Modeling, Operation, and Analysis of DC Grids presents a unified vision of direct current grids with their core analysis techniques, uniting power electronics, power systems, and multiple scales of applications. Part one presents high power applications such as HVDC transmission for wind energy, faults and protections in HVDC lines, stability analysis and inertia emulation. The second part addresses current applications in low voltage such as microgrids, power trains and aircraft applications. All chapters are self-contained with numerical and experimental analysis.
1. 1 Introduction - p. 1 2. 2 HVDC transmission for wind energy - p. 13 3. 3 DC faults in HVDC - p. 27 4. 4 Eigenvalue-based analysis of small-signal dynamics and stability in DC grids - p. 69 5. 4.1: Introduction - p. 69 6. 4.2: Introduction to state-space modeling of electrical systems - p. 72 7. 4.3: Synthesis of system-level state-space models of HVDC grids - p. 82 8. 4.4: Examples of sub-system modeling - p. 96 9. 4.5: Practical considerations for modular and automated generation of system-level small-signal state-space models - p. 110 10. 4.6: Example of small-signal analysis - p. 114 11. 4.7: Conclusion - p. 125 12. 5 Inertia emulation with HVDC transmission systems - p. 129 13. 6 Real-time simulation of a transient model for HVDC cables in SOC-FPGA - p. 149 14. 7 Probabilistic analysis in DC grids - p. 175 15. 8 Stationary-state analysis of low-voltage DC grids - p. 195 16. 9 Stability analysis and hierarchical control of DC power networks - p. 215 17. 10 Digital control strategies of DC–DC converters in automotive hybrid powertrains - p. 245 18. 11 Adaptive control for second-order DC–DC converters: PBC approach - p. 289 19. 12 Advances in predictive control of DC microgrids - p. 311 20. 13 Modeling and control of DC grids within more-electric aircraft - p. 337 21. Index - p. 367
Modeling, Operation, and Analysis of DC Grids presents a unified vision of direct current grids with their core analysis techniques, uniting power electronics, power systems, and multiple scales of applications. Part one presents high power applications such as HVDC transmission for wind energy, faults and protections in HVDC lines, stability analysis and inertia emulation. The second part addresses current applications in low voltage such as microgrids, power trains and aircraft applications. All chapters are self-contained with numerical and experimental analysis.
1. 1 Introduction - p. 1 2. 2 HVDC transmission for wind energy - p. 13 3. 3 DC faults in HVDC - p. 27 4. 4 Eigenvalue-based analysis of small-signal dynamics and stability in DC grids - p. 69 5. 4.1: Introduction - p. 69 6. 4.2: Introduction to state-space modeling of electrical systems - p. 72 7. 4.3: Synthesis of system-level state-space models of HVDC grids - p. 82 8. 4.4: Examples of sub-system modeling - p. 96 9. 4.5: Practical considerations for modular and automated generation of system-level small-signal state-space models - p. 110 10. 4.6: Example of small-signal analysis - p. 114 11. 4.7: Conclusion - p. 125 12. 5 Inertia emulation with HVDC transmission systems - p. 129 13. 6 Real-time simulation of a transient model for HVDC cables in SOC-FPGA - p. 149 14. 7 Probabilistic analysis in DC grids - p. 175 15. 8 Stationary-state analysis of low-voltage DC grids - p. 195 16. 9 Stability analysis and hierarchical control of DC power networks - p. 215 17. 10 Digital control strategies of DC–DC converters in automotive hybrid powertrains - p. 245 18. 11 Adaptive control for second-order DC–DC converters: PBC approach - p. 289 19. 12 Advances in predictive control of DC microgrids - p. 311 20. 13 Modeling and control of DC grids within more-electric aircraft - p. 337 21. Index - p. 367
