5 KiB
High-Resolution Semantic Cross-Linkage Research
Generated: 2026-04-18
Goal: Maximize fidelity to enable cross-linkage between ENE records
Status: 12,440 links established across 131 records (95 links/record)
Current Resolution Achieved
| Layer | Dimensionality | Method | Coverage |
|---|---|---|---|
| Sub-Axis | 56-dim (14×4) | Keyword-based decomposition | All records |
| Phrase | Variable | 2-3 gram extraction | All records |
| Entity | Categorical | Component/hash/date linking | All records |
| Semantic Links | 12,440 edges | Combined similarity + entity sharing | 95 avg/record |
Linkage Density Analysis
Threshold Distribution:
≥0.90: 7,908 links (63.6%) ← Perfect entity matches
≥0.80: 8,264 links (66.4%) ← Strong entity sharing
≥0.70: 8,264 links (66.4%) ← Semantic + entity
≥0.60: 8,264 links (66.4%)
≥0.50: 8,264 links (66.4%)
Interpretation: Most links are entity-based (component:substrate, hash:xxx, date:xxx), which provides high-confidence cross-referencing. The semantic similarity layer adds additional nuanced connections.
Pathways to EVEN HIGHER Resolution
1. Content Digestion (Highest Impact)
Problem: Current records have minimal text ("packages record", entity tags)
Solution: Digest actual file contents from source databases
# For each record, extract content from:
- substrate_index.db (SQLite table content)
- graph_address_space.sql (INSERT statement values)
- ingestion_catalog_downloads_2026-04-12.json (file descriptions)
- ChatGPT files (conversation content for chat sessions)
Expected Gain: 10-100x more text per record → 10x more phrase matches
2. Cross-Modal Linking (MATH_MODEL_MAP Bridge)
Problem: ENE records and mathematical theorems exist in separate spaces
Solution: Create semantic bridge to MATH_MODEL_MAP
# Embed both spaces in same vector space
ene_vector = sub_axis_vector(ene_record.text)
math_vector = sub_axis_vector(math_model.equation + math_model.purpose)
# Find cross-domain links
if cosine_sim(ene_vector, math_vector) > threshold:
create_link(ene_record, math_model, type="implements")
Expected Gain: 181 math models × 131 ENE records = 23,711 potential cross-links
3. Temporal Micro-Clustering
Problem: Timestamps are coarse (second-precision)
Solution: Sub-second micro-clustering with causal ordering
# Use file system metadata:
- inode access times
- git commit timestamps
- modification sequences
# Create temporal proximity graph with 0.1s resolution
Expected Gain: 2-5x more temporal links within batch imports
4. Structural Dependency Graph
Problem: No explicit dependency information
Solution: Parse dependencies from:
- Rust Cargo.toml
- Python requirements.txt
- Lean lakefile.lean
- SQL FOREIGN KEY constraints
# Build dependency graph
if record_a.depends_on(record_b):
link_type = "dependency"
link_strength = 1.0 # Hard dependency
Expected Gain: 500-1000 additional structural links
5. Hash-Based Fingerprinting
Problem: SHA256 hashes treated as opaque identifiers
Solution: Use hash substrings as locality-sensitive features
# Similar hashes → similar content (birthday paradox exploitation)
hash_prefix = record.hash[:8]
if hamming_distance(record_a.hash, record_b.hash) < threshold:
# Potential content similarity
create_link(a, b, type="content_proximity")
Expected Gain: 50-100 content-based similarity links
Implementation Roadmap
Phase 1: Content Digestion (Immediate)
- Extend
ene_import.pyto pull full content from SQLite/SQL files - Add content hash to phrase extraction
- Re-run high-resolution with full text
Phase 2: Cross-Modal Bridge (Next)
- Parse MATH_MODEL_MAP.md for theorem equations
- Generate concept vectors for math models
- Compute ENE↔Math cross-similarity matrix
Phase 3: Structural + Temporal (After)
- Parse dependency files
- Add micro-timestamp clustering
- Integrate hash fingerprinting
Metrics to Track
| Metric | Current | Target (Phase 1) | Target (Phase 3) |
|---|---|---|---|
| Links per record | 95 | 500 | 2000 |
| Unique entity types | 5 | 15 | 25 |
| Cross-modal links | 0 | 100 | 500 |
| Dependency links | 0 | 0 | 300 |
| Avg link strength | 0.82 | 0.75 | 0.70 |
Files
| File | Purpose |
|---|---|
ene_high_res.py |
High-resolution enhancement engine |
data/ene_high_res.json |
12,440 link graph with 56-dim vectors |
ene_semantic_enhancer.py |
14-dim baseline enhancement |
data/ene_link_graph.json |
Source entity graph |
Next Steps
- Run content digestion on source databases
- Re-generate high-resolution data with full text
- Bridge to MATH_MODEL_MAP for theorem cross-referencing
- Visualize the link graph (DOT format export)
Estimated final linkage: 10,000+ links with full content digestion