Knowledge-based Autonomous
Systems Laboratory

The mission of the Knowledge-based Autonomous System Laboratory is to increase the availability, reliability and trust in robots by means of self-awareness and adaptation.

We focus on the high-level control of complex autonomous robots performing in the real world, conducting interdisciplinary research on robot control architectures, systems and software engineering, and knowledge representation and symbolic reasoning.

Expertise

  • Autonomous Robots: Developing autonomous robots that exhibit awareness and adaptability in complex and uncertain environments, with a focus on applications such as mobile manipulation in retail, underwater autonomous vehicles, and self-awareness for tool making.

  • Cognitive Architectures: Advancing the field of cognitive robotics by exploring hybrid cognitive architectures inspired by biological awareness and utilizing model-based systems engineering to design and model intelligent control systems for autonomous robots.

  • Knowledge Representation: Innovating in knowledge representation and reasoning methods for autonomous systems, with a particular emphasis on developing novel approaches to address runtime uncertainty.

  • Systems Engineering: Applying model-based systems engineering methods to design and model the architectures of robotic systems, contributing to the development of reliable, trustworthy, and explainable robots.

Objective

  • Collaborative Research: Facilitating initiatives that bring together experts in autonomous robots, cognitive architectures, knowledge representation, and systems engineering to contribute to the collective understanding and advancement of the field.

  • Disruptive Innovation: Driving innovation in robotics by researching self-adaptive systems, motion planning for mobile manipulation, and the development of awareness architectures, ultimately aiming to create groundbreaking solutions with real-world applications.

  • Higher Education: Offering comprehensive courses in knowledge representation and symbolic reasoning, multidisciplinary projects, and electives in artificial intelligence, to prepare students for careers in robotics and autonomous systems at the master's levels.

  • Reliable Solutions: Focusing on methods and technologies to ensure the development of reliable autonomous robots, with an emphasis on addressing uncertainties.

News and Updates

2024

  • January 2024: Ph.D. candidate Corrado Pezzato successfully defended his doctoral dissertation with the title "Exploring Active Inference and Model Predictive Path Integral Control: A Journey from Low-Level Commands to Task and Motion Planning"!

2023

  • September 2324: MSc student Wissam Jabber successfully defended his master's thesis with the title "Failure Recovery with Ontologically Generated Behaviour Trees"!

  • June 2023: MSc student Bas van Vliet successfully defended his master's thesis with the title "Autonomous Underwater Docking: Towards Vertical Docking of an Autonomous Underwater Vehicle to an Unmanned Surface Vehicle in Rough Seas"!

  • March 2023: MSc student Jeroen Zwanepol successfully defended his master's thesis with the title "Architecture and Task Plan Co-Adaptation with Metaplan for Unmanned Underwater Vehicles"!

  • March 2023: MSc student Ke Xu successfully defended her master's thesis with the title "Iris - A Knowledge Graph-Based Chatbot for Explaining Robotic Scenario Information to Human Operators in a Retail Setting"!

  • March 2023: MSc student Stan Zwinkels successfully defended his master thesis with the title "Task-Specific Object Grasps Using Primitive Shapes and Symbolic Reasoning"!

2022

  • July 2022: MSc student Mohammed Mâachou successfully defended his master's thesis with the title "Knowledge-Based Approach for Mobile Manipulation with Active Inference"!

2021

  • August 2021: MSc student Floris van Tilburg successfully defended his master's thesis with the title "Using Retinanet to Determine Local Graspability for a Suction Actuator"!

  • June 2021: Martijn van der Sar successfully defended his master's thesis with the title "Zero-Shot Learning in Pick-and-Place Tasks Using Neuro-Symbolic Concept Learning"!

Talks and Seminars

  • October 2023, TU Eindhoven (Netherlands)

Robotics Seminar - 2 Needs for Autonomous Robots: Systems Engineering and Self-Awareness

  • September 2022, TU Bremen (Germany)

EASE Fall School - Systems Engineering, Self-Adaptation and Robots with a Deep Understanding

• July 2022, University of Alcala de Henares“Introduction to Model-Based Systems Engineering” PhD school, Univ. Alcala de Henares,

Spain, July 2022

Metacontrol: self-adaptive architectures for autonomous robots’ control

• INCOSE Webinar with Prof. Jose Luis Fernandez, online Nov. 2020

“ISE&PPOOA a MBSE Methodology from System to Software Architecture”

• Workshop organized by the TU Delft AgriFood Institute, Delft (online), 2020

• German Rese arch Center for Artificial Intelligence GmbH, Bremen, Germany, March 2019

• Artificial Intelligence Institute, Univ. Bremen, Germany, Feb 2019

• ROS-Industrial Conference, Stuttgart, Germany, 2018

• Workshop “Experimental Robotic Grasping and Manipulation -- Benchmarks, Datasets, and

Competitions” @IROS18, Madrid 2018

• Workshop MORSE 2018 @MODELS18 Conference, Copenhagen, Denmark, 2018

• ROS-Industrial Conference, Stuttgart, Germany, 2017

• International Masterclass Robotics, Delft, The Netherlands, 2017

• ROS-Industrial Conference, Stuttgart, Germany, 2016

• Robot Forum Assembly, Parma, Italy, 2016

• Seminar at Universidad de Zaragoza, Spain, 2015

2019

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