Hybrid frog-axolotl embryos defy prediction from constituent genomes

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

• Frogolotl Prediction Problemquestion0.753
  Cannot predict whether a 50/50 chimeric frog-axolotl embryo would have legs, or if regenerative vs. non-regenerative despite having genomic sequences for both species; exemplifies the unsolvability of the inverse problem and the importance of collective decision-making.
• In frog embryo development, each transformation introduces new structure in the form of new asymmetrically placed local symmetries inducing new layers of differentiation without dispersing the underlying deep structure.finding0.752
  Embryological finding showing the specific mechanism — insertion of new local symmetries — by which wholeness is preserved and extended in biological development
• Mammalian embryos overcome drastic perturbations such as amputation, and early embryo splitting results in normal monozygotic twins.finding0.742
  Demonstrates mammalian regulative capacity and robust self-organization.
• Wild-type frog skin cells form novel proto-organisms (Xenobots) without genomic editing.finding0.741
  From Blackiston et al. (2021) and Kriegman et al. (2020), reveals emergent goals from cellular collectives.
• Ectopic eyes formed in frog embryo tails still function; eye primordia cells succeed in forming an eye, optic nerve, and correct neural connections despite abnormal spatial context.finding0.733
• Scrambled tadpole craniofacial tissue rearranges into normal frog anatomy from novel starting configurationsfinding0.729
  Evidence that morphogenesis pursues a specific target state (goal) rather than executing a fixed sequence of steps.
• Developing Xenopus tadpoles can attain normal anatomical outcome despite starting with craniofacial organs scrambled or with wrong number of cells.finding0.727
  Evidence of morphogenetic problem-solving and anatomical homeostasis across serious perturbations; demonstrates collective intelligence in development.
• Artificially induced frog leg regeneration follows a non-developmental path (like a plant) to produce a normal limb.finding0.725
  Frog legs regenerated after specific induction did not form a paddle with interdigital apoptosis but grew digits from a central core, reaching correct final form via atypical intermediate states.