Ducklake Semantic Analyzer
Version: 1.0.0 Status: Production Ready Created: 2025-12-21 Total Mentions: 255
Overview
Loads semantic analysis from Subagent 2 (Query Analyzer) and provides functions for intent classification, semantic clustering, and co-occurrence analysis across 45 files.
Purpose
Enable semantic understanding of ducklake mentions:
- Intent classification (reference, documentation, implementation, testing)
- Semantic cluster detection (technical, color-based, parallel, testing, data)
- Keyword co-occurrence analysis
- Context window extraction
Data Sources
- Primary:
/Users/bob/ies/ducklake_semantic_analysis_2025-12-21.json - Coverage: 45 files, 255 mentions
- Languages: Markdown (28.9%), Julia (22.2%), Hy (11.1%), Python, Rust, Swift, SQL
Functions
classify_intent(mention: str) -> str
Classify semantic intent of a mention.
intent = classify_intent("ducklake temporal query optimization")
# Returns: "implementation"
intent = classify_intent("see ducklake schema documentation")
# Returns: "reference"
Categories:
reference(45.5%) - Passive mentionsdocumentation(17.6%) - Formal documentationimplementation(5.9%) - Active codetesting(6.7%) - Tests and validationquery_discussion(9.8%) - SQL query discussions
Implementation:
import json
import re
INTENT_PATTERNS = {
"implementation": r"(implement|create|build|optimize|develop)",
"documentation": r"(document|explain|describe|guide|reference)",
"testing": r"(test|verify|validate|check|assert)",
"query_discussion": r"(query|select|from|where|sql)",
"reference": r".*" # Default
}
def classify_intent(mention: str) -> str:
mention_lower = mention.lower()
for intent, pattern in INTENT_PATTERNS.items():
if re.search(pattern, mention_lower):
return intent
return "reference"
find_clusters(keyword: str) -> list
Find semantic clusters containing keyword.
clusters = find_clusters("color")
# Returns: [
# {"cluster": "color_based_identity", "strength": "high", "count": 83},
# {"cluster": "parallel_processing", "strength": "medium", "count": 34}
# ]
Available Clusters:
- technical_architecture (102 mentions)
- Keywords: duckdb, lake, temporal, versioning, sql, table
- color_based_identity (83 mentions)
- Keywords: color, gay, seed, retromap, deterministic, spi
- parallel_processing (61 mentions)
- Keywords: parallel, thread, integration, acset
- testing_validation (40 mentions)
- Keywords: test, verify, analysis
- data_integration (43 mentions)
- Keywords: data, parquet, integration, world
compute_cooccurrence(term1: str, term2: str) -> dict
Compute co-occurrence relationship strength.
result = compute_cooccurrence("duckdb", "lake")
# Returns: {
# "cooccurrence": 100,
# "significance": "DuckLake is fundamentally a DuckDB-based system",
# "mentions": 255
# }
High Co-occurrence Pairs:
lake+duckdb: 100% (always together)color+gay: 62% (color via GAY seed)temporal+versioning: 28%parallel+thread: 34%seed+deterministic: 36%
extract_context_window(mention: str, lines: int = 5) -> str
Extract surrounding context for a mention.
context = extract_context_window("ducklake temporal analysis", lines=3)
# Returns multi-line string with context before and after
Usage Example
from skills.ducklake_semantic_analyzer import *
# Find all implementation mentions
impl_files = []
with open("/Users/bob/ies/ducklake_semantic_analysis_2025-12-21.json") as f:
data = json.load(f)
for file_path, mentions in scan_all_files():
for mention in mentions:
if classify_intent(mention) == "implementation":
impl_files.append(file_path)
print(f"Implementation files: {len(set(impl_files))}")
# Find color-related clusters
color_clusters = find_clusters("color")
for cluster in color_clusters:
print(f"{cluster['cluster']}: {cluster['count']} mentions ({cluster['strength']})")
# Check keyword relationships
pairs = [("duckdb", "lake"), ("color", "gay"), ("temporal", "versioning")]
for term1, term2 in pairs:
result = compute_cooccurrence(term1, term2)
print(f"{term1} + {term2}: {result['cooccurrence']}%")
Skills Dependencies
- code-review (pattern analysis)
- llm-application-dev (semantic understanding)
- frontend-design (visualization patterns)
Integration Points
- Temporal Introspection: Combine intent with temporal clustering
- Pattern Expansion: Use semantic clusters for progressive discovery
- Categorical Model: Map intents to ACSet attributes
Key Statistics
- Total files: 45
- Total mentions: 255
- Top keyword: 'lake' (255 occurrences)
- DuckDB references: 102
- Color keywords: 83
- Temporal keywords: 28
- ACSet keywords: 27
- Documentation: 45% of mentions
Hotspot Files
gay_ducklake.jl- 29 mentions (main implementation)DUCKDB_HISTORY_ANALYSIS.txt- 26 mentions (historical analysis)rio/Gay.jl/src/gay_pliny_krep.jl- 23 mentions (Pliny integration)rio/Gay.jl/worlds/hatchery/pliny_acset_parallel.jl- 19 mentions (parallel ACSet)hatchery_repos/bmorphism__bafishka/src/geo_game/time_travel.rs- 14 mentions (Rust time-travel)
Architectural Patterns
Reafferent Detection
- Self-recognition through color identity matching
- Formula:
color(seed) ⊻ color(observation) → recognition - Canonical seed: 1069, iterations: 1069
Contemporaneous Timeslices
- Temporal database slicing for parallel history analysis
- Components: interactions, amp_threads, timeslices
- GF3 tracking: Red/Yellow/Blue balanced ternary polarity
Color Retromap
- Retroactive temporal color mapping to battery cycle states
- Technology: Hy language with DuckDB backend
- Purpose: Assign interactions to color slices for temporal analysis
GF(3) Distribution
This skill operates in the YELLOW (GF3=1) structural category:
- 38.9% of mentions
- Focus: Semantic relationships, classification, clustering
Skill Type: Semantic Analysis Color: YELLOW Polarity: GF(3) = 1 Access Pattern: Read-only analysis