3D model for human glia conversion into subtype-specific neurons, including dopamine neurons
Year: 2024
Type: article
Abstract: Two-dimensional neuronal cultures have a limited ability to recapitulate the in vivo environment of the brain. Here, we introduce a three-dimensional in vitro model for human glia-to-neuron conversion, surpassing the spatial and temporal constrains of two-dimensional cultures. Focused on direct conversion to induced dopamine neurons (iDANs) relevant to Parkinson disease, the model generates functionally mature iDANs in 2 weeks and allows long-term survival. As proof of concept, we use single-nucleus RNA sequencing and molecular lineage tracing during iDAN generation and find that all glial subtypes generate neurons and that conversion relies on the coordinated expression of three neural conversion factors. We also show the formation of mature and functional iDANs over time. The model facilitates molecular investigations of the conversion process to enhance understanding of conversion outcomes and offers a system for in vitro reprogramming studies aimed at advancing alternative therapeutic strategies in the diseased brain.
Source: Cell Reports Methods
Institution: Lund University
Language: English
Subfield: Molecular Biology
Domain: Life Sciences
Open Access status: gold
Estimated APC paid: $5,200
Awards: Patient-specific treatment for Parkinson's disease using reprogrammed skin cells, Stem cell-based treatments for Parkinson’s disease: Novel concepts and future therapies, CIRCUITRY REPAIR IN PARKINSON’S DISEASE: FROM STEM CELL REPLACEMENT TO AXONAL TARGETING USING STEM CELL MODELS, G6299720315, G712881263, A self-healing brain for neurological disorders - turning glia cells into interneurons
OpenAlex ID: W4402223536
