###### Abstract
\begin{table}
\begin{tabular}{c l} \hline \hline
**Year** & \multicolumn{1}{c}{**Published Works**} \\ \hline
1991 & The authors of [11] introduce frequency control in power systems using an FLC with two inputs and an output. \\
1993 & The authors of [12] propose an FLC for reactive power compensation using automatically switched capacitor banks employing TCR/TSC 1. \\
1994 & [PERSON] and his colleagues propose a PID 2 fuzzy stabilizer for voltage control [13]. The control of a UPQC with fuzzy logic control was achieved in the research presented in [14]. \\
1998 & [PERSON] and [PERSON] demonstrate that voltage sags can be effectively eliminated by using a dynamic voltage restored controlled by an FLC [15]. [PERSON] determines that harmonic distortion and power factor issues are improved using an FLC that commands a line conditioner [16]. \\
2006 & The authors of [17] present a Takagi-Sugeno FLC dedicated to operating an active power filter to eliminate harmonics. \\
2008 & Using simulations made in MATLAB, the authors of [18] demonstrate the efficacy of a fuzzy hysteresis controller in controlling a UPQC. \\
2011 & The authors of [19] consider balanced and unbalanced conditions when analyzing the performance of a shunt active filter controlled by an FLC. \\
2014 & To improve the operation of the control system, the authors of [20] employ a type-2 FLC that controls an active power filter. \\ A hybrid FCS that combines artificial neural networks and Takagi-Sugeno-Kang \\
2015 & probabilistic fuzzy control performs reactive power compensation with superior results compared to conventional techniques [21]. \\ [PERSON] and his colleagues propose an adaptive fuzzy controller to stabilize power system frequency in consideration of microgrids and other distributed generation units [22]. \\
2018 & The authors of [23] propose a fuel-cell-integrated UPQC controlled by a hybrid fuzzy system to compensate PQ problems. The frequency control of modern multi-area power systems is solved with fuzzy logic in [24]. \\
2020 & [PERSON] and his colleagues describe the use of hybrid fuzzy control to command a shunt active filter [26]. \\
2021 & [PERSON] and his colleagues are researching the use of an FLC-controlled STATCOM in association with an enhanced second-order generalized integrator [27]. The voltage dynamic problem is solved using fuzzy logic considering the Malaysian power system [28]. \\
2022 & The authors of [29] propose the use of fuzzy fault-tolerant control and four-switch voltage source inverters to increase the stability of power systems. \\
2023 & The authors of [30] present the use of ANFIS 3 to improve power quality in a microgrid. \\ \hline \hline \end{tabular}
\end{table} 
Table 1: History of fuzzy logic applications dedicated to power quality control. and high-order systems [37], and are overtly acknowledged as superior replacements for their PID counterparts [8]. Modern power systems are complex and often experience uncertainty due to the diverse range of electricity consumers and prosumers they serve, as well as the presence of distributed generation units and interconnected microgrids. The integration of different generation units that rely on renewable resources such as solar energy and wind can lead to PQ issues, including voltage sags, voltage swells, voltage transients, harmonics, voltage oscillations, unbalance, and low-power factors [38]. In addition, devices and equipment with nonlinear characteristics, as well as unbalanced and varying loads, can cause non-sinusoidal and unbalanced currents and voltages, voltage fluctuations, and flicker in utility electricity networks and consumer installations [39; 40]. PQ disturbances in power systems can cause a range of problems, including supplementary power losses, premature aging of components, low-power factors, equipment malfunction, and even total failure [41; 42; 43]. To help prevent these issues, international standards have been developed by organizations such as the European Norms, American National Standard Institute, IEC, and IEEE.