Please note that the GDP 2014 2nd upgraded the capacity for corridor C to 6 GW in 2024. An improper connection to the AC grid at the southern end of HVDC corridor C is partly responsible for the low average load factor of that corridor. In any case, there are huge differences in the average load factor when comparing all corridors. The efficiency of a hypothetical superconducting TL would therefore vary tremendously depending on the corridor, as would the efficiency of standard conductors. Please note that corridor C actually consist of sub-corridors that have different start and end points where they connect to the AC grid but are located in geographical proximity.
The GDP 2014 2nd upgrade increased the capacity of corridor C to 6 GW by 2024. However, an improper connection to the AC grid at the southern end of HVDC corridor C has contributed to its low average load factor. Significant variations in average load factors exist across all corridors, which means the efficiency of a hypothetical superconducting transmission line, as well as standard conductors, would differ considerably depending on the corridor. It is also important to note that corridor C comprises sub-corridors with distinct start and end points for their AC grid connections, despite being geographically close.
The GDP 2014 2nd upgraded the capacity of corridor C to 6 GW in 2024. An inadequate connection to the AC grid at the southern end of HVDC corridor C contributes to its low average load factor. There are significant variations in the average load factor among all corridors. The efficiency of a hypothetical superconducting transmission line would also differ greatly depending on the corridor, as would the efficiency of standard conductors. Additionally, corridor C consists of sub-corridors that have distinct start and end points for their connections to the AC grid while being geographically close to each other.
The GDP 2014 2nd increased the capacity of corridor C to 6 GW in 2024. The low average load factor of HVDC corridor C is due to a poor connection to the AC grid at the southern end. The average load factor of all corridors differs significantly. The efficiency of a hypothetical superconducting transmission line would also vary significantly with the corridor, as would the efficiency of conventional conductors. Furthermore, corridor C is composed of sub-corridors with different start and end points for their AC grid connections and geographically close to each other.
The GDP 2014 2nd upgraded the capacity of corridor C to 6 GW in 2024. A poor AC grid connection at the southern end of HVDC corridor C is responsible for its low average load factor. There are large differences in the mean load factor across all corridors. The efficiency of a hypothetical superconducting transmission line would also vary significantly with the corridor, as would the efficiency of conventional conductors. Moreover, corridor C contains sub-corridors with different start and end points of their connections to the AC grid, but are located near each other.