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On Friday, January 31, 2025, Maastricht University awarded an honorary doctorate to Prof. Katrin Amunts in recognition of her outstanding and inspiring scientific achievements. The world-renowned neuroscientist received the certificate in a ceremony with Rector Prof. Pamela Habibović in the Sint-Janskerk. Every year, the university commemorates its foundation in 1976 with the ceremonial “Dies Natalis”.

FZJ Press Release

_{Image: (left to right) Prof. Alard Roebroeck, Rektorin Prof. Pamela Habibović, Prof. Katrin Amunts and Prof. Rainer Goebel. Universität Maastricht/ Philip Driessen}

On September 30th, the Human Brain Project (HBP) formally completes its 10-year runtime as an EU-funded FET Flagship. The project has pioneered digital neuroscience, a new approach to studying the brain based on multidisciplinary collaborations and high-performance computing. The HBP will continue to have an impact on neuroscience for many years through the EBRAINS research infrastructure and a new way of collaborative work in the field.

The EU-funded Human Brain Project (HBP) comes to an end in September and celebrates its successful conclusion today with a scientific symposium at Forschungszentrum Jülich (FZJ). The HBP was one of the first flagship projects and, with 155 cooperating institutions from 19 countries and a total budget of 607 million euros, one of the largest research projects in Europe. Forschungszentrum Jülich, with its world-leading brain research institute and the Jülich Supercomputing Centre, played an important role in the ten-year project.

Julich Brain Atlas researchers in collaboration with teams from the UK, the US and France have made advances on our understanding of the distribution of neurotransmitter receptors across the brain.

To understand how our brain works, there is no getting around investigating how different brain regions are connected with each other by nerve fibres. In the most recent issue of Science, researchers of the Human Brain Project (HBP) review the current state of the field, provide insights on how the brain’s connectome is structured on different spatial scales – from the molecular and cellular to the macro level – and evaluate existing methods and future requirements for understanding the connectome’s complex organisation.