2018 International Conference on Smart Electric Drives and Power System (ICSEDPS) 2018
DOI: 10.1109/icsedps.2018.8536084
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Optimum Location of Thyristor Controlled Phase Angle Regulator Based on Performance Index

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Cited by 9 publications
(3 citation statements)
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“…TCPAR: It uses phase-shifting transformer and thyristor switches for regulating the parameters of power system. One of the striking features that TCPAR offers is: regulation of the power flow without affecting power stability in that particular network [38]. It can also be employed for adjusting power flow after contingencies due to faults in the system [39].…”
Section: Facts Devicesmentioning
confidence: 99%
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“…TCPAR: It uses phase-shifting transformer and thyristor switches for regulating the parameters of power system. One of the striking features that TCPAR offers is: regulation of the power flow without affecting power stability in that particular network [38]. It can also be employed for adjusting power flow after contingencies due to faults in the system [39].…”
Section: Facts Devicesmentioning
confidence: 99%
“…GUPFC [18], [19], [20] Ability to damp power system oscillations; control voltage; control active and reactive power flow of multiple transmission lines; reduce harmonic distortion IPC [1], [21] Control power flow; mitigate fault current IPFC [22], [23], [24] Balance power between transmission systems; monitor real and reactive power flow; minimize power losses and generation cost; maximize loadability of system; transfer power from more loaded lines to less loaded or unloaded lines DVR [25], [26], [27] Ability to generate or absorb controllable real and reactive power; mitigate voltage swells and distortions SVC [28], [29], [30], [31] Can absorb or generate reactive power dynamically; power factor correction; dynamic and static security enhancement; voltage regulation; harmonics mitigation SSSC [32], [33], [34] Ability to change reactance character from capacitive to inductive without changing line current; can alternate the power flow VSC [1], [46] Ability to generate AC voltages without relying on AC system; rapid control of active and reactive power UPFC [35], [36], [37], [47] Deploy active and reactive power control; improve system voltage stability; power angle stability and Damping system harmonics TCPAR [38], [39] Ability to mitigate congestion issues; adjust power flow; reduce transmission losses STATCOM [40], [41], [42] Supply inductive and capacitive reactive power; improve power factor; voltage regulation; dampen system oscillation; improve harmonic filtration TCSC [43], [44], [45] Elimination of sub-synchronous resonance; damping active power oscillations; provide inductive or capacitive compensation; loss reduction; congestion relief Optimization of FACTS devices: classification, recent trends, and future outlook VI....…”
Section: Facts Device Reference Featuresmentioning
confidence: 99%
“…Impacts of SSSC control parameters were verified in [61], while TCSC was used in [62], [63] and [64] for ATC enhancement. TCPAR and TCSC were used in [65] and [66] with parameter setting of TCPAR done with device phase angle performance index sensitivity, while that of the TCSC done with hybridized RGA, AHP and FL algorithms. TCSC, TCPAR and SVC were the devices used in another work by [67], while authors in [68] limited the devices to TCSC and TCPAR for the purpose of ATC enhancement.…”
Section: Benefits Of Applications Of Facts Controllers To Power Networkmentioning
confidence: 99%