mouse forelimb morphological development

Source paper

extracted_from

(2004) · Alexander, Christopher

community

Bioelectric morphogenesis & anatomical intelligence
members_of
Levin-led research showing bioelectric signals encode and control anatomical goal states in living systems.
Geometric dynamics in embryonic morphogenesis
members_of
Physical geometry and multi-scale collective cell behavior drive form emergence, studied through mouse limb development and Acetabularia whorl morphogenesis.

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Entities in the same semantic neighborhood but without a typed relation to this one — candidates for new edges or unrecognized duplicates.

Embryogenesis of a mouse foot demonstrates harmony-seeking through emergence of strong centers, boundaries, gradients, levels of scale, contrast, local symmetries, and good shape across four developmental days.finding0.759
Example demonstrating how latent structures in development are progressively consolidated and solidified through structure-preserving transformations.
Morphological Coordinationconcept0.752
Proposed common ancestral function unifying neural and non-neural signaling (Fields et al. 2020).
Embryogenesis of mouse foot (12th to 15th day development)finding0.751
Morphogenesisconcept0.748
Process by which cellular collectives generate large-scale structure and form; presented as a collective intelligence problem.
Target morphologyconcept0.747
The ideal anatomical pattern (e.g., smiling face) that cells aim to achieve.
Morphological Computationconcept0.745
Using body shape and material properties to perform computations, blurring mind-body distinctions.
Craniofacial Developmentconcept0.733
Morphogenesis of the head and face; driven by bioelectric pre-patterns.
A goat born without forelimbs developed bipedal gait and corresponding anatomical changes within one generation.finding0.728
From Slijper 1942; classic example of rapid functional adaptation driving morphological change without genetic mutation.