Periodic patterning requires coordinated cell–cell interactions at the tissue level. Turing
showed, using mathematical modeling, how spatial patterns could arise from the reactions of …

Periodic patterning requires coordinated cell-cell interactions at the tissue level. Turing
showed, using mathematical modeling, how spatial patterns could arise from the reactions of …

Sixty-five years after Turing first revealed the potential of systems with local activation and
long-range inhibition to generate pattern, we have only recently begun to identify the …

Periodic patterning represents a fundamental process in tissue morphogenesis. In chicken
dorsal skin, feather formation starts from the midline; then the morphogenetic wave …

Vertebrate skin appendage early development is mediated by conserved molecular
signaling composing a dynamical reaction-diffusion–like system. Variations to such systems …

Skin patterns are the first example of the existence of Turing patterns in living organisms.
Extensive research on zebrafish, a model organism with stripes on its skin, has revealed the …

During embryonic development many organs and structures require the formation of series
of repeating elements known as periodic patterns. Ranging from the digits of the limb to the …

Patterning of periodic stripes during development requires mechanisms to control both stripe
spacing and orientation. A number of models can explain how stripe spacing is controlled …

The zebrafish is a model organism for pattern formation in vertebrates. Understanding what
drives the formation of its coloured skin motifs could reveal pivotal to comprehend the …

The Turing patterning mechanism is believed to underly the formation of repetitive structures
in development, such as zebrafish stripes and mammalian digits, but it has proved difficult to …