Current Partnering Projects
Building a Personalized Virtual Brain with Neurodegenerative Disease to Guide Clinical Decisions.
We create a cloud-based brain simulation platform for neurodegenerative disease.
To study directional interactions between brain areas in healthy controls and in patients with stroke to understand the neural mechanisms of neuropsychological deficits.
Brains on Board
Reverse engineering the honeybee brain to develop efficient AI for robot behaviour.
Understanding how rigid and plastic circuits contribute to hippocampal function and spatial learning and memory.
SciUnit is a validation framework for assessing the agreement between computational models and experimental data.
Our project aims to determine the functional properties of hippocampal and neocortical inhibitory interneuron axons.
HA-Ction will provide experimentally testable hypotheses to guide future research in humans.
Biologically meaningful simulation of early visual data processing in macaque cerebral cortex.
Human Projection Neurons in Health & Disease
European Reference Network for rare and complex epilepsies
Comparative Investigation of the Cortical Circuits in Mouse, Non-human primate and Human
Neural real-time planning for reactive industrial robots
EpiSensor is the epilepsy component of RADAR-CNS a platform and infrastructure for real-time data streaming from wearable devices and smartphone apps, to allow data related to clinical events to be associated with contextual information.
Data and software to reconstruct long-range projection neurons from brain tissue, place them in a digital reference brain with high precision, and model their interactions
Advanced Morphological Reconstruction of Human Brain Tissue by Multimodal Fusion of Multiscale Optical Imaging Technologies
SoundSight uses a cross-species, multi-level approach to study how vision shapes the development of auditory inputs to the occipital cortex.
Scaling ICT based neurorehabilitation to personalized 24/7 home care
Past Partnering Projects
The goal of this project is to integrate Shadow hardware on the HBP Neurobotics Platform to explore the possibilities offered by neuroscience for motor control, especially with spiking neural networks and reinforcement learning.
Shedding light on the multiscale organisation of cortical computation by integrating neuronal and population activities with inter-areal interactions.
Slow Wave Dynamics: from experiments, analysis and models to rhythm restoration.
Ultrafast Functional Ultrasound (fUS) Imaging for Highly -Resolved Targeted Mapping of Functional Connectivity in the Awake Mouse Brain.
Motor Control and Timing in the Cerebellum: Spatio-Temporal Integration in Complex Neuronal Networks.
Interaction between Human Atlas Viewer and The Virtual Brain
Mapping Brain Circuits in Spatial Navigation
Brains on Board: These Insect-Inspired Robots Don't Need GPS For Orientation
MULTI-LATERAL: Brain images refute language domain theory from the 60s