Primary-cilia-mediated processing of the Gli3 transcription factor enables the formation of subtypes of projection neurons in appropriate numbers during the development of the cerebral cortex.

mTOR signaling regulates the morphology of a human-enriched neural stem cell population and thus contributes to the radial architecture of the developing human cortex with implications for neurodevelopmental disease.

Quantitative analyses associating the morphology of developing organs with dynamic gene expression patterns can reveal biological phenomena that cause malformations and malfunction but remain elusive to traditional qualitative assessments.

Improved 3D and 4D imaging of neurovascular processes across scales reveals new insights into eye disease mouse models and shows retinal vessels are significantly distorted using standard flat-mount confocal imaging.

Analyses with genetically engineered mouse models in combination with biochemical approaches reveal a crucial role of the receptor tyrosine kinase Tie2 mediated signals in venogenesis via an Akt mediated regulation of COUP-TFII protein stabilization.

Quantification of fluorescently labeled mRNAs reveals that Fgf4 regulates Notch oscillations in the segmentation clock that controls somitogenesis.

Loss of function of the selective autophagy adaptor protein Alfy/Wdfy3 leads to profound wiring defects from the forebrain through to the spinal cord, highlighting the growing importance for macroautophagy in the developing brain.

Combined evidence of human genetics, in vitro cardiomyocyte differentiation, and mouse model indicates that SORBS2 is a regulator of second heart field development and its deficiency causes seemingly opposite atrial septal defects.

A mutagenesis screen in budding yeast sheds light on dynein regulation and function, and reveals the molecular basis for disease in patients suffering from neuropathies caused by dynein dysfunction.

DIAPH3 safeguards integrity of microtubule cytoskeleton during division of neural progenitor cells.