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Learn how to address the social and environmental challenges facing our society and develop a scientific approach focused on the future and on solving societal issues!

Fostering curiosity about the Earth and the natural world: a key to meeting the challenges of tomorrow.

The discovery of nuclear energy marked a turning point in human history. Today, alongside debates about its role in energy production and its destructive potential, nuclear energy continues to be used in a wide range of fields, such as medical research and cancer therapies. At UNamur, nuclear energy is thus at the heart of the work of biologists, physicists, and art historians.

Geology students at UNamur are encouraged to continue their studies at another university after completing their bachelor’s degree. This transition has been successful, as recently confirmed by two professors from KULeuven who visited the students.

As part of the interdisciplinary course “AI: Challenges and Opportunities,” students at UNamur presented a series of posters focusing on the uses of artificial intelligence in their fields of study. This highlight showcased the diversity of AI applications, as well as the University of Namur’s commitment to training students to use it critically, fairly, and thoughtfully.

In April 2026, UNamur hosted two events as part of the UNIVERSEH alliance, bringing together more than a hundred students from across Europe.

Since the discovery of fire in prehistoric times, humans have been fascinated by matter, its properties, and the changes that occur naturally or as a result of human intervention. Now known as "chemists," specialists in the reactivity of matter continue to pursue the art of experimentation and discovery. The products of their essential knowledge are applied in the fields of nutrition, health, hygiene, transportation, sports, construction, and environmental protection. 

Developed since the dawn of time, mathematics shapes our daily lives and develops tools for the future. At the heart of hard sciences such as physics, chemistry, and biology, mathematics plays a key role in a large number of applied problems, whether in computer science and telecommunications, through discrete mathematics and algorithms, in meteorology and space science, through the theory of dynamic systems, or in finance and actuarial science, through probability and stochastic processes. 

The University of Namur and STÛV, a Namur-based company specializing in wood and pellet heating solutions, are celebrating ten years of fruitful collaboration. This partnership illustrates the importance of synergies between academia and industry to improve competitiveness and meet environmental challenges.

At the University of Namur, a thesis led by Fabian Delhalle, with support from SPW Research as part of the Win4Doc program, is exploring an innovative approach to producing proteins of therapeutic interest. In collaboration with Bio-Sourcing and the Walloon Center for Agricultural Research, this project aims to better understand the mechanisms of lactation in goats in order to optimize biopharmaceutical production that is more accessible, more flexible, and more environmentally friendly.

Information technology plays a significant role in our daily lives. Life without a computer or cell phone seems unimaginable to us. But information technology serves many other fields, such as medicine, management, the environment, agriculture, space, biology… and its role in new sectors is constantly growing. Get ready to shape the future of our society in a young, dynamic, and rapidly expanding field  

JuryProf. Joseph WINKIN (UNamur), ChairProf. Timoteo CARLETTI (UNamur), SecretaryProf. Alexandre MAUROY (UNamur)Prof. Malbor ASLLANI (Florida State University)Dr. Maxime LUCAS (UNamur)Dr. Riccardo MUOLO (RIKEN Institute)AbstractSynchronization is a ubiquitous phenomenon in the world around us. It is a crucial feature that ensures the proper functioning of many complex systems. The various generators in a power grid must produce alternating current at a common frequency, and the brain’s cortical regions synchronize their activities to enable the brain to control the human body. These systems can be modeled as coupled oscillators, as in the famous Kuramoto model, where entities interact in pairs so that they synchronize globally.However, synchronization can also pose a problem. For instance, excessive synchronization of brain dynamics leads to pathological states such as epileptic seizures. It is therefore necessary to develop methods that reduce global synchronization by locally controlling the dynamics of certain oscillators. In particular, a control scheme based on a Hamiltonian framework has been designed to effectively desynchronize the Kuramoto model.Nevertheless, some limitations remain. First, the controlled nodes are selected at random without considering their specific characteristics. Second, this method is designed to control systems with a network structure—that is, with pairwise coupling—whereas many recent studies have demonstrated the importance of higher-order networks, i.e., group interactions, in modeling such systems.In this Ph.D. thesis, we aim to address these gaps through several studies. We explore the optimal method for selecting controlled nodes to maximize control efficiency, investigate the method’s ability to desynchronize systems with higher-order interactions, and develop a new control method tailored to this framework.Our results not only improve these control techniques but also offer novel perspectives on the synchronization of complex systems. They allow us to better understand the influence of each local entity on collective behavior and the role played by interactions of different orders. Among other things, they shed light on the non-monotonic relationship between synchronization capacity and the strength of higher-order interactions.