Short-Circuit and Ground Fault Analyses and Location in VSC-Based DC Network Cables

By Jin Yang, J. Fletcher, J. O'Reilly. IEEE transactions on industrial electronics (1982. Print), 2012

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DC Fault Detection and Location in Meshed Multiterminal HVDC Systems Based on DC Reactor Voltage Change Rate (2017, methodology): “The pole-to-pole dc fault is the most serious fault case for HVDC systems and is thus considered in this paper [11], [13], [29], [30].”
Precharging and DC Fault Ride-Through of Hybrid MMC-Based HVDC Systems (2015, background): “However, HBSM-based MMC (HB-MMC) does not have dc fault blocking capability and, thus, has to rely on ac or dc circuit breakers (CBs) to isolate dc faults [12], [13].”
Contribution of Fault Current Sources in Multiterminal HVDC Cable Networks (2013, background): “The emphasis in this paper is on pole-to-ground faults, since they are regarded as significantly more frequent compared to pole-to-pole faults [13], although the latter fault would lead to more severe conditions [14].”
Fault Current Interruption in Multiterminal HVDC Networks (2016, background): “Pole-to-ground faults are regarded as significantly more frequent compared to pole-to-pole faults [13], particularly lightning-related faults in OHL systems, although the latter fault would lead to more severe conditions [14].”
Impact of HVDC Transmission System Topology on Multiterminal DC Network Faults (2015, methodology): “Previous research on the protection of high-voltage MTDC networks have also focused on how a dc fault develops [15]–[17]; dc fault detection methods [18], [19]; and protection systems [20]–[22].”