Proper vertebrae formation relies on a tissue-wide oscillator called the segmentation clock.
Individual cellular oscillators in the presomitic mesoderm are modulated by intercellular …

The segmentation clock is an oscillating genetic network thought to govern the rhythmic and
sequential subdivision of the elongating body axis of the vertebrate embryo into somites: the …

Rhythmic and sequential subdivision of the elongating vertebrate embryonic body axis into
morphological somites is controlled by an oscillating multicellular genetic network termed …

Rhythmic and sequential segmentation of the growing vertebrate body relies on the
segmentation clock, a multi-cellular oscillating genetic network. The clock is visible as tissue …

Periodic segmentation of vertebrate embryos or somitogenesis is regulated by a dynamic
network of signalling pathways. Signalling gradients determine the spacing of the forming …

Segmental organization of the vertebrate body plan is established by the segmentation
clock, a molecular oscillator that controls the periodicity of somite formation. Given the …

The rhythmic and sequential segmentation of the vertebrate body axis into somites during
embryogenesis is governed by a multicellular, oscillatory patterning system called the …

Segmentation is a characteristic feature of the vertebrate body plan. The prevailing
paradigm explaining its origin is the 'clock and wave-front'model, which assumes that the …

A striking example of coupling between growth and form occurs during the segmentation of
the vertebrate embryo. During segmentation, pairs of segments, one on either side of the …

During vertebrate somitogenesis an inherent segmentation clock coordinates the
spatiotemporal signaling to generate segmented structures that pattern the body axis. Using …