This paper investigates DC network partition and alternative DC fault protection strategy for Multi-terminal HVDC (MTDC) system. Fast acting DC Circuit Breakers (DCCBs) or fault blocking DC-DC converters can be configured at strategic locations to allow the entire MTDC system to be operated interconnected but partitioned into islanded DC network zones following faults. In case of any DC fault event, the DCCBs or DC-DC converters at the strategic cable connections that link the different DC network partitions are opened or blocked such that the faulty DC network zone is quickly isolated from the remaining of the MTDC system. Thus, the healthy DC network zone can remain operational or recover quickly to restore power transmission. Each DC zon...
In a multi-terminal HVDC system, DC circuit breakers (DCCBs) are conventionally connected in a star-...
The development of modular multilevel converter (MMC) and the increased needs for long distance bulk...
DC grid technology is one of the effective methods for collecting, transmitting and accommodating la...
This paper concentrates on using fast acting DC Circuit Breakers (DCCBs) at strategic locations to a...
This paper investigates DC network partition and alternative DC fault protection strategy for Multi-...
This paper proposes a DC fault protection strategy for large multi-terminal HVDC (MTDC) network wher...
DC fault protection arrangements for a large multi-terminal HVDC network are proposed where fast-act...
DC fault protection arrangements for a large multi-terminal HVDC (MTDC) network are proposed where f...
High voltage dc networks are a promising technology to flexibly transmit power over long distances. ...
A multi-terminal dc (MTDC) grid has a number of advantages over traditional ac transmission. However...
Voltage source converters (VSCs) are highly vulnerable to DC fault current; thus, protection is one ...
For a large multi-terminal HVDC system, it is important that a DC fault on a single branch does not ...
To protect the converters and minimize the power transmission interruption during dc line faults, it...
In a multi-terminal HVDC system, DC circuit breakers (DCCBs) are conventionally connected in a star-...
The development of modular multilevel converter (MMC) and the increased needs for long distance bulk...
DC grid technology is one of the effective methods for collecting, transmitting and accommodating la...
This paper concentrates on using fast acting DC Circuit Breakers (DCCBs) at strategic locations to a...
This paper investigates DC network partition and alternative DC fault protection strategy for Multi-...
This paper proposes a DC fault protection strategy for large multi-terminal HVDC (MTDC) network wher...
DC fault protection arrangements for a large multi-terminal HVDC network are proposed where fast-act...
DC fault protection arrangements for a large multi-terminal HVDC (MTDC) network are proposed where f...
High voltage dc networks are a promising technology to flexibly transmit power over long distances. ...
A multi-terminal dc (MTDC) grid has a number of advantages over traditional ac transmission. However...
Voltage source converters (VSCs) are highly vulnerable to DC fault current; thus, protection is one ...
For a large multi-terminal HVDC system, it is important that a DC fault on a single branch does not ...
To protect the converters and minimize the power transmission interruption during dc line faults, it...
In a multi-terminal HVDC system, DC circuit breakers (DCCBs) are conventionally connected in a star-...
The development of modular multilevel converter (MMC) and the increased needs for long distance bulk...
DC grid technology is one of the effective methods for collecting, transmitting and accommodating la...