Finite-Set Model Predictive Control for 17-Level Inverter with Reduced Number of Iterations in Photovoltaic Applications

  • Mohamed Abdelrahem*
  • , Ibrahim Harbi
  • , Mostafa Ahmed
  • , M. Saad Bin Arif
  • , Ralph Kennel
  • , Jose Rodriguez
  • *Autor correspondiente de este trabajo

Producción científica: Capítulo del libro/informe/acta de congresoContribución a la conferenciarevisión exhaustiva

1 Cita (Scopus)

Resumen

Finite-set model predictive control (FS-MPC) algorithms provide excellent dynamic performance for the power electronics converters with the ability to easily include any non-linearities and constraints. However, the high number of iterations required for prediction and cost function evaluation, especially for multi-level converters, hampers the implementation of the FS-MPC techniques. In this paper, firstly, the deadbeat concept is utilized to directly obtain the reference voltage vector. Accordingly, the iterations required for prediction are eliminated. Secondly, the number of iterations for cost function evaluation is also reduced by selecting a certain number of voltage vectors based on the value of the reference voltage vector. Finally, experimental results using hardware in the loop (HIL) technology are given to validate the proposed FS-MPC technique.

Idioma originalInglés
Título de la publicación alojada2023 IEEE International Conference on Predictive Control of Electrical Drives and Power Electronics, PRECEDE 2023
EditorialInstitute of Electrical and Electronics Engineers Inc.
ISBN (versión digital)9798350396867
ISBN (versión impresa)9798350396867
DOI
EstadoPublicada - 2023
Evento2023 IEEE International Conference on Predictive Control of Electrical Drives and Power Electronics, PRECEDE 2023 - Wuhan, China
Duración: 20232023

Serie de la publicación

Nombre2023 IEEE International Conference on Predictive Control of Electrical Drives and Power Electronics, PRECEDE 2023

Conferencia

Conferencia2023 IEEE International Conference on Predictive Control of Electrical Drives and Power Electronics, PRECEDE 2023
País/TerritorioChina
CiudadWuhan
Período16/06/2319/06/23

Nota bibliográfica

Publisher Copyright:
© 2023 IEEE.

Áreas temáticas de ASJC Scopus

  • Control y optimización
  • Modelización y simulación
  • Ingeniería energética y tecnologías de la energía
  • Ingeniería eléctrica y electrónica
  • Ingeniería mecánica
  • Seguridad, riesgos, fiabilidad y calidad

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