Self-organizing tissues resembling brain structures generated from human stem cells offer exciting possibilities to study human brain development, disease, and evolution. These 3D models are complex and can contain cells at various stages of differentiation from different brain regions. Single-cell genomic methods provide powerful approaches to explore cell composition, differentiation trajectories, and genetic perturbations in brain organoid systems. However, it remains a major challenge to understand the heterogeneity observed within and between individual organoids. Here, we develop a set of computational tools (VoxHunt) to assess brain organoid patterning, developmental state, and cell identity through comparisons to spatial and single-...
Recent advances in brain organoid technology are exciting new ways, which have the potential to chan...
The human cortex is comprised of diverse cell types that emerge from an initially uniform neuroepith...
Data underlying the figures in the publication “Resolving organoid brain region identities by mappin...
During the last years, important progress has been made in modeling early brain development using 3-...
Self-organizing cerebral organoids grown from pluripotent stem cells combined with single-cell genom...
Human brain organoid systems offer unprecedented opportunities to investigate both neurodevelopmenta...
The human brain has undergone substantial change since humans diverged from chimpanzees and the othe...
The dataset includes the RNA sequencing data generated for the study entitled "Murine cerebral organ...
Diverse regions develop within cerebral organoids generated from human induced pluripotent stem cell...
Cerebral organoids-3D cultures of human cerebral tissue derived from pluripotent stem cells-have eme...
Cortical organoids are self-organizing three-dimensional cultures that model features of the develop...
Open data of the publication “Resolving organoid brain region identities by mapping single-cell geno...
Three-dimensional (3D) tissues grown in culture from human stem cells offer the incredible opportuni...
Three-dimensional (3D) tissues grown in culture from human stem cells offer the incredible opportuni...
Induced pluripotent stem cell (iPSC)-derived organoids provide models to study human organ developme...
Recent advances in brain organoid technology are exciting new ways, which have the potential to chan...
The human cortex is comprised of diverse cell types that emerge from an initially uniform neuroepith...
Data underlying the figures in the publication “Resolving organoid brain region identities by mappin...
During the last years, important progress has been made in modeling early brain development using 3-...
Self-organizing cerebral organoids grown from pluripotent stem cells combined with single-cell genom...
Human brain organoid systems offer unprecedented opportunities to investigate both neurodevelopmenta...
The human brain has undergone substantial change since humans diverged from chimpanzees and the othe...
The dataset includes the RNA sequencing data generated for the study entitled "Murine cerebral organ...
Diverse regions develop within cerebral organoids generated from human induced pluripotent stem cell...
Cerebral organoids-3D cultures of human cerebral tissue derived from pluripotent stem cells-have eme...
Cortical organoids are self-organizing three-dimensional cultures that model features of the develop...
Open data of the publication “Resolving organoid brain region identities by mapping single-cell geno...
Three-dimensional (3D) tissues grown in culture from human stem cells offer the incredible opportuni...
Three-dimensional (3D) tissues grown in culture from human stem cells offer the incredible opportuni...
Induced pluripotent stem cell (iPSC)-derived organoids provide models to study human organ developme...
Recent advances in brain organoid technology are exciting new ways, which have the potential to chan...
The human cortex is comprised of diverse cell types that emerge from an initially uniform neuroepith...
Data underlying the figures in the publication “Resolving organoid brain region identities by mappin...