© 2013 IEEE. This paper proposes a new droop coefficient design method with the aim of improving the power-sharing accuracy among the converters in a multi-terminal dc (MTDC) system. The proposed droop coefficient design method works by adjusting the droop coefficient and can realize an arbitrary power-sharing ratio among all the converters in an MTDC system. This method does not rely on a communication network and therefore has the potential for higher reliability than the alternative methods. Mitigating the impact of the variation of dc line resistances on the power-sharing is discussed. Simulation of a four-terminal MTDC system is carried out by using PSCAD/EMTDC. The experimental results under a scaled-down four-terminal dc grid platfor...
The non-deterministic nature of power fluctuations in renewable energy sources impose challenges to ...
Load current sharing between parallel-connected DC-DC boost converters is very important for system ...
A possible methodology for the power sharing is based on DC voltage droop control at onshore station...
This paper proposes a new droop coefficient design method with the aim of improving the power-shari...
This paper proposes a new droop coefficient design method with the aim of improving the power-sharin...
With the advance of insulated gate bipolar transistor (IGBT) converters, Multi-Terminal DC (MTDC) b...
For droop control in voltage source converter based multi-terminal HVDC systems, the determination o...
To solve the problem of large DC voltage deviation caused by the power fluctuations and poor power d...
This paper proposes a generalized voltage droop (GVD) control strategy for control and power sharing...
Dc systems are gaining popularity because of its high efficiency, high reliability and easy intercon...
In this paper, droop control of inverters in a multi-terminal HVDC (MTDC) system is designed to achi...
One of the significant concerns in the MTDC systems is that voltage source converters (VSCs) do not ...
Because of the increasing penetration of intermittent green energy resources like offshore wind farm...
Abstract: This paper develops an effective control framework for DC voltage control and power-sharin...
This paper develops an effective control framework for DC voltage control and power-sharing of multi...
The non-deterministic nature of power fluctuations in renewable energy sources impose challenges to ...
Load current sharing between parallel-connected DC-DC boost converters is very important for system ...
A possible methodology for the power sharing is based on DC voltage droop control at onshore station...
This paper proposes a new droop coefficient design method with the aim of improving the power-shari...
This paper proposes a new droop coefficient design method with the aim of improving the power-sharin...
With the advance of insulated gate bipolar transistor (IGBT) converters, Multi-Terminal DC (MTDC) b...
For droop control in voltage source converter based multi-terminal HVDC systems, the determination o...
To solve the problem of large DC voltage deviation caused by the power fluctuations and poor power d...
This paper proposes a generalized voltage droop (GVD) control strategy for control and power sharing...
Dc systems are gaining popularity because of its high efficiency, high reliability and easy intercon...
In this paper, droop control of inverters in a multi-terminal HVDC (MTDC) system is designed to achi...
One of the significant concerns in the MTDC systems is that voltage source converters (VSCs) do not ...
Because of the increasing penetration of intermittent green energy resources like offshore wind farm...
Abstract: This paper develops an effective control framework for DC voltage control and power-sharin...
This paper develops an effective control framework for DC voltage control and power-sharing of multi...
The non-deterministic nature of power fluctuations in renewable energy sources impose challenges to ...
Load current sharing between parallel-connected DC-DC boost converters is very important for system ...
A possible methodology for the power sharing is based on DC voltage droop control at onshore station...