2015
Authors
Azevedo Perdicoúlis, TP; Jank, G; dos Santos, PJL;
Publication
IEEE 9th International Workshop on Multidimensional (nD) Systems, nDS 2015, Vila Real, Portugal, September 7-9, 2015
Abstract
2017
Authors
Azevedo Perdicoúlis, TP; dos Santos, PJL;
Publication
10th International Workshop on Multidimensional (nD) Systems (nDS), nDS 2017, Zielona Góra, Poland, September 13-15, 2017
Abstract
2018
Authors
Azevedo Perdicoúlis, TP; Jank, G; dos Santos, PL;
Publication
Int. J. Control
Abstract
2018
Authors
Perdicoúlis, TPA; Dos Santos, PL;
Publication
13th APCA International Conference on Control and Soft Computing, CONTROLO 2018 - Proceedings
Abstract
This article revisits the inverted pendulum-in particular, analyses a simplified model of a Segway, with a view to exploring its capabilities in Control Systems Engineering education. The integration between the theoretic and practical side is achieved through simulation, and in particular by using MathWorks software. We also present a structure for the work to be done in the Laboratory class and propose a solution for the problem. © 2018 IEEE.
2024
Authors
dos Santos, PL; Perdicoúlis, TPA; Ferreira, BM; Gonçalves, C;
Publication
IFAC PAPERSONLINE
Abstract
This paper advocates for the integration of system identification in graduate-level control system courses using accessible theoretical tools. Emphasising real-world applications, particularly in Remotely Operated Vehicle (ROV), the study proposes ROV as educational platforms for teaching control principles. As a concrete example, the paper presents a graduation course project focusing on designing a depth control system for an ROV, where students derive the model from experimental data. This practical application not only enhances the students skills in system identification but also prepares them for challenges in controlling complex systems in both academic and industrial settings.
2024
Authors
Salgado, P; Perdicoullis, T; Lopes dos Santos, P; Afonso, AFNA;
Publication
CINTI 2024 - IEEE 24th International Symposium on Computational Intelligence and Informatics, Proceedings
Abstract
Knowledge models often use hierarchical structures, which help break down complex data into manageable components. This enables better understanding and aids in reasoning and decision-making. Hierarchical structures are effective in organizing, managing, and processing complex information. Traditional Self-Organizing Maps are typically flat, two-dimensional grids for visualizing and grouping data. They can be shaped into hierarchical structures, offering benefits such as improved data representation, scalability, enhanced grouping and visualization, and hierarchical feature extraction while preserving data topology. This paper introduces a self-organizing hierarchical map with an appropriate topology and a suitable learning mechanism for retaining information in an organized way. In this conceptual model, information is selectively absorbed in each layer. These characteristics make the Hierarchical Self-organising Maps a powerful non-linear classifier. Simulations are conducted to test and evaluate the performance of this neural structure as a classifier. © 2024 IEEE.
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