Our collaborators
Clinique Universitaire Saint-Luc
ULB BEAMS
UCL IoNs COSY
NIMA Platform
UCL IoNS CEMO
ULG GIGA CRC In vivo Imaging
ULB BEAMS
The multidisciplinary nature of the BEAMS department enables them to deal with biomedical engineering problems involving microtechnics, mechanics, electromechanics, electrical engineering, electronics, and human organ modeling. The biomedical group in BEAMS has a major interest in developing medical devices in collaboration with medical doctors. BEAMS has close relationships with many medical departments in Europe.
The research axes of BEAMS in the biomedical field are the following:
- Bioelectronics, including neuromodelling, biomedical signal processing, implant design and manufacturing, implantable optoelectronics, medical monitoring devices, and 3D ballistocardiography
- Flexible mechanics, including design of medical devices for therapeutic endoscopy, force feedback system and size measurement device for endoscopic applications, real-time in vivo biosensor, controllable stiffness mechanism for endoscopic and catheter applications
- Biomechanics, including experimental and finite element analysis of human joints, orthopedic implants design, and analysis, mechanical characterization of soft tissues, patient-specific modeling
BEAMS has a strong collaboration with the Refractory Epilepsy and Neuromodulation Lab on various topics related to clinical and preclinical research in the management of refractory epilepsy.

Antoine Nonclercq
Antoine Nonclercq holds a M.Sc. degree in electrical engineering from the Université Libre de Bruxelles, (ULB) a M.Sc. degree in Control and Electrical Engineering from the Universidad Politécnica de Madrid and a Ph.D. in Applied Sciences from the ULB. He previously worked as a researcher at the Implanted Devices Group – University College London, United Kingdom and as a development engineer in a medtech company. He is now associate professor at Polytechnic school of Brussels (ULB). His research interests include active implantable devices, electrostimulation, physiological modeling and biomedical signal monitoring and processing

Marie Dawant
Marie Dawant earned her Master’s degree in Engineering, specializing in Biomechanics and Instrumentation, from the Université libre de Bruxelles (École Polytechnique de Bruxelles) in 2021. During her studies, she undertook an internship at Synergia Medical in 2020. In 2022, Marie began her PhD at the Université libre de Bruxelles, collaborating with the Epilepsy and Neuromodulation Lab. Her research focuses on collecting and analyzing P300 evoked potentials in patients with refractory epilepsy to identify potential biomarkers that could predict the effectiveness of Vagus Nerve Stimulation therapy.
UCL IoNS CEMO
The Cellular and Molecular Neuroscience Division (CEMO) at the Institute of Neuroscience consists of nine research groups studying nervous system development, physiology, and pathology using cellular and molecular biology, imaging, and electrophysiology. Their work focuses on neural differentiation, axon guidance, synaptogenesis, and neural activity disruptions in conditions like chronic pain and neurodegeneration. The goal is to improve diagnosis and treatment of neurodevelopmental and neurodegenerative diseases, such as Alzheimer’s, Parkinson’s, multiple sclerosis, and neuromuscular disorders like Duchenne muscular dystrophy and ALS

Emmanuel Hermans
Prof. Hermans, a permanent affiliate of the FNRS since 1998 (Research Director in 2009), is the head of Neuropharmacology (CEMO, IoNS).
The research group of Prof. Emmanuel Hermans (IONS/CEMO) has a long-standing expertise in the use of animal models to study the neuroinflammation and plastic changes of the central nervous system induced by neurotrauma, and its involvement in the development of neuropathic pain. His laboratory has experience in the production of animal models of neuropathic pain, the techniques used to study the pain behaviour of these animals, and the immune-histological techniques to characterize the glial activation and changes in nociceptive pathways at peripheral, spinal and supra-spinal level.
✉️ emmanuel.hermans@uclouvain.be
☎️ +32 2 764 54 10
NIMA Platform
The NIMA platform provides comprehensive technical and scientific expertise to support human neuroscience studies using magnetic resonance imaging (MRI). It offers methodological, statistical, and technical assistance at every stage of research, coordinates MRI use for neuroscience researchers, and provides user training and certification for independent MRI acquisitions in collaboration with Saint-Luc University Hospital. NIMA also ensures up-to-date knowledge of methodological and technological advances, maintains cutting-edge MRI research equipment, and oversees an effective MRI data management system.

Laurence Dricot
SSS/IONS — Institute Of NeuroScience (IONS)
SSS/IONS/NEUR — Clinical Neuroscience
Responsable opérationnel·le (NIMA)
UCL IoNS COSY
The Systems and Cognitive Neuroscience division (COSY) at the Institute focuses on understanding the neural mechanisms behind human perception, cognition, and motor functions. With over 26 senior scientists and 80 researchers, COSY explores topics like numerical and social cognition, motor control, sensory plasticity, language, pain perception, and visual processing. The research uses various methods, including fMRI, EEG, TMS, eye-tracking, and neuropsychological studies of patients with nervous system lesions, often in collaboration with national and international partners.

André Mouraux
Using non-invasive functional neuroimaging techniques such as electroencephalography (EEG) and functional magnetic resonance imaging (fMRI), combined with novel techniques to selectively activate specific classes of nociceptive afferents, the research performed by the team of André Mouraux (IONS/COSY) follows two main axes. First, to understand how the human brain processes nociceptive sensory input and how this leads to the perception of pain. Second, to understand the plastic changes in nociceptive pathways that occur after inflammation, injury or sustained nociceptive input that induce peripheral and central sensitization and may underlie the development of chronic pain in humans.
☎️ +32-2-764-54-47

Giulia Liberati
The main objective of my research is to characterize how transient and sustained pain are represented in the human brain, taking advantage of the high temporal and spatial resolution of intracerebral electroencephalography (iEEG). I am particularly interested in investigating the role of the human insula in nociception and pain perception, as several findings suggest that this brain region plays a crucial role in the integration of sensory, affective, and cognitive dimensions of pain.
☎️ +32-2-764-54-47
ULG GIGA CRC In vivo Imaging
Research at GIGA – CRC (Cyclotron Research Center) Human Imaging spans a wide range of in vivo imaging techniques, from radiopharmaceutical production to advanced methods like MRI, PET, and electrophysiology. Animal model studies focus on brain function, cancer, cardiology, and therapeutic development. In humans, the research explores biological mechanisms underlying sleep, mood, addiction, cognitive functions (memory, attention, executive processes), movement, consciousness, and related disorders such as dementia, Parkinson’s disease, epilepsy, and altered states of consciousness.

Gilles Vandewalle
Gilles Vandewalle is a researcher specializing in the brain mechanisms that regulate sleep and wakefulness in humans, with a focus on their impact on cognition and health. His work utilizes techniques like electrophysiology, neuroimaging (TMS-EEG, PET, MRI, and ultra-high-field 7 Tesla MRI), and neuropsychological testing to explore topics such as the non-visual effects of light on brain function, emotion processing, and sleep disorders. He also investigates how sleep regulation changes with aging and its links to Alzheimer’s disease. Since 2022, he has co-directed the GIGA-CRC In Vivo Imaging center.
☎️ +32 4 3662367