Singular value decomposition‐based dynamic response analysis of VSC‐MTDC/AC systems for renewable energy integration

Autor: Yanan Tang, Li Kong, Yao Liu, Wei Pei, Hua Ye
Rok vydání: 2018
Předmět:
Computer science
voltage-source convertors
02 engineering and technology
HVDC power convertors
dynamic performance
power system stability
DC voltage deviations
system oscillation modes
0202 electrical engineering
electronic engineering
information engineering

singular value decomposition-based dynamic response analysis
VSC
dynamic response
Oscillation
singular value decomposition
General Engineering
improved virtual synchronous machine control
HVDC power transmission
wind farm-MTDC-main AC systems
machine control
AC frequency
VSC-MTDC-AC systems
Frequency domain
capacitance-based inertia response emulation
system-level dynamic response model
Synchronous motor
power generation control
020209 energy
wind power plants
Energy Engineering and Power Technology
Capacitance
power transmission control
Control theory
Singular value decomposition
large-scale renewable energy integration
Voltage source
WF
Machine control
voltage source converter-based multiterminal high-voltage direct current grid
voltage control
virtual power system stabiliser
SVD technique
020208 electrical & electronic engineering
Direct current
power grids
time-domain analysis
frequency-domain analysis
lcsh:TA1-2040
synchronous machines
lcsh:Engineering (General). Civil engineering (General)
Software
Zdroj: The Journal of Engineering (2019)
ISSN: 2051-3305
DOI: 10.1049/joe.2018.8455
Popis: The dynamic performance of voltage source converter-based multi-terminal high-voltage direct current (VSC-MTDC) grid for large-scale renewable energy integration is becoming a concern. This study proposes a system-level dynamic response model of wind farm (WF)-MTDC-main AC systems, and then analyses the dynamic performance based on the singular value decomposition (SVD) technique. In the modelling, an improved virtual synchronous machine control is developed, and the interaction between AC frequency and DC voltage can be readily described. Using the SVD technique, parameters of the controllers are tuned, thereby making the AC frequency and DC voltage deviations within the limitations. Some oscillation modes of the system are observed and virtual power system stabiliser is proposed to suppress the oscillations. Additionally, the oscillation can be mitigated by emulating capacitance-based inertia response. The efficiency of the proposed model and analysis is verified through the frequency-domain and time-domain results.
Databáze: OpenAIRE