Synchronous patterning of hiPSC-derived CNS progenitors generates comprehensive axial spinal cord organoids (CASCOs) containing diverse motor neuron population

Advancements in human induced pluripotent stem cell (hiPSC) culture have enabled the generation of spinal cord organoids (SCOs), though achieving distinct axial identities in spinal motor neurons (spMNs) along the rostro-caudal (RC) axis remains a challenge. By optimizing the timing and sequence of patterning factors, we developed a mixed stem cell model of rostral neural stem cells (NSCs) and caudal neuromesodermal progenitors (NMPs) to generate SCOs with enhanced spMN heterogeneity, including a wide range of axial identities and benchmarked this against commonly used protocols. Our approach, termed CASO (Comprehensive Axial Spinal Organoids), also incorporates endothelial networks and skeletal muscle to improve organoid complexity and health, offering a novel method to study spMN axial specification and model neurodegenerative diseases.

Type: Transcriptome Analysis
Archiver: European Genome-Phenome Archive (EGA)

1 Dataset

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Dataset ID	Description	Technology	Samples
EGAD50000001301	Dataset includes scRNA-sequencing data of cells isolated by dissociation of ~20 BJ WT day 20 hiPSC-derived MN embryoid bodies generated in ULA 96w plates following the protocol described in Rodriguez-Muela et al., JCI 2018). Droplet-based scRNA-seq was performed using 10X Genomics scRNA-sequencing was performed using 10X Genomics Chromium Single Cell Kit v3. The resulting sequencing reads were processed as described in Buchner et al 2024. Analysis of the count matrices was performed using the R toolkit for single cell genomics, Seurat v5.1.0, with R v3.3.3 “Angel Food Cake.”	Illumina NovaSeq 6000	1