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STPrism

Alicia Juarrero

3 min read

Based on the provided sources, particularly the work of Alicia Juarrero and Lila Gatlin, the diagram below illustrates how Causality (redefined as constraint) drives the formation of Hierarchy, which results in Non-Ergodicity (path dependence), ultimately allowing for Speciation (persistent identity) through the stabilization of those constraints.

The Causal-Constraint Cascade

graph TD
     Relationships
    Causality -->|Redefined as| Constraint
    Constraint -->|Gradients & Barriers| CI_Constraint
    Constraint -->|Interactions & Feedback| CD_Constraint
    
    CI_Constraint -->|Provides Energy Gradient| Hierarchy
    CD_Constraint -->|Enabling: Bottom-Up| Hierarchy
    Hierarchy -->|Governing: Top-Down| CD_Constraint
    
    Hierarchy -->|Carries History & Context| NonErgodicity
    
    NonErgodicity -->|Stabilized by Isolation| Speciation
    Speciation -->|Maintains Constraint Regime| Constraint

    %% Styling
    style Causality fill:#f9f,stroke:#333,stroke-width:2px
    style Speciation fill:#9f9,stroke:#333,stroke-width:2px
    style Hierarchy fill:#ff9,stroke:#333,stroke-width:2px

Explanation of the Diagram Flow

1. Causality is Redefined as ConstraintIn this framework, causality is not merely “efficient force” (billiard balls hitting). It is the operation of constraints that alter the probability distribution of events[1],[2]. Constraints do not add energy but direct it, making some outcomes probable and others impossible[3].

2. Two Types of Constraints Build Structure

• Context-Independent (CI): These act as barriers or gradients (e.g., a wall or a temperature difference). They take the system away from randomness (equiprobability) but do not create complex internal organization[4],[5].

• Context-Dependent (CD): These connect parts so they are no longer independent (e.g., feedback loops, catalysts, grammar). They weave components into a coherent whole[6],[7].

3. Constraints Generate Hierarchy (Mereology)

• Bottom-Up (Enabling): Context-dependent constraints link parts together to form a higher-level whole[8],[9].

• Top-Down (Governing): Once formed, the whole acts as a constraint on the parts, regulating their behavior (e.g., the “spirit” of a mob constraining individual actions, or an organism regulating its cells)[8],[10]. This circular causality creates Hierarchy[11].

4. Hierarchy Leads to Non-ErgodicityBecause the system is now structured by these internal constraints, it cannot do “just anything.” It is restricted to a specific trajectory based on its history and context. It does not visit every possible state (Ergodicity); it stays within a specific “basin of attraction”[12],[13]. The system “carries its history on its back”[13],[14].

5. Isolation and Stability Create SpeciationTo persist as a distinct entity or Species, this unique non-ergodic path must be protected from dissolving back into randomness.

• Isolation: Geographical or reproductive isolation acts as a constraint that prevents the system from homogenizing with the environment[15],[16].

• Unity of Type: This results in a stable “Constraint Regime” that defines the species. The species persists because it reproduces this specific set of constraints[17],[18].

Graph View