Jonghun Choi / 최종훈

Independent researcher · Graduate of Inha Technical College

cjh3cjh@naver.com

"How do humans come to see something new?"

About

I am an independent researcher and a graduate of Inha Technical College, conducting a long-term research program on Structure Recognition — the study of how humans discover structure, assign meaning to it, and generate new research questions from what they observe.

My research began with a simple observation: certain patterns in 4-variable Karnaugh maps — like the checkerboard formed by XOR/XNOR functions — feel visually different from other Boolean function patterns. That intuition grew into a series of connected studies on structural invariance, equivalence under variable rearrangement, and the cognitive mechanisms behind pattern recognition.

A Starting Insight

The 4-variable Boolean function space contains exactly 216 = 65,536 distinct functions. Under axis-swap symmetry — where F(A,B,C,D) = F(C,D,A,B) — these functions are not all structurally independent. Some are symmetric under the swap, some form pairs, and some form larger orbits.

Research question: When the 65,536 functions are classified by axis-swap symmetry, how many distinct equivalence classes result? This question — bridging group theory and combinatorics — is one of the active directions in the newest branch of this research program.

My research philosophy: humans discover structure through visual and spatial intuition; AI expands the explanation space. The collaboration between human structural insight and AI's capacity for systematic exploration is itself a research object — not just a method.

Research Program

This page is the public entry point to a unified long-term research program on Structure Recognition — investigating how humans discover structure, assign meaning to it, and generate research questions.

The program began with specific Boolean function phenomena observed in Karnaugh maps and has expanded toward a broader meta-theoretical framework, with branches into human-AI collaboration and Boolean function space theory.


Empirical Foundation Layer
  Paper 1 — Karnaugh Map Structure Invariance
  Paper 2 — Symmetric Boolean Function Visual Patterns
  Paper 3 — Variable Rearrangement Invariance
           ↓
Theoretical Integration Layer
  Paper 4 — Structure Recognition Theory (SRT)
           ↓
Applied Research Layer
  Paper 5 — Human-AI Research Collaboration (HARCT)
  Paper 6 — Boolean Function Space Theory (NEW)
           ↓
Application Domains
  AI Collaboration Education  ·  Structure-Based Mathematics

Central Hub Documents

This repository (inha20) is the central hub of the research program. Research documentation, theory summaries, and AI collaboration files are maintained here.

⚠️ 2026-06-21 구조 통합 (Session 33): 이전의 program/, theory/, ai-workspace/ 하위 폴더 문서들이 아래 루트 파일들로 통합되었습니다.


AI 진입점

SESSION_START.md

  • AI 단일 진입점 (v5.4) — 프로그램 전체 구조 & AI 운영 원칙
  • Active Queue & Repository Health 표 (작업 현황 통합)
  • Critical Workflow Rules & Four-Paper Architecture (B)
  • Session History (Sessions 45–50+)
이론 통합본

StructureRecognitionTheory_Unified.md

  • Formal Definitions 3.1–3.3 (Structure · Attention · Explanatory Significance)
  • H1–H10 Hypotheses — Research Generation + Concept Evolution
  • Q1–Q15 Question Hierarchy (Level 0–8), OP-01–OP-09

Full theory documents → 4StructureRecognitionTheory

협업 제안서

HumanAICollaborationProposal_Outline.md

  • Human-AI 협업 연구 제안서 개요
  • 협업 모델 · 연구 질문 생성 구조 · 장기 프로그램 설계

Repositories

Empirical · Paper 1

KMap Structure Invariance

Visual pattern analysis of 4-variable Karnaugh maps. XOR/XNOR checkerboard structures and structural regularity under Gray code arrangements. D₄ group theory and equivalence class theory applied to pattern classification.

Status: Stable — submission ready

Empirical · Paper 2

Symmetric Boolean Functions

Symmetric Boolean functions visualized through Hamming Weight layers. Ring structures and layer-based pattern interpretation of all 65,536 four-variable Boolean functions.

Status: Stable

Empirical · Paper 3

Variable Rearrangement Invariance

Structural invariance under variable rearrangement. Equivalence classes and symmetry preservation across different map arrangements.

Status: Stable

Theory · Paper 4

Structure Recognition Theory

Meta-theoretical framework explaining why certain structures become research-worthy. Hypotheses H1–H10 on structure discovery, research generation, and concept evolution.

Status: Stable

Meta · Paper 5

Human-AI Research Collaboration

Methods, observations, and case studies on long-term Human-AI research collaboration. HARCT framework, externalized memory, AI-to-AI handover, and multi-session context continuity.

Status: Complete

New · Paper 6

Boolean Function Space Theory

Complete S₄ orbit classification of 65,536 four-variable Boolean functions: Space(XOR) 10 orbits, Space(AND) 30 orbits, Space(NOT) 32 orbits. Unified paper (paper.md) complete. Connection to SRT established.

Status: Phase 1·2·5 Complete — §6 personal narrative pending

Program Hub

Research Portfolio

Archived program hub repository. Core content consolidated into this central hub (inha20).

Status: Archived

AI Workspace

ANTIGRAVITY

AI collaboration workspace origin repository. Operational content consolidated into SESSION_START.md in this hub.

Status: Archived

Concept Genealogy

The sequence below records the actual historical development of the research program — not a logical reconstruction, but a trace of discovery:


Pattern
1st observation: Karnaugh map checkerboard patterns for XOR/XNOR functions
Layer Structure
Discovery: Hamming Weight layers explain the positions of symmetric function patterns
Equivalence
Observation: different variable arrangements can yield the same structural pattern
Structural Invariance
Question: what exactly is preserved across variable rearrangements?
Structure Recognition Theory
Meta-question: why do certain structures become research-worthy while others do not?
Human-AI Collaboration Model
Observation: humans discover structure; AI expands the explanation space — division of cognitive labor
Boolean Function Space Theory
New direction: gate-generated function spaces as the mathematical domain for structural classification
Future Directions
AI Collaboration Education · Structure-Based Elementary Mathematics · Post Lattice × Karnaugh Map Geometry

Keywords

Karnaugh map Boolean function structural invariance structure recognition symmetric Boolean function variable rearrangement Hamming weight visual pattern analysis human-AI collaboration research question generation XOR/XNOR patterns Boolean function space clone theory gate universality HARCT research continuity human cognition AI education