Analysis of embryonic mouse diaphragm reveals muscle and nerve left–right asymmetries set by a Nodal-dependent genetic cascade, which imprints different molecular signatures to left and right motoneurons that shape their innervation pattern.

The actomyosin cytoskeleton generates active chiral torques that lead to left-right asymmetry in C. elegans embryos.

Left-right asymmetric rotation of the Drosophila hindgut is driven by "cell sliding," a novel cellular behavior induced by chiral cell deformation, in which cells change their position relative to subjacent neighbors as sliding directionally.

In addition to the well-established involvement of descending neural tracts, the left-right side-specific endocrine mechanism may contribute to signaling from injured brain to spinal motor circuits.

Zebrafish have a physiological time-window of 1 hr for breaking left-right symmetry and are highly sensitive to the left-right organizer anterior fluid mechanics rather than to the nature of its fluid content.

Transcription factors downstream of Hippo signaling control formation of the Left-Right Organizer by regulating major signaling pathways, expression of transcription factors and regulators of epigenetic programming involved in this process.

A discovery of two previously unknown, molecularly distinct fields of cardiac progenitors in zebrafish provides evidence for cardiac laterality prior to the emergence of cardiac septation and allows novel insights into cardiac development and disease.

The sox1a gene is required for a small group on neurons on the left side of the brain to influence the generation and left-sided character of their future synaptic partners.

High-resolution electrode recordings reveal left-right asymmetry in hippocampal gamma waves.

Serial-section EM analysis uncovers the CNS connectome of a Ciona larva, the second of any entire nervous system, and exposes left-right asymmetries in its synaptic circuits.