Comparison of the proposed algorithm with other algorithms
Study | Faulty type | Given inputs | Function of protection | Algorithm used | MAE (%) |
---|---|---|---|---|---|
Ben Hessine and Ben Saber[2] | Shunt faults | Sending terminal currents | Fault classification and location | SVM | 0.22 |
Jamil et al. [23] | Multi-location and transforming faults | Single end current and voltage signals | Fault location regardless of fault classification | ANN | 0.9 |
Bouthiba [18] | Shunt faults | Single end current and voltage signals | Fault detection, classification, and location | ANN | 0.74 |
Barman and Roy [8] | Short circuit faults | Current and voltage | Fault section identification, classification, and location | ANFIS | 1.3 |
Swetapadma and Yadav [17] | Inter circuit and phase to ground faults | Source end currents and voltages | Fault location | Decision tree regression | 0.9 |
Swetapadma and Yadav [20] | Cross-country and evolving faults | Currents and voltages | Fault location regardless of fault classification | ANN | 1 |
Roostaee et al. [15] | Cross-country faults | Zero-sequence currents | Fault location | First-zone distance relaying | 5 |
Proposed algorithm | Cross-country and evolving faults | Single terminal impedances | Fault location regardless of fault classification | FES | 0.41 |