A robust and gain-free direct model predictive control for nine-level t-type converter

Title A robust and gain-free direct model predictive control for nine-level t-type converter
Author Abdelrahem, M., Kouzou, A., Kennel, R., Rodriguez, J., Ahmed, M., Makhamreh, Hamza, Harbi, I.
Publication Date: 2025-06
Publication Place - IEEE
Subject Predictive control, Multilevel inverter (MLI), Gain-free, Flying capacitor (FC) balance, Current tracking, Hybrid power systems, Industrial electronics, Mathematical models, Regulation, Switching frequency, Inverters, Predictive control, Tuning, Cost function, Topology
Type Periodical
Language English
Digital Yes
Manuscript No
Library: Özyeğin University
Library Asset ID 0278-0046
Record ID e479a151-25c8-45fd-a3c5-3d61d0f75d24
Library Location Electrical & Electronics Engineering
Date 2025-06
Notes Deutscher Akademischer Austauschdienst ; German Academic Exchange Service ; Technische Universität München ; Agencia Nacional de Investigación y Desarrollo ; Agencia Nacional de Investigación y Desarrollo
Sample Text Model predictive control (MPC) is a powerful strategy for tackling multiobjective control challenges, but it often involves a laborious process of tuning weighting factors. This article proposes a gain-free MPC method for a recently developed nine-level T-type converter (9L-T-2C), which offers advantages over traditional topologies, such as fewer components and improved efficiency. Drawing inspiration from Lyapunov's theory, this method avoids the use of weighting factors while effectively handling three targets, including current tracking, balancing of flying capacitors (FCs), and regulation of the neutral point (NP). Comparable with the traditional finite-control-set MPC (FCS-MPC), the proposed controller demonstrates high performance concerning all objectives. Additionally, it showcases superior resilience against model uncertainties when compared with the traditional approach. Experimental validation of the proposed MPC method is conducted in grid-connected operation under several conditions. The proposed method is subjected to a comparative analysis via the experimental implementation, where it is compared with a proportional-resonant (PR) controller and other state-of-the- art MPC methods. This analysis reveals the advantages of the proposed method, including eliminating the need for gains or weighting factors, improved robustness, and effective control of the FCs.
DOI 10.1109/TIE.2024.3485627
Cilt 72
View in source Özyeğin University Özyeğin University - Ottoman library catalog search
Özyeğin University - Ottoman library catalog search Özyeğin University

A robust and gain-free direct model predictive control for nine-level t-type converter

Author Abdelrahem, M., Kouzou, A., Kennel, R., Rodriguez, J., Ahmed, M., Makhamreh, Hamza, Harbi, I.
Publication Date 2025-06
Publication Place - IEEE
Subject Predictive control, Multilevel inverter (MLI), Gain-free, Flying capacitor (FC) balance, Current tracking, Hybrid power systems, Industrial electronics, Mathematical models, Regulation, Switching frequency, Inverters, Predictive control, Tuning, Cost function, Topology
Type Periodical
Language English
Digital Yes
Manuscript No
Library Özyeğin University
Library Asset ID 0278-0046
Record ID e479a151-25c8-45fd-a3c5-3d61d0f75d24
Library Location Electrical & Electronics Engineering
Date 2025-06
Notes Deutscher Akademischer Austauschdienst ; German Academic Exchange Service ; Technische Universität München ; Agencia Nacional de Investigación y Desarrollo ; Agencia Nacional de Investigación y Desarrollo
Sample Text Model predictive control (MPC) is a powerful strategy for tackling multiobjective control challenges, but it often involves a laborious process of tuning weighting factors. This article proposes a gain-free MPC method for a recently developed nine-level T-type converter (9L-T-2C), which offers advantages over traditional topologies, such as fewer components and improved efficiency. Drawing inspiration from Lyapunov's theory, this method avoids the use of weighting factors while effectively handling three targets, including current tracking, balancing of flying capacitors (FCs), and regulation of the neutral point (NP). Comparable with the traditional finite-control-set MPC (FCS-MPC), the proposed controller demonstrates high performance concerning all objectives. Additionally, it showcases superior resilience against model uncertainties when compared with the traditional approach. Experimental validation of the proposed MPC method is conducted in grid-connected operation under several conditions. The proposed method is subjected to a comparative analysis via the experimental implementation, where it is compared with a proportional-resonant (PR) controller and other state-of-the- art MPC methods. This analysis reveals the advantages of the proposed method, including eliminating the need for gains or weighting factors, improved robustness, and effective control of the FCs.
DOI 10.1109/TIE.2024.3485627
Cilt 72
Özyeğin University - Ottoman library catalog search
Özyeğin University You are being redirected...

Please wait