Parallel distribution compensation PID based on Takagi-Sugeno fuzzy model applied on Egyptian load frequency control

International Journal of Electrical and Computer Engineering (IJECE)
Vol. 10, No. 5, October 2020, pp. 5274~5287
ISSN: 2088-8708, DOI: 10.11591/ijece.v10i5.pp5274-5287  5274
Journal homepage: http://ijece.iaescore.com/index.php/IJECE
Parallel distribution compensation PID based on Takagi-Sugeno
fuzzy model applied on Egyptian load frequency control
M. A. Abdel Ghany1
, Mohamed A. Shamseldin2
1
Department of Electrical Engineering, Faculty of Engineering, October 6 University, Egypt
2
Faculty of Engineering and Technology, Future University in Egypt, Egypt
Article Info ABSTRACT
Article history:
Received Oct 26, 2019
Revised Feb 23, 2020
Accepted Apr 25, 2020
This paper presents a new technique for a Takagi-Sugeno (TS) fuzzy
parallels distribution compensation-PID'S (TSF-PDC-PID'S) to improve
the performance of egyptian load frequency control (ELFC). In this technique,
the inputs to a TS fuzzy model are the parameters of the change of operating
points. The TS fuzzy model can definite the suitable PID control for a certain
operating point. The parameters of PID'S controllers are obtained by ant
colony optimization (ACO) technique in each operating point based on an
effective cost function. The system controlled by the proposed TSF-PDC-
PID’S is investigated under different types of disturbances, uncertainty and
parameters variations. The simulation results ensure that the TSF-PDC-PID'S
can update the suitable PID controller at several operating points so, it has a good
dynamic response under many types of disturbances compared to fixed
optimal PID controller.
Keywords:
Fuzzy
Parallel distribution
PID
Power system control
Takagi-Sugeno
Copyright © 2020 Institute of Advanced Engineering and Science.
All rights reserved.
Corresponding Author:
Mohamed A. Shamseldin,
Faculty of Engineering and Technology,
Future University in Egypt,
90th St, First New Cairo, Cairo Governorate 11835, Egypt
Email: Mohamed.abelbbar@fue.edu.eg
1. INTRODUCTION
The Egyptian power system consists of different types of generating stations, which can be
classified into the three types [1]. The first type stations having non-reheat generating units such as gas
turbine power stations and few steam power stations [2]. The second type, stations having reheat generating
units such as the majority of thermal stations and combined cycle power stations [3]. The third type,
the hydro-electric power stations [4, 5]. The Egyptian power system contains seven zones: Cairo, Middle
Egypt, Upper Egypt, East El-Delta, El-Canal, West El-Delta and Alexandria, as shown in Figure 1. The seven
zones are strongly tied together forming one area power system [6-10].
Each of the first five zones contains both reheat and non-reheat power stations, while the north
upper Egypt zone contains only reheat power stations and the last zone-south upper Egypt zone-contains only
hydro power stations. Each zone comprises several power plants (non-reheat, reheat, and hydro power plants
or a combination of them) [9, 10].The Egyptian power system data including the type and number of
generating units in each station, the rating and inertia constant of different units, and the inherent reserve in
each unit are given in [7-9]. The incompatibility between electric power generation and load demand causes
a frequency deviation in addition to tie-line power deviation in the interconnected power system. Also,
the large value of frequency deviation reasons several disturbances such as destroying the equipment,
transmission line overloading and interference with system protection [6].
To avoid such problem, several load frequency control (LFC) techniques are presented to keep
the system frequency at nominal value [1]. The objectives of LFC are to minimize the transient deviations in
area frequency and tie-line power interchange and to ensure their steady state errors to be zeros [2]. Although

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Parallel distribution compensation PID based on Takagi-Sugeno… (M. A. Abdel Ghany)
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the active power and reactive power have combined effects on the frequency and voltage, the control
problem of the frequency and voltage can be decoupled [3]. The frequency is highly dependent on the active
power while the voltage is highly dependent on the reactive power [4]. According to the most recent
research, several control strategies were implemented in the LFC loops of different power systems [5].
The main disadvantage of integral LFC was the poor dynamic response of the system while high
gain may cause instability for the system [8]. The conventional PID controllers for LFC were applied on
several engineering applications due to their structure simplicity and easy to implementation [9]. Moreover,
the PID controllers are suitable for on-line applications due to its simple calculations and its fast
response [10]. The PID controllers have a good performance for a certain operating point while it may give
a poor response at change the operating point for the system. In addition, it cannot deal with the system
nonlinearity and uncertainty [11].
To develop the performance of the PID controllers, several approaches based on tuning algorithms
have been proposed. The tuning algorithms of PID gains include the traditional and intelligent adjustments.
The famous traditional method is the Ziegler-Nichols that suggested rules for obtaining the proper PID
controller parameters [12]. Recently, several optimization techniques (such as genetic algorithm, particle
swarm optimization, simulating annealing, evolutionary programming, bacterial foraging, ant colony and
agent reinforcement learning) have been applied to power system to tune the PID controllers for LFC system
as promising new tools to improve the performance of the controller for certain operating condition [13].
The previous studies use the fuzzy logic control for nonlinear systems [14]. Especially, the TS fuzzy
model has been usually subjected to the control design of nonlinear systems [15], since it can merge
the advantages of both fuzzy logic theory and linear system theory [16]. The Fuzzy logic theory aids us to use
qualitative [17], linguistic information about a complex nonlinear system to execute the task of the modeling and
control design into a group of linear systems [18].
Different fuzzy techniques such as fuzzy PID, fractional-order fuzzy PID, fuzzy factional-order PID
tuned via relative rate observer for the ELFC were proposed in [19]. Using these techniques, different
changes in the system operating points and parameter variations under drives disturbances were implemented
to test the validities of the controller [20]. The operation of the fuzzy techniques based on self-tuning to
update scaling factor of the fuzzy normalizing gains during system operating points [21].
In this paper, it is assumed that the ELFC controlled system has different optimal PID controllers
corresponding to their operating points [22]. The parameters of PID controllers have been obtained using
the ACO technique according to an effective cost function [23]. For each operating point the system is
controlled by optimal PID and denotes by a linear subsystem [24]. A new technique of parallel distribution
compensation PID controllers based on TS fuzzy mechanism are combined of these linear systems together
to obtain the overall complex model and control design [25]. Although the fuzzy controller is constructed
using a certain operating point while the feedback gains should be estimated at all operating conditions to
guarantee the global stability and control performance [26, 27]. The TSF-PDC-PID is designed to select
the suitable OPID controller according to operating point condition for Egyptian load frequency control
(ELFC) [28-30].
Figure 1. Typical single-line diagram of Egyptian power system [10]

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2. THE EGYPTIAN LFC SYSTEM
The EPS’s total installed generation capacity and peak load were, respectively, about 22500 MW
and 19740 MW in 2008 [7]. The EPS was incorporating about 180 generating units belonging to the following
categories [8]:
 None reheat generating units represented by gas turbine power stations and few steam power stations
which is about 24% of the installed capacity [9].
 Reheat generating units represented by the majority of thermal stations and combined cycle power station
which is about 62% of the installed capacity [10].
 Hydroelectric power stations which is about 14% of the installed capacity [11].
The national energy control center NECC of the Egyptian Electricity Authority has developed
a dynamic power frequency model for the EPS [12]. The NECC model is originally built for solving load
shedding problems and considers only the effect of primary reserve. The EPS consists of seven strongly tied
zones. These zones have not considered any interconnection details and the study is carried out based on
single area power system model [12]. The validity of the model has been tested through two different
generator outage contingencies in two different loading conditions [28].
Figure 2 shows the block diagram of the Egyptian Power System LFC model as represented by
Simulink [10, 12]. The parameters of this model are divided into two sets. The first set of parameters does not
depend on system operating conditions. Table 1 lists the values of those parameters as estimated by
NECC [7-12]. The other set of parameters changes with time according to the operating condition. The data
required to calculate the changing parameters are concerned with the data of each generator including:
status (ON or OFF), type of unit (non reheat, reheat, or hydro), unit rating (MW), unit output (MW) for
the operating condition under study, inertia of the unit, and the spinning reserve of the unit in percentage of
the unit rating.
Figure 2. The block diagram of the Egyptian power system LFC model in Simulink representation
The Simulink model considers the generating rate constraints GRC for different generating units.
The applied values for GRC are 0.1 p.u MW/min and 0.2 p.u MW/min. for reheat turbines and non reheat
turbines, respectively. The GRC of hydro plants is neglected since its actual value is much greater
corresponding to the time durations of practical disturbances. Where the NECC in Egypt estimates the system
parameters values, which are used in the nonlinear model of the EPS are given with per unit in Table 1 [9].

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Table 1. Egyptian LFC parameters
Parameter Value Parameter Value Parameter value
D 0.028 R1 2.5 Tw 1.0
T1 0.4 R2 2.5 RL 0.8
T2 0.4 R3 1.0 TL 2.5
Tb 6 Td 5
M 0.5 T3 90
Four loading conditions of the EPS are considered to design the ACO-based PID gains. These four
loading conditions represent the max and min loads in two daily load curves of the EPS in 2008 [7], which
are the two days of the max water discharge Monday 30/6/2008 and the min water discharge Tuesday
8/1/2008 from hydro power plants [8]. Four MATLAB m-files are used to calculate the changing parameters
of the Simulink model [9]. Each m-file contains 6 data sets for each of the 180 generating units installed at
2008 [10]. The first one indicates whether the unit is ON or OFF, while the second one is for the generating
unit type [11]. The third and the fourth are for the rating and operating MW of the unit. The fifth and
the sixth are for the unit inertia and the unit reserve in percent of its rating. Table 2 shows the calculated
parameters out of the four m-files for the four considered operating conditions [12].
Table 2. Operating conditions of EPS at 2008
Operating point H Pn1 Pn2 Pn3 Pc1 Pc2 Pc3
1 5.7096 0.2529 0.6107 0.1364 2.87 6.51 1.25
2 6.0168 0.3002 0.5200 0.1798 2.95 6.73 2.18
3 5.8552 0.2433 0.6179 0.1389 3.24 7.12 2.38
4 6.1452 0.3335 0.5455 0.1210 3.36 8.07 6.05
3. THE PROPOSED CONTROLLER
This section illustrates the design steps of proposed the parallel distributed compensation-PID'S to
improve the performance the frequency (∆f) and the controllers outputs of Egyptian load frequency control system.
3.1. The parallel distributed compensation-PID 'S
The parallel distributed compensation (PDC) offers a procedure to design a fuzzy controller from
a given T-S fuzzy model [25]. To realize the PDC, a controlled object (nonlinear system) is first represented
by a T-S fuzzy model [26]. In the PDC design, each control rule is designed from the corresponding rule of
a T-S fuzzy model [27]. The constructing following fuzzy controller via the PDC is given by [28]:
Control Rule i:
if
𝑍𝐼(𝑡) 𝑖𝑠 𝑀𝑖𝐼 … . 𝑎𝑛𝑑 𝑍 𝑃(𝑡) 𝑖𝑠 𝑀𝑖𝑃 𝑡ℎ𝑒𝑛 𝑢(𝑡) = 𝑢(𝑖)
= 𝑘 𝑝
(𝑖)
. 𝑒 + 𝑘𝑖
(𝑖)
. ∫ 𝑒 𝑑𝑡 + 𝑘 𝑑
(𝑖)
. ∆𝑒 (1)
where 𝑖 = 1,2, … 𝑟
For building the model using a TS fuzzy model, the ranges of each parameter (pn1, pn2, pn3)
according to the Table 2 divides to named membership functions, as shown in Figures 3-5. The membership
functions are assumed to be overlapped triangular shapes that have their middle vertexes positioned at
the given crisp values and in a manner that assures that at any other crisp value is covered by exactly 2
membership functions.
Figure 3. Membership functions for pn1 Figure 4. Membership functions for pn2

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Figure 5. Membership functions for pn3
The Steps of controller design:
 Calculate the weight for each rule as follows:
𝑇ℎ𝑒 𝑤𝑒𝑖𝑔ℎ𝑡 𝑜𝑓 𝑖𝑡ℎ 𝑟𝑢𝑙𝑒 𝑖𝑠 𝑤𝑖 = min (𝑚𝑓1(𝑝 𝑛1), 𝑚𝑓2(𝑝 𝑛2), 𝑚𝑓3(𝑝 𝑛3)) (2)
The ith weight is achieved by using triangle functions and a min block as seen in Figure 6 product block
can also used instead of min):
 Calculate the output of the controller as demonstrated in Figure 7 by implementing the following:
𝑢 =
∑ (𝑢(𝑖)
. 𝑊𝑖)𝑟
𝑖=1
∑ 𝑊𝑖
𝑟
𝑖=1
(3)
Let's take for example, Rule 1:
IF pn1 is about 0.2529 (the value of pn1 that corresponds to rule 1) AND pn2 is about 0.6107
(the value of pn2 that corresponds to rule 1) AND pn3 is about 0.1364 (the value of pn3 that corresponds to
rule 1) then,
𝑢 = 𝑢(1)
= 1.8912 𝑒 + 0.088697 ∫ 𝑒 𝑑𝑡 + 0.9733. ∆𝑒 (4)
Figure 8 shows the operation of the TS Fuzzy model for obtaining a best choice of variations of operating
point operation. The operation is verifying (3).
3.2. The ant colony optimization algorithm (ACO)
The ant colony optimization algorithm (ACO) is a probabilistic technique to be subjected to solve
engineering problems to can find out suitable paths through graphs by decreasing the computational effort [31].
The first application, such algorithm was directed to search for an optimal path in a graph, based on
the behavior of ants looking for a path between their colony and a source of food. In the environmental,
ants initially search randomly and upon finding food return to their colony while laying down pheromone
trails [32]. If other ants find such a path, they do not travel at random, but they follow the trail instead,
returning and reinforcing such path if they eventually find food [33]. Over time, the pheromone trail begins
to evaporate yielding to reducing its attractive strength [34]. The ant spends more time to travel down
the path and back again, the pheromones should evaporate with time [35]. Accordingly, a short path gets
marched over more frequently and thus the pheromone density becomes higher on shorter paths than longer
ones [36]. Figure 9 demonstrates the behavior of real ants in finding the source of food.
In this method, the actual closed-loop specification of the system combined with the controller,
𝑡𝑟, 𝑀𝑝, 𝑡𝑠, 𝑎𝑛𝑑 𝑒𝑠𝑠 are used to evaluate the fitness function. This is done by summing the squares of
the errors between actual and specified specifications as given below [37].
J =
1
[𝐶1(𝑡 𝑟 − 𝑡 𝑟𝑑) + 𝐶2(𝑀 𝑝 − 𝑀 𝑝𝑑) + 𝐶3(𝑡 𝑠 − 𝑡 𝑠𝑑) + 𝐶4(𝑒𝑠𝑠 − 𝑒𝑠𝑠𝑑)
(5)
Where, c1: c4 are positive constants (weighting factor), their values are chosen according to prioritizing their
importance, (trd) is the desired rise time, (Mpd) is the desired maximum overshoot, (tsd) is the desired settling
time, and (essd) is the desired steady state error [38-42]. Table 3 illustrates the calculated optimal values of
the tuned ACS-PID's using cost function given by (5).

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Figure 6. Calculating the weight of one fuzzy rule
Figure 7. The block diagram of the PDC PID controller

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Figure 8. Best choice of operating points using TS fuzzy model
Figure 9. Ants from nest to the source of food
Table 3. The obtained PID’S controller parameters optimized by Ant colony
Operating point Controller kp ki kd
1 PID1 1.8912 0.088697 0.97333
2 PID2 1.8271 0.089623 0.96467
3 PID3 1.5074 0.059246 0.958
4 PID4 1.2144 0.093972 0.97133
4. THE SIMULATION RESULTS
The simulation results are obtained using MATLAB Toolbox. Different types of disturbances are
implemented to ELFC to show the effectiveness of the TSF-PDC-PID'S. Many cases under drives
disturbances with different operating points, parameter variation and parameter uncertainty are performed.
4.1. Case 1: Step disturbance ΔPd = 5%
In this test, the controlled of ELFC operates at operating point No. 1 with a 5% step disturbance is
applied to investigate the proposed controllers (the ACS-PID 1 and the TSPDC-PID 1). ACS-PID 1 means
that OPID obtained from ELFC offline using ACS optimization at operating point No. 1. The dynamic
response of the frequency deviation ∆F and the control input are displayed in Figure 10. It is noted that
the ACS-PID -1 results are identical with TSPDC-PID 1 at the same operating point. Moreover, the outputs
of the controllers (the ACS-PID 1 and the TSPDC-PID 1) have the same response significantly. This verify
that TSF-PDC-PID'S operates with high quality as compared with ACS-PID 1.

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(a) (b)
Figure 10. System dynamic responses case 1, (a) frequency deviation response and
(b) control output response
4.2. Case 2: Trapezoidal change in the disturbance ∆Pd
This case investigates the proposed controllers (the ACS-PID 1 and the TSPDC-PID 2) when
the operating point changes from 1 to 2. ACS-PID 1 means that ELFC operates with operating point no. 2
while the ACS-PID 1 is still unchanged. During the simulation the Pd increases gradually to 2% within 15s
and then, its value is still fixed from range 15s to 37s and finally, it decreases regularly to zero as shown in
Figure 11(a). The frequency f responses and controller outputs are shown in Figures 11(b) and (c),
respectively. Clearly, the system response using TSPDC-PID 2 has a small settling and rise time with low
overshoot compared to the ACS-PID 1.
(a)
(b) (c)
Figure 11. System dynamic responses case 2, (a) load disturbance,
(b) frequency deviation response and (c) control input response

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4.3. Case 3: Step decrease (step-down) in ∆Pd
In this test, the ELFC operates at operating condition No. 3 with a constant disturbance of 3% is
applied for 37s then a variation in ∆Pd (step decrease to 1%) as shown in Figure 12 (a) is subjected to drive
the system with each of the controllers; ACS-PID 1 and TSPDC-PID 3. The performance of frequency ∆f and
the controller outputs are shown in Figures 12 (b) and 12 (c), respectively. As noticed, the system response
with TSPDC-PID 3 gives the fastest response (small settling and rise time with low overshoot as compared to
the others).
(a)
(b) (c)
(b) frequency deviation response and (c) control output response
4.4. Case 4: Comparison between ACS-PID 1 and PDC-PID 3 through tracking-response
The disturbances of ∆Tm and ∆Vref represented by a 0.05 step change from zero to 60 seconds,
then, they decreased to 0.03 from 60 seconds to 110 seconds and finally, they reduced to 0.01 as shown in
Figure 13(a). Also, Figures 13(b) and (c) show the system responses driven by TSPDC-PID 3 and ACS-PID
1 controller. It is seen that the TSPDC-PID 3 overcomes these variations and gives a good response where
a small settling time is achieved. The control output (∆u) of the TSPDC-PID 3 has a good performance that is
characterized by similar responses of tracking references with faster responses.
4.5. Case 5: Parameters variation
To test the robustness of the proposed controller associated with system parameters change,
the values of R1, R2, R3, T1, T2, Tw, Th and Td will increase by 40% from their nominal values as shown in
Table 4. The simulation results are implemented at operating point No. 4. From Figure 14, it is clear that
the system responds smoothly with some oscillations during the disturbances is applied. However,
the TSPDC-PID 4 has a small effect for parameter changes where the system accommodates with low
overshoot and faster response than the ACS-PID1.

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(a)
(b) (c)
(b) frequency deviation response and (c) control output response
Table 4. Egyptian LFC parameters (Normal) and (+40%)
Parameters variationNormal ValueParameters
3.52.5R1
3.52.5R2
1.41.0R3
0.560.4T1
0.560.4T2
8.46Th
75Td
(a)
Figure 14. System dynamic responses case 5, (a) load disturbance

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(b) (c)
Figure 14. System dynamic responses case 5, (b) frequency deviation response
and (c) control output response (continue)
4.6. Case 6: Uncertainty in parameters
In this test, a comparison between the system driven by ACS-PID 1 and TSPDC-PID 2 under
a relative disturbance Pd = 2% is applied during 5 ≤ t ≤ 30 seconds and Pd = 0% during 0 ≤ t ≤ 5 seconds.
With different system parameter values, is carried out. The system is operated by the EPS-LFC with
operating point No. 2. The parameters are changed as follows: from 0-60 (40% Value), 60-120 (-40% Value),
120-180 (40% Value), 180-200 (+40% Value), as shown in Tables 5-7 and Figure 15. The time response of
the frequency deviation ∆F and the control input deviation ∆U are shown in Figure 16. Again, the proposed
controller TSPDC-PID 2 shows a great improvement in the system frequency than the other two with fewer
overshoots and shorter settling time. The control input ∆U shows less effort made as compared to the other two.
Table 5. Egyptian LFC parameters (Normal)
Table 6. Egyptian LFC parameters (+40%)
Parameter value Parameter value Parameter Value
D 0.028 R1 3.5 Tw 1
T1 0.56 R2 3.5 RL 0.8
T2 0.56 R3 1.4 TL 2.5
Th 8.4 Td 7
M 0.5 T3 90
Table 7. Egyptian LFC parameters (-40%)
D 0.028 R1 1.5 Tw 1
T1 0.24 R2 1.5 RL 0.8
T2 0.24 R3 0.6 TL 2.5
Th 3.6 Td 3
m 0.5 T3 90
Figure 15. Parameters variation
D 0.028 R1 2.5 Tw 1
T1 0.4 R2 2.5 RL 0.8
T2 0.4 R3 1.0 TL 2.5
Th 6 Td 5
M 0.5 T3 90

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(a) (b)
(c)
Figure 16. System dynamic responses case 6, (a) load disturbance, (b) frequency deviation response
and (c) control output response
5. CONCLUSION
A new strategy for a Takagi-Sugeno fuzzy parallel distribution compensation- PID'S (TSF-PDC-
PID'S) was implemented to enhance the dynamic response of Egyptian load frequency control (ELFC).
The parameters of the operating points of Egyptian load frequency considers as input to a Takagi-Sugeno
fuzzy model. The proper optimal PID controller was selected using the Takagi-Sugeno Fuzzy model for
a certain operating point. The ACS optimization algorithm used to optimize the parameters values of PID'S
controllers at different operating points according to the selected cost function. Several types of disturbances,
uncertainty and parameters variations applied on the system to ensure the validation of proposed controller.
The simulation results provided that the parallel distribution compensation- PID'S can select the appropriate
PID controller at different operating points so, it has a good performance through different kinds of disturbances
compared to fixed PID controller.
ACKNOWLEDGMENTS
I would like to express my special thanks of prof. Abdel Ghany Mohamed for his supporting through
this work.
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BIOGRAPHIES OF AUTHORS
Dr. M A. Abdel Ghany was born in Cairo 22thJuly1988. He received his B. Sc from Higher
Technological Institute (Tenth of Ramadan City) 2011, Diploma and M.Sc. in Automatic
Control (2012 to 2014) from, Helwan University, Cairo, Egypt. From 20/6/2015 to 2018 he
worked as an Assistant Lecturer at Faculty of Computer science Nahda University, Bani Sweif
City. He obtained his Ph. D in Automatic Control branch in Faculty of Engineering, Helwan
University, Egypt. Now, he worked as a Lecturer at department of Electrical Engineering,
Faculty of Engineering October 6 University, Egypt.
Dr. Mohamed. A. Shamseldin born in Cairo, Egypt, on October 1, 1987. He received the B.Sc.
degree in mechatronics engineering in 2010 from faculty of engineering at Helwan, Helwan
University, Cairo, Egypt. On December 2012, he received his work in faculty of engineering and
technology at Future University in Egypt as an instructor in Mechatronics Engineering
Department. He obtained M.Sc. in system automation and engineering management (2012 to
2016) from, Helwan University, Cairo, Egypt. Mohamed was visiting staff at University of
Central Lancashire, Preston, UK. His research activity includes studying Artificial Intelligent
techniques, electrical machines speed control and robot control.

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