buberian-relations

Formalize Buber's I-Thou, I-It, We triad using category theory and HoTT syntax.

60|13|Updated Dec 22, 2025
One-click install
npx skills add https://github.com/plurigrid/asi --skill buberian-relations
Or copy as Structured Prompt for Agent▼
Please help me install this Agent Skill.
Skill: buberian-relations
Source: https://github.com/plurigrid/asi/tree/main/skills/buberian-relations
Command: npx skills add https://github.com/plurigrid/asi --skill buberian-relations

SYSTEM DOCUMENTATION & REQUIREMENTS

What problem does it solve?

Formalizes Martin Buber's relational philosophy through category theory, HoTT, and condensed mathematics, mapping to GF(3) conservation.

Core Features & Use Cases

  • Three-relations triad: I-Thou, I-It, We with GF(3) trits
  • Category-theoretic formalization: I-Thou as isomorphism, I-It as non-invertible morphism, We as colimit
  • HoTT-inspired identity types and transport

Quick Start

Define the three relations and verify they maintain GF(3) balance across triads.

Frequently Asked Questions about buberian-relations

High-intent search queries and answers about installing and using this skill.

FAQPage Schema
How do I formalize relational philosophy using category theory?▼

Category theory formalizes Martin Buber's I-Thou, I-It, and We relations by mapping I-Thou as invertible isomorphisms, I-It as non-invertible morphisms, and We as colimits, enabling rigorous mathematical representation of relational structures within HoTT and condensed mathematics frameworks.

What is the difference between I-Thou and I-It in category-theoretic terms?▼

I-Thou relations are formalized as invertible isomorphisms—symmetric, bidirectional encounters—while I-It relations are non-invertible morphisms representing subject-to-object treatment, reflecting Buber's philosophical distinction between authentic encounter and instrumental objectification.

How does category theory model community formation and collective relations?▼

We-relations are represented as colimits in category theory, capturing how multiple I-Thou and I-It relations aggregate and coordinate to form emergent community structures, preserving relational energy conservation via GF(3) triadic invariants.

Can I apply HoTT identity types to encode social relations computationally?▼

Yes. HoTT-inspired identity types and transport enable code-ready representations in languages like Haskell and Agda, formalizing how relational states transform while maintaining the structural guarantees of I-Thou isomorphisms and We colimits across computational scenarios.

What does GF(3) triadic invariance mean for modeling relational encounters?▼

GF(3) triadic invariants—values in the field with three elements—ensure relational energy conservation across the three-relations triad, providing algebraic balance constraints that verify encounter, objectification, and community scenarios maintain coherent relational states.

How do I verify that relational transitions maintain GF(3) balance?▼

Define the three relations and check that morphisms between I-Thou, I-It, and We states preserve GF(3) conservation laws, confirming that scenario analyses of encounters and objectification satisfy the underlying triadic invariants built into the category-theoretic model.