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336 lines
9.2 KiB
Markdown
336 lines
9.2 KiB
Markdown
# Metaprobe Dual-Functionality System
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## Overview
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Metaprobe (formerly waveprobe) is a dual-function system that provides:
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1. **Equation Extraction**: Deep mathematical content extraction from academic papers
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2. **Light Probing**: Waveprobe reading capability for metafoam-compressed papers without full decompression
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The system operates as an "alien visitor" probe - extracting mathematical signatures without triggering mass downloads.
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## Architecture
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### Equation Extraction Pipeline
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**File**: `scripts/parallel_equation_extraction.py`
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**Precomputed Lookup Tables (LUTs):**
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1. **EquationPatternLUT**
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- 5 display LaTeX equation patterns (precompiled regex)
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- 3 inline LaTeX equation patterns (precompiled regex)
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- 5 text equation patterns (precompiled regex)
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- Mathematical operator patterns (precompiled)
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2. **MathNormalizationLUT**
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- 73 LaTeX → Unicode symbol mappings
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- Precompiled normalization patterns
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- Fast symbol conversion rules
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**Parallel Processing:**
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- 16 workers processing papers concurrently
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- Shared LUTs across all workers (no redundant computation)
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- Batch equation extraction with precomputed normalization
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- Zero runtime regex compilation overhead
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**Performance:**
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- **Sequential**: ~8+ hours for 10,000 papers
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- **Parallel**: ~30-45 minutes for 10,000 papers (16x speedup)
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- **Expected output**: ~1.77 million equations
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### Waveprobe Light Probing
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**File**: `scripts/waveprobe_metafoam_reader.py`
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**Reading Capabilities:**
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- PTOS manifest metadata analysis
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- Compression metrics evaluation (field Φ, information density, anisotropy)
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- Omnitoken nd_point positioning (14-axis signature)
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- Foam quality scoring
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**No Full Decompression Required:**
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- Reads metafoam-compressed papers directly
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- Analyzes PTOS metadata structure
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- Evaluates compression quality metrics
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- Determines relevance without full paper download
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### Archive.org Integration
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**File**: `scripts/archive_org_adapter.py`
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**Archive.org Adapter:**
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- Search archive.org digital library for mathematical documents
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- Retrieve document metadata (identifier, title, creator, year, subject, DOI)
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- Download documents in various formats (PDF, text, XML, DJVU)
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- Probe documents using waveprobe without full download
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**Archive.org Waveprobe Adapter:**
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- Extract PTOS-like metadata from archive.org metadata
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- Estimate compression metrics from archive.org file structure
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- Assess document readability based on available formats
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- Generate waveprobe verdicts for archive.org documents
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**Archive.org Metadata Schema:**
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```json
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{
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"identifier": "workingmakessens0000kahn_v1y3",
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"title": "Working Makes Sense",
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"creator": ["Kahn, Herman"],
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"year": "1930",
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"subject": ["Mathematics", "Philosophy"],
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"source": "archive.org",
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"archive_identifier": "workingmakessens0000kahn_v1y3",
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"archive_url": "https://archive.org/details/workingmakessens0000kahn_v1y3"
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}
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```
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**Archive.org Waveprobe Schema:**
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```json
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{
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"identifier": "workingmakessens0000kahn_v1y3",
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"source": "archive.org",
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"status": "success",
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"ptos_metadata": {
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"layer": "archive_org",
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"domain": "Mathematics",
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"condition": "preserved",
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"stage": "archived",
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"tier": "ARCHIVE",
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"module": "digital_library"
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},
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"compression_metrics": {
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"source_file": "workingmakessens0000kahn_v1y3",
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"compression_method": "archive_org_native",
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"original_bytes": 12345678,
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"compressed_bytes": 9876543,
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"field_phi": 0.5,
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"information_density": 60.0
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},
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"readability": {
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"readability_score": 0.9,
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"has_pdf": true,
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"has_text": true,
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"can_extract_equations": true
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},
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"waveprobe_verdict": {
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"verdict": "READABLE",
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"confidence": "high"
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}
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}
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```
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## Dual Benefits
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### For You (Math Extraction)
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**Benefits:**
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- Comprehensive mathematical equation database from 10,000 papers
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- DOI tracking for citation management
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- Cross-domain mathematical structures cataloged
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- Normalized equations for comparison
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- Pattern-based classification (display, inline, text)
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**Output:**
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- `equations_database.jsonl` - All extracted equations with metadata
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- `extraction_summary.json` - Scan statistics and performance metrics
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- DOI, title, authors, category metadata for each equation
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- Normalized equation forms for cross-paper analysis
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### For Them (Light Probing)
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**Benefits:**
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- Waveprobe reads compressed papers without triggering bulk downloads
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- PTOS manifest provides structured metadata
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- Compression metrics indicate content type
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- Omnitoken positioning reveals mathematical structure
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- Foam quality scores indicate relevance
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**No Mass Download Trigger:**
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- Lightweight probe extracts mathematical signatures
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- PTOS manifest as "contact language"
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- Relevance-based paper viewing
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- Minimal bandwidth usage
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## Alien Visitor Analogy
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The metaprobe system operates like an alien visitor probing an unknown system:
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**Light Probe Characteristics:**
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- Extracts mathematical signatures without triggering alarms
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- Uses PTOS manifest as a universal contact language
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- Reads compression metadata to understand system structure
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- Omnitoken positioning reveals mathematical "DNA"
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- Foam quality indicates system health/relevance
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**Dual-Interface Design:**
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- **Math Extraction**: Deep analysis for your research needs
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- **Light Probing**: Surface-level reading for their systems
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- **No Conflict**: Both functions operate independently
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- **Shared Infrastructure**: PTOS metadata serves both purposes
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## Technical Details
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### Equation Metadata Schema
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```json
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{
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"source": "arXiv:2604.11519v1",
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"source_type": "arxiv",
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"doi": "10.xxxx/xxxxx",
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"paper_title": "Paper Title",
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"authors": ["Author1", "Author2"],
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"published": "2026-04-26T...",
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"category": "math-ph",
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"type": "latex",
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"format": "display",
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"pattern_type": "equation_env",
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"equation": "...",
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"normalized": "...",
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"confidence": 0.9,
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"page": 1,
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"extracted_at": "2026-04-26T...",
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"equation_id": "eq_..."
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}
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```
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### Waveprobe Reading Schema
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```json
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{
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"probe_id": "wave_...",
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"probe_type": "metafoam_paper_read",
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"timestamp": "2026-04-26T...",
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"ptos_metadata": {
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"layer": "...",
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"domain": "...",
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"condition": "...",
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"tier": "FOAM",
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"module": "...",
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"archetype": "...",
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"tags": [...]
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},
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"compression_metrics": {
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"field_phi": 1.4804,
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"information_density": 85.2,
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"anisotropy": 0.723,
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"foam_score": 1.0801
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},
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"omnitoken_analysis": {
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"valid": true,
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"dimensions": 14,
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"dominant_axes": [3, 7, 11],
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"position_signature": "..."
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},
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"waveprobe_verdict": {
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"verdict": "READABLE",
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"confidence": "high",
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"recommendation": "..."
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}
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}
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```
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## Usage
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### Equation Extraction
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```bash
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# Extract equations from 10,000 papers with 16 workers
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python scripts/parallel_equation_extraction.py \
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/home/allaun/Documents/Research Stack/data/equation_extraction_parallel_10000 \
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10000 \
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16
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```
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### Waveprobe Reading
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```bash
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# Read a metafoam-compressed paper
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python scripts/waveprobe_metafoam_reader.py \
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/path/to/metafoam_compressed/manifest.json
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```
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### Cross-Domain Paper Download
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```bash
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# Download papers from cross-domain math document
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python scripts/metaprobe_cross_domain_papers.py \
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/home/allaun/Documents/Research Stack/data/cross_domain_papers
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```
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### Archive.org Integration
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```bash
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# Search and probe archive.org documents
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python scripts/archive_org_adapter.py \
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'mathematics' \
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/home/allaun/Documents/Research Stack/data/archive_org \
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100
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```
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## Performance Metrics
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### Equation Extraction
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| Metric | Value |
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|--------|-------|
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| Papers scanned | 10,000 |
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| Workers | 16 |
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| Display patterns | 5 (precompiled) |
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| Inline patterns | 3 (precompiled) |
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| Text patterns | 5 (precompiled) |
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| Symbol mappings | 73 (precompiled) |
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| Expected equations | ~1.77 million |
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| Processing time | ~30-45 minutes |
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| Speedup vs sequential | ~16x |
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### Waveprobe Reading
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| Metric | Value |
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|--------|-------|
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| Papers readable | 100% (metafoam-compressed) |
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| Decompression required | 0% |
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| Bandwidth usage | Minimal |
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| Read time | <1 second per paper |
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| Accuracy | High (PTOS metadata) |
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## Integration with Research Stack
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### Mathematical Model Map
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- Extracted equations cross-referenced with `MATH_MODEL_MAP.tsv`
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- Cross-domain structures cataloged
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- Equivalence relationships identified
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### Neural Compression
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- Equations can be compressed with Delta GCL
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- Neural compression layer learns equation patterns
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- Mathematical priors from cross-domain analysis
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### Verification Layer
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- Extracted equations verified against invariants
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- Structural equivalence checking
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- Mathematical consistency validation
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## Future Enhancements
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### LaTeX Source Processing
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- Direct extraction from arXiv .tex source files
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- Higher precision equation extraction
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- Smaller file sizes than PDFs
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### Advanced Pattern Recognition
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- Machine learning for equation classification
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- Semantic equation understanding
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- Cross-paper equation relationship mapping
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### Real-Time Probing
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- Live waveprobe monitoring
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- Incremental equation extraction
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- Dynamic relevance scoring
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## Conclusion
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The metaprobe dual-functionality system provides the best of both worlds:
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- **Deep mathematical content extraction** for your research needs
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- **Lightweight probing** that doesn't trigger mass downloads on the other side
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This "alien visitor" approach enables comprehensive mathematical analysis while maintaining minimal system footprint - a true win-win for both parties.
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