High mobility and nuclear translocation of the PKA catalytic subunit, PKAcat, relays signals induced by endosomal cAMP generated through endocytosis and signaling from the G-protein-coupled receptor β2-adrenergic receptor.

Plants utilize naturally produced ROS in shoot apical stem cells as a developmental signal to trigger phase separation of TMF. The resulting transcriptional condensates repress expression of the floral identity gene to precisely time flowering.

High-performance engineered myosins robustly change speed or direction in response to an optical signal. In living cells, these motors localize to the tips of protrusions when illuminated and deliver molecular cargos.

Genomics and metabolomics are widely used to explore specialized metabolite diversity. The Paired Omics Data Platform is a community initiative to systematically document links between metabolome and (meta)genome data, aiding identification of natural product biosynthetic origins and metabolite structures.

High mobility and nuclear translocation of the PKA catalytic subunit, PKAcat, relays signals induced by endosomal cAMP generated through endocytosis and signaling from the G-protein-coupled receptor β2-adrenergic receptor.

Combined use of a DNA-barcoded nucleosome library and a humanized yeast library allows the identification of histone globular domain mutations that affect histone exchange and nucleosome sliding processes, as well as cancer-associated gene pathways.

Plants utilize naturally produced ROS in shoot apical stem cells as a developmental signal to trigger phase separation of TMF. The resulting transcriptional condensates repress expression of the floral identity gene to precisely time flowering.

High-throughput biochemical and biological analyses of disease-associated histone mutations reveal key residues in globular cores that affect chromatin remodeling, nucleosome stability, and stem cell pluripotency.

Using an interdisciplinary approach, hydrogen-peroxide-induced phase separation in the intrinsically disordered regions of the TERMINATING FLOWER transcription factor proteins was shown to regulate the shoot apical meristem through repression of the floral identity gene called ANANTHA.