Cascaded PID temperature controller for FOPDT model of shell-and-tube heat exchanger based on Matlab/Simulink

Tridianto, Erik; Ariwibowo, Teguh Hady; Almasa, Singgih Karunia; Prasetya, Hendrik Elvian Gayuh

doi:10.1109/elecsym.2017.8240400

Cited by 11 publications

(6 citation statements)

References 5 publications

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“…Kendali tersebut sudah diterapkan pada pesawat quadcopter sebagai pengendalian arah dan sudut agar memperoleh stabilitas sistem ketika mengudara yang menggunakan kendali kaskade PID [12]. Selain pada sistem pesawat, kendali tersebut dapat diimplementasikan dalam sistem lain seperti untuk mengatur suhu pada heat exchanger [13]. Kendali double loop pada konverter DC-DC digunakan untuk mengendalikan besarnya arus induktor dan tegangan keluaran agar mengikuti referensi yang diberikan [14]- [16].…”

Section: Pendahuluanunclassified

Kendali arus dan tegangan pada konverter DC-DC boost dengan metode kaskade proportional integral derivative

Muhammad Ilman,

Septian Putra

2023

JITEL

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Kendali diperlukan untuk konverter DC-DC pada implementasi di berbagai bidang ketenagalistrikan dan industri. Penelitian ini mengusulkan kendali arus dan tegangan untuk konverter jenis boost berbasis kaskade proportional integral derivative (PID). Tahap pertama dimulai dengan memodelkan dynamic dan steady state dari konverter hingga menentukan fungsi alih sistem dan pengendalian. Kendali kaskade PID dirancang dengan metode Zigler Nichols II. Metode ini dipakai dengan mengimplementasikan nilai gain K pada konverter untuk melihat osilasi sinyal keluaran untuk memperoleh parameter kendali PID (Kp, Ki dan Ti), lalu parameter hasil tuning kemudian dioptimasi kembali untuk mendapatkan kinerja sistem kendali yang lebih baik. Hasil simulasi menunjukkan kendali tegangan keluaran dapat menyesuaikan dengan tegangan setpoint dengan skenario tegangan sumber yang berubah. Kendali arus dapat menjajaki arus referensi dengan skenario beban yang berubah dan tegangan keluaran dapat menjejaki nilai setpoint yang berubah. Hasil respon kendali tegangan keluaran dan arus yaitu rise time dan settling time di bawah 0,5 detik, kurang dari 5%, dan steady state error 5% untuk kendali tegangan.

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Section: Pendahuluanunclassified

Kendali arus dan tegangan pada konverter DC-DC boost dengan metode kaskade proportional integral derivative

Muhammad Ilman,

Septian Putra

2023

JITEL

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“…The temperature of the tube outlet is controlled by adjusting the flow rate of the shell inlet. The controller sends a command to the shell inlet pump, which regulates the flow rate depending on the tube outlet temperature (Padhee et al, 2011;Tridianto et al, 2017). Generally it was rather difficult to obtain an accurate model with the present method (Reddy et al, 2020).…”

Section: Heat Exchanger Modelmentioning

confidence: 99%

“…Hamid et al used a PID controller to control the temperature of the refrigerator (Hamid et al, 2009). Tridianto et al carried out their study with a cascaded PID controller in the control of Shell and tube heat exchanger system (Tridianto et al, 2017). Subsequently they performed the Heat Exchanger control with PID in their study and examined its dynamic effects (Tridianto et al, 2017).…”

Section: Introductionmentioning

confidence: 99%

“…Tridianto et al carried out their study with a cascaded PID controller in the control of Shell and tube heat exchanger system (Tridianto et al, 2017). Subsequently they performed the Heat Exchanger control with PID in their study and examined its dynamic effects (Tridianto et al, 2017). Khare et al carried out the design of PID and Internal Mode Control under the control of the heat exchanger and compared their results (Khare et al, 2010).…”

Section: Introductionmentioning

confidence: 99%

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Fuzzy Logic PID Design using Genetic Algorithm under Overshoot Constrained Conditions for Heat Exchanger Control

Çimen¹,

Garip

EMEKLİ³

et al. 2022

Iğdır Üniversitesi Fen Bilimleri Enstitüsü Dergisi

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In this study, a controller design was carried out for the heat exchanger, which is widely used in the industry. Firstly, Zeigler Nichols step, Zeigler Nichols frequency, AMIGO step and AMIGO frequency methods were used for the PID controller in the control of this system. Then, using the mathematical model of the heat exchanger system, 2%, 5% and 10% overshoot constraints were added to the ISE performance criteria, and controller designs were realized with genetic algorithm. In addition, two different topologies were used for the fuzzy PID controller in the controller design. The results obtained were examined and it was seen that the design realized with fuzzy logic for this study could be improved more. However, topologies designed with fuzzy logic have obtained better results than classical PID controllers and the classical PID designed study in the literature.

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“…The authors in [18] have done the paper entitled "Cascade PID temperature controller for FOPDT model of shell and tube heat exchanger based on Matlab/Simulink". They targeted PID controller tuned using Ziegler Nichols method, and results large over shoot of 36.54 %, and rise time of 121.5 second.…”

Section: Literature Reviewmentioning

confidence: 99%

PID Temperature Controller Design for Shell and Tube Heat Exchanger

Olana¹,

Abose²

2021

IJEM

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Heat exchangers are one of the most important thermal devices. Shell and tube heat exchangers are the common types of heat exchangers and sustained a wide range of operating temperature and pressure. Modeling and controlling heat exchanger system is a difficult assignment because of its nonlinearity. As the flow rates changes, the gain, time delay and time constant varies, hence causing system nonlinearity. The solution for such problems is finding acceptable mathematical model and design a controller which provides better performance indices. In this paper mathematical model (experimental or empirical based) to represent the real system and design suitable controller which remove the offset and settle fast with minimum steady state error has been proposed. To this end, system model design the Proportional-Integral-Derivative controller for shell and tube heat exchanger using Ziegler Nichols method, Cohen-coon method and Chein et al. method. Since two opposing dynamic effects are existing in the system and has a problem of dynamics of inverse response and large overshoot. Therefore, Chein et al. tuning method have better performance than that of the others. In case of Chein et al. the overshoot of 2.577 % and settling time of 63.1 s.

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Cascaded PID temperature controller for FOPDT model of shell-and-tube heat exchanger based on Matlab/Simulink

Cited by 11 publications

References 5 publications

Kendali arus dan tegangan pada konverter DC-DC boost dengan metode kaskade proportional integral derivative

Kendali arus dan tegangan pada konverter DC-DC boost dengan metode kaskade proportional integral derivative

Fuzzy Logic PID Design using Genetic Algorithm under Overshoot Constrained Conditions for Heat Exchanger Control

PID Temperature Controller Design for Shell and Tube Heat Exchanger

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