framework
active
framework:bioelectric-networksBioelectric Networks
Ancient mechanism using ion channels, gap junctions, and neurotransmitters as 'cognitive glue' enabling collective intelligence across morphogenesis and behavior.
Neighborhood — ranked by edge-count
Papers (1)
paper
Thinkers (1)
thinker
- Michael Levinintroducesstudies
Methods (2)
method
- Voltage imaging dyesimplements
Concepts (9)
concept
- Gap Junctionsassociated_withCellular connections that enable bioelectric communication; form bioelectric networks underlying morphogenetic control and can be manipulated experimentally via molecular reagents.
- Collective IntelligencesupportsRecognition that selves are composite systems of competent parts; all intelligences are higher-level selves made of cells or components.
- MorphogenesisimplementsProcess by which cellular collectives generate large-scale structure and form; presented as a collective intelligence problem.
- Bioelectricitysubtype_ofProposed 'cognitive glue' common to both neural and developmental collective intelligence; implemented by ion channels and electrical synapses.
- Cognitive glueassociated_withThe mechanisms that bind together composite agents—memories are proposed as one key type of cognitive glue that reifies selves.
- Cognitive scalingimplementsProcess by which low-level competencies scale to larger problem-solving abilities across levels of organization.
- Ion Channelsassociated_withProteins that set membrane potential; function as transistors with historicity, forming the hardware of bioelectric networks.
- Resting Membrane Potential (Vmem)associated_withElectrostatic difference across cell membranes set by ion channels; the fundamental information-processing currency of bioelectric networks in development and behavior.
- Evolutionary Pivotassociated_withLevin's model of how evolution repurposed ancient bioelectric machinery originally used for morphogenesis into neural control of behavior in 3D space.
Frameworks (3)
framework
- Morphospaceassociated_withimplementsA problem space that represents possible anatomical and morphological configurations available to biological systems. Developmental collectives (cells, tissues) navigate this space through adaptive morphogenetic problem-solving to achieve organism-scale goals and body configurations, functioning as a precursor concept to higher-dimensional behavioral spaces.
- Bioelectric Gene Networksrelated_to
- Basal CognitionimplementsAn interdisciplinary research framework that reconceptualizes intelligence as observer-relative problem-solving competencies existing on a continuum from simple to highly complex, extending cognition beyond neural systems to pre-neural and non-neural substrates including microbial control loops, plants, tissues, and cellular collectives. It grounds the study of evolutionary and developmental origins of cognitive and behavioral capacities by linking information processing at the chemical and cellular level to classical cognition, and provides philosophical foundations for understanding agency and goal-directedness in systems without nervous systems.
Artifacts (1)
artifact
- Comprehensive isomorphism table demonstrating deep structural parallels between neuroscience and developmental biology concepts; enables portability of tools and ideas across domains.
Hypotheses (1)
hypothesis
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.
- Bioelectric networks serve as cognitive glue for cells in the body prior to and beyond the brain.
- A prespecified target morphology encoded as an anatomical setpoint; paper uses the 'electric face' from frog embryogenesis as a model system.
- Empirical finding supporting the cognitive light cone concept and collective cellular intelligence claims