resource; title from PDF title page (SpringerLink, viewed November 25, 2013)
Subject Systems engineering.
Engineering.
Engineering
systems engineering.
engineering.
TECHNOLOGY & ENGINEERING -- Mechanical.
Ingénierie.
Engineering
Systems engineering
Form Electronic book
Author Wong, Man-Chung, author
ISBN 9783642413230
3642413234
3642413226
9783642413223