PhD Kosei SHINODA “Control and Energy Management of MMC-based Multi-Terminal HVDC Grids”
The scope of this thesis includes control and management of the Modular Multilevel Converter (MMC)-based Multi-Terminal Direct Current (MTDC).
The scope of this thesis includes control and management of the Modular Multilevel Converter (MMC)-based Multi-Terminal Direct Current (MTDC).
Large offshore wind farms will be important players within the future energy landscape. What is the expected benefit for a project is an essential issue from Investor side, considering both technical and economic aspects. Levelized Cost Of Energy - LCOE - is a standard economic indicator which allows to assess the economic viability of a project.
This paper presents the nonlinear control of a Fully-Fed Synchronous Machine based Variable Speed Pumped Storage Plant (FFSM PSP).
This paper describes the influence of grounding on voltage and current transients during DC-link fault in a High Voltage Direct Current (HVDC) cable system.
Due to the complexity of the system, the control of the Modular Multilevel Converter (MMC) constitutes an intensive research activity.
The growth of renewable energy production is changing the future of power transmission systems.
Ensuring that the DC voltage remains within an acceptable range is a major concern for HVDC systems.
The Modular Multilevel Converters (MMCs) have emerged as the most suitable converter technology for HVDC application.
A protection strategy for high voltage direct current grids using superconducting fault current limiters as main protection component is presented in this work.
A protection strategy for multi-terminal HVDC (MTDC) grids based on AC/DC converters without fault blocking capability such as half-bridge MMC converters is presented in this paper.