Our group is interested in understanding human brain development in health and
disease. A major challenge in the effort to study the biology and disease of human tissues is
material accessibility. To overcome this obstacle, our group developed new technology by
generating a 3D model system called brain organoids. This model system is derived from
human stem cells and can recapitulate human-specific aspects of brain development. Using
organoids permits us to model disorders which affect the nervous system and consequently
offers the potential to fundamentally change disease research.
In this project, we aim to bring brain organoid technology to the next level by instating
neurological diseases in the lab, to understand them with the ultimate purpose to drive the
generation of novel therapies. We hypothesize that the cross talk between cells of different
brain regions can be studied in our model system making it a valuable tool to investigate the
initial stages of a specific brain disorder before this becomes a recognizable pathology.
To achieve this, we will generate organoids fusing distinct brain regions that are
associated with specific brain circuits in a developmentally representative way. This will allow
us to study neurological interactions between these regions in a petridish, for the first time.
The new organoid model enables us to study disease related aspects of a neurological circuit,
which is particularly targeted by addictive drugs and pharmaceutical compounds.
The proposed project will recreate neurological disease pathology in the lab going far
beyond existing models and establishing an innovative human disease model that can refine
and complement existing research into these neurological disorders.
Research Outputs (6)
publications (6)
Title
Year(s)
DOI / Link
Quantitative profiling of human brain organoid cell diversity across four protocols and multiple cell linesCell Reports