finding
active
finding:evolutionary-algorithm-designed-xenopus-cell-clusters-exhibit-fast-self-motile-behavior-purely-from-evolved-novel-shape-and-tissue-distribution-not-neural-control-or-genomic-informationEvolutionary algorithm-designed Xenopus cell clusters exhibit fast self-motile behavior purely from evolved novel shape and tissue distribution, not neural control or genomic information.
Empirical result from Kriegman et al. 2020 demonstrating that 'reprogramming' occurs without altering DNA software
Source paper
extracted_from(2021) · Joshua Bongard · Michael Levin
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Claims (2)
claim
- Second central claim: life and machine form a continuous multidimensional space, not discrete bins
- The paper's proposed dissolution of binary software/hardware distinction into a continuum
Related by similarity (8)
cosine ≥ 0.65 · no typed edgeEntities in the same semantic neighborhood but without a typed relation to this one — candidates for new edges or unrecognized duplicates.
- Xenobots (frog skin cells) exhibit kinematic self-replication when provided with loose cells.finding0.811Empirical result from Kriegman et al. 2021: frog cell-derived synthetic organisms replicate without sexual reproduction.
- From Kriegman et al. (2021), a novel mode of reproduction never before seen.
- Proposes an evolutionary trajectory linking morphogenesis to neural cognition.
- Highlights extraordinary plasticity and problem-solving.
- Interpretive claim about the meaning of Xenobot behaviors.
- Hypothesis on evolutionary origin of behavioral intelligence from morphogenetic competencies.
- Central thesis of the paper.
- Testable prediction that insights from developmental bioelectricity can illuminate behavioral cognition and vice versa; grounds portability of neuroscience tools across tissue types.