A curated resource to study the brain RNA expression patterns of the genes that regulate palmitoylation is presented, alongside a detailed exploration of how these patterns can inform future research.

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.

NF-κB oscillations synchronize to external perturbations as a damped oscillator, producing different transcription dynamics.

Drosophila melanogastereven-skipped enhancers control transcriptional bursting by modulating frequency and amplitude, regardless of varying transcription factor inputs, even when mutated to express in embryonic regions not under selective pressure.

Whole genome duplication in Brassica rapa is accompanied by both expansion of the circadian transcriptome and widespread temporal reconfiguration of gene regulatory networks consistent with subfunctionalization among pairs of paralogs.

An experimental and computational system has been developed to investigate how wavelike gene expression patterns are generated during embryonic development.

Single neuron images of Drosophila driver lines reveal neuron shape and are searchable, enabling comparisons to electron microscopy and prediction of intersectional neuron targeting strategies.

SHH signaling acts through FOXF1/2 transcription factors and antagonizes BMP signaling to specify oral fate and pattern the oral-aboral axis of the mandibular arch to ensure proper formation of jaws.

The development of Drosophila somatosensory neurons is spared under nutrient deficiency so that they grow more dendrites and make animals more sensitive to environmental stimuli.

The protein stability of WDR5, the core component of TrxG complex, is controlled by the ubiquitin ligase RNF220, which involves in the maintenance of Hox patterns in mouse hindbrain.