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Development of Modern Control Strategies for Multivariable Processes Using a Multiobjective Optimization Approach and Bioinspired Algorithms (DEC-MOBA)

  • Huilcapi Subia, Victor Manuel (PI)
  • Mora Saltos, Nelson Salomon (Col)
  • Diaz Solis, Genaro Eliceo (Col)
  • Ghia Pogo, Elias Ariel (Student)
  • Rivera Duarte, Christopher Josue (Student)
  • Salazar Parraga, Priscilla Elizabeth (Student)
  • Franco Reina, Rafael Christian (Col)
  • Miranda Delgado, Livington Alfredo (Col)
  • Garcia Flor, Geovanny Xavier (Col)
  • Soto Noboa, Brian Rolando (Student)
  • Balon Balon, Ronald Joel (Student)
  • Cabezas Rosero, Shirley Abigail (Student)
  • Benavides Ponce, Dennis Fernando (Student)
  • Baque Catagua, Gustavo Adrian (Student)
  • Bocanedes Calle, Jordan Elian (Student)
  • Sanchez Salinas, Erick Ariel (Student)
  • Lucas Pacheco, Kevin Humberto (Student)
  • Villalta Chiquito, Anthony Josue (Student)
  • Peñafiel Garzon, Jeremy Ricardo (Student)
  • Sanchez Rodriguez, Javier Sebastian (Student)
  • Santamaria Lopez, Alfredo Santiago (Student)
  • Olivo Muñoz, Pamela Maribel (Student)
  • Chauca Arevalo, Mario Vladimir (Student)
  • Totoy Guilca, Wellington Ivan (Student)
  • Velez Rodriguez, David Moises (Student)
  • Burbano Cruz, Moises Paul (Student)
  • Auqui Fajardo, Carlos Hernan (Student)
  • Farez Chasi, Cristhian Oswaldo (Student)
  • Cayambe Gamarra, Frank Anthony (Student)
  • Gomez Bejarano, Oswaldo Leandro (Student)
  • Santana Vera, Ronny Antonio (Student)
  • Gonzalez Arreaga, Luis Xavier (Student)
  • Carpio Villamar, Dominy Steeven (Student)
  • Sanchez Gomez, Robert Michael (Student)
  • Arias Pucha, Kevin Josue (Student)

Project Details

Description

The DEC-MOBA project addresses the inherent complexity of controlling multivariable processes, where interactions between variables hinder the application of classical strategies. Given the ambiguities of traditional methods like the Relative Gain Array (RGA), this research proposes the use of multi-objective evolutionary algorithms (MOEA) and bio-inspired techniques to optimize the selection and tuning of control loops. The methodology includes a literature review, mathematical modeling of processes, and experimental implementation on laboratory prototypes at the Universidad Politécnica Salesiana (UPS). Multidimensional visualization tools are used to analyze data and ensure more precise technical decision-making. The expected impact focuses on technological innovation, providing a robust solution for non-linear and highly complex systems. Furthermore, the project strengthens the institution's research capacity, promoting student training and the generation of indexed scientific products, while contributing to energy efficiency through more precise process control.<br/><br/><b>Goal</b>: <br/>Develop modern control strategies for multivariable processes using a multi-objective optimization approach and bio-inspired algorithms. The project aims to overcome the limitations of traditional methodologies in complex systems.<br/><br/><b>Research lines</b>: <br/>Control engineering and automation technologies<br/>Artificial intelligence and machine learning
StatusFinished
Effective start/end date12/12/2327/02/25

UN Sustainable Development Goals

In 2015, UN member states agreed to 17 global Sustainable Development Goals (SDGs) to end poverty, protect the planet and ensure prosperity for all. This project contributes towards the following SDG(s):

  1. SDG 7 - Affordable and Clean Energy
    SDG 7 Affordable and Clean Energy

Keywords

  • Multivariable control
  • Multi-objective optimization
  • Bio-inspired algorithms
  • Evolutionary algorithms
  • Industrial automation
  • Artificial intelligence
  • Non-linear systems

CACES Knowledge Areas

  • 727A Industrial and process design
  • 417A Electronics, Automation and Sound
  • 116A Computer Science

Categorías UNESCO

  • Electronics and automation
  • Software and application development and analysis

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