Diseño de una estrategia de control para robots móviles utilizando técnicas de álgebra lineal (LABC) y estimación neuronal en el seguimiento de trayectorias
Enviado: 04-04-2024
|Aceptado: 13-11-2024
|Publicado: 04-12-2024
Derechos de autor 2024 Carlos Vacca, Eduardo G. Scaglia, Fernando C. Ulloa-Vasquez, Francisco G. Rossomando

Esta obra está bajo una licencia internacional Creative Commons Atribución-NoComercial-CompartirIgual 4.0.
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Palabras clave:
Álgebra Lineal, Control Neuronal, Control No Lineal, Identificación,, Robots Móviles
Agencias de apoyo:
Resumen:
Los incovenientes planteados por el seguimiento de trayectorias usando robots móviles es un tema vigente en la teoría de control, en esta propuesta se presenta el diseño de un controlador de álgebra lineal en combinación con un estimador neuronal. Donde además el robot móvil cuenta con incertidumbres aditívas. Los valores de incertidumbre en cada momento de muestreo se obtienen mediante estimación basada en Redes Neuronales, donde se incluye el diseño de un estimador neuronal del error de modelado junto con la demostración de la convergencia a cero del error de seguimiento. La técnica de control propuesta se valida mediante simulación y resultados experimentales. El controlador de Ágebra Lineal y el estimador neuronal demuestran que se puede utilizar para reducir el efecto de las incertidumbres aditivas en el error de control de seguimiento.
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