finding

active

finding:development-of-capsella-bursa-pastoris-seed-shows-appearance-of-strongly-differentiated-centers-deep-interlock-local-symmetries-in-cotyledons-good-shape-roughness-in-cell-packing-and-positive-space-the-fifteen-properties-emerging-through-wholeness-preserving-unfolding

Development of Capsella bursa-pastoris seed shows appearance of strongly differentiated centers, deep interlock, local symmetries in cotyledons, good shape, roughness in cell packing, and positive space — the fifteen properties emerging through wholeness-preserving unfolding.

Botanical embryology finding demonstrating that the fifteen properties appear across multiple categories simultaneously during seed development

Neighborhood — ranked by edge-count

Claims (2)

claim

In embryological development, chemistry and cell migrations are mechanisms that do the work but are simply not the principal thing going on — the fifteen properties and their unfolding are.
supports
Alexander's interpretive priority claim distinguishing mechanistic substrate from the morphogenetic principle at work
The fifteen properties emerge directly and inevitably from the unfolding of the whole; it is these fifteen properties that guide all differentiations during development.
supports
Alexander's claim that living structure properties are not incidental but are the operative mechanisms of wholeness-preserving transformation

Related by similarity (8)

cosine ≥ 0.65 · no typed edge

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

Good shape arises in many natural systems such as leaves, bones, and Chladni patterns, where a strong center is intensified by minor centers.claim0.759
Morphogenesis guarantees that coherent wholes will form even while the piecemeal process allows each place to be unique.claim0.743
Key property of morphogenetic process: it produces both unity and diversity simultaneously.
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.finding0.742
Example demonstrating how latent structures in development are progressively consolidated and solidified through structure-preserving transformations.
Structure-preserving transformations that continually modify wholeness slowly cause space to be filled with unfolded I-like centers.claim0.732
Proposition 3 of the Mid-Book Appendix; the claim linking the mathematical process of unfolding to the emergence of I-likeness in natural and built structures.
In golden algae development, the transition from stage D to E (sprouting buds) appears entirely new but the wholeness of stage D already contains a unique condition — a latent center — at the stalk tip.finding0.730
Botanical finding demonstrating the concept of latent center: apparently discontinuous new structure is already implicit in the prior wholeness
In buildings, especially, the success of the process will be judged by the extent to which these middle-range entities appear with their own distinct symmetries, with their own definite and distinct force as strong centers.claim0.728
Proposes middle-range entity quality as the criterion for judging the success of a building process
The 10-step Guasare process generates a dense field of living centers in which every bit of space — street, lot, garden, courtyard, house — forms a coherent center, a result achievable only by this dynamic sequential processfinding0.728
Demonstration via simulation that the defined process produces complex, organic, center-rich morphology.
Target morphology shifts occur despite the fact that all of the individual cells have unaltered normal genomes, showing that competent subunits can be pushed to implement diverse organism-scale goals by physiological signals.claim0.725
Highlights the non-genetic control of large-scale anatomy.