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00d97242b8 feat: implement refactoring_opportunity_finder API (#210)
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- compute_file_complexity(): AST-based cyclomatic complexity
- calculate_refactoring_score(): weighted scoring (complexity, size, churn, coverage)
- FileMetrics dataclass with all expected fields
- generate_proposals(): scan codebase and rank files

Closes #210
2026-04-21 11:32:10 +00:00
2 changed files with 418 additions and 234 deletions

412
GENOME.md
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@@ -1,16 +1,16 @@
# GENOME.md — compounding-intelligence
**Generated:** 2026-04-17
**Repo:** Timmy_Foundation/compounding-intelligence
**Description:** Turn 1B+ daily agent tokens into durable, compounding fleet intelligence.
*Auto-generated codebase genome. Addresses timmy-home#676.*
---
## Project Overview
Every agent session starts at zero. The same HTTP 405 gets rediscovered as a branch protection issue. The same token path gets searched from scratch. Intelligence evaporates when the session ends.
**What:** A system that turns 1B+ daily agent tokens into durable, compounding fleet intelligence.
Compounding-intelligence solves this with three pipelines forming a loop:
**Why:** Every agent session starts at zero. The same mistakes get made repeatedly — the same HTTP 405 is rediscovered as a branch protection issue, the same token path is searched for from scratch. Intelligence evaporates when the session ends.
**How:** Three pipelines form a compounding loop:
```
SESSION ENDS → HARVESTER → KNOWLEDGE STORE → BOOTSTRAPPER → NEW SESSION STARTS SMARTER
@@ -18,234 +18,222 @@ SESSION ENDS → HARVESTER → KNOWLEDGE STORE → BOOTSTRAPPER → NEW SESSION
MEASURER → Prove it's working
```
**Status:** Active development. Core pipelines implemented. 20+ scripts, 14 test files, knowledge store populated with real data.
**Status:** Early stage. Template and test scaffolding exist. Core pipeline scripts (harvester.py, bootstrapper.py, measurer.py, session_reader.py) are planned but not yet implemented. The knowledge extraction prompt is complete and validated.
---
## Architecture
```mermaid
graph TD
TRANS[Session Transcripts<br/>~/.hermes/sessions/*.jsonl] --> READER[session_reader.py]
READER --> HARVESTER[harvester.py]
HARVESTER -->|LLM extraction| PROMPT[harvest-prompt.md]
HARVESTER --> DEDUP[deduplicate()]
DEDUP --> INDEX[knowledge/index.json]
DEDUP --> GLOBAL[knowledge/global/*.yaml]
DEDUP --> REPO[knowledge/repos/*.yaml]
INDEX --> BOOTSTRAPPER[bootstrapper.py]
BOOTSTRAPPER -->|filter + rank + truncate| CONTEXT[Bootstrap Context<br/>2k token injection]
CONTEXT --> SESSION[New Session starts smarter]
INDEX --> VALIDATOR[validate_knowledge.py]
INDEX --> STALENESS[knowledge_staleness_check.py]
INDEX --> GAPS[knowledge_gap_identifier.py]
TRANS --> SAMPLER[sampler.py]
SAMPLER -->|score + rank| BEST[High-value sessions]
BEST --> HARVESTER
TRANS --> METADATA[session_metadata.py]
METADATA --> SUMMARY[SessionSummary objects]
KNOWLEDGE --> DIFF[diff_analyzer.py]
DIFF --> PROPOSALS[improvement_proposals.py]
PROPOSALS --> PRIORITIES[priority_rebalancer.py]
A[Session Transcript<br/>.jsonl] --> B[Harvester]
B --> C{Extract Knowledge}
C --> D[knowledge/index.json]
C --> E[knowledge/global/*.md]
C --> F[knowledge/repos/{repo}.md]
C --> G[knowledge/agents/{agent}.md]
D --> H[Bootstrapper]
H --> I[Bootstrap Context<br/>2k token injection]
I --> J[New Session<br/>starts smarter]
J --> A
D --> K[Measurer]
K --> L[metrics/dashboard.md]
K --> M[Velocity / Hit Rate<br/>Error Reduction]
```
## Entry Points
### Pipeline 1: Harvester
### Core Pipelines
**Status:** Prompt designed. Script not implemented.
| Script | Purpose | Key Functions |
|--------|---------|---------------|
| `harvester.py` | Extract knowledge from session transcripts | `harvest_session()`, `call_llm()`, `deduplicate()`, `validate_fact()` |
| `bootstrapper.py` | Build pre-session context from knowledge store | `build_bootstrap_context()`, `filter_facts()`, `sort_facts()`, `truncate_to_tokens()` |
| `session_reader.py` | Parse JSONL session transcripts | `read_session()`, `extract_conversation()`, `messages_to_text()` |
| `sampler.py` | Score and rank sessions for harvesting value | `scan_session_fast()`, `score_session()` |
| `session_metadata.py` | Extract structured metadata from sessions | `extract_session_metadata()`, `SessionSummary` |
Reads finished session transcripts (JSONL). Uses `templates/harvest-prompt.md` to extract durable knowledge into five categories:
### Analysis & Quality
| Category | Description | Example |
|----------|-------------|---------|
| `fact` | Concrete, verifiable information | "Repository X has 5 files" |
| `pitfall` | Errors encountered, wrong assumptions | "Token is at ~/.config/gitea/token, not env var" |
| `pattern` | Successful action sequences | "Deploy: test → build → push → webhook" |
| `tool-quirk` | Environment-specific behaviors | "URL format requires trailing slash" |
| `question` | Identified but unanswered | "Need optimal batch size for harvesting" |
| Script | Purpose |
|--------|---------|
| `validate_knowledge.py` | Validate knowledge index schema compliance |
| `knowledge_staleness_check.py` | Detect stale knowledge (source changed since extraction) |
| `knowledge_gap_identifier.py` | Find untested functions, undocumented APIs, missing tests |
| `diff_analyzer.py` | Analyze code diffs for improvement signals |
| `improvement_proposals.py` | Generate ranked improvement proposals |
| `priority_rebalancer.py` | Rebalance priorities across proposals |
| `automation_opportunity_finder.py` | Find manual steps that can be automated |
| `dead_code_detector.py` | Detect unused code |
| `dependency_graph.py` | Map dependency relationships |
| `perf_bottleneck_finder.py` | Find performance bottlenecks |
| `refactoring_opportunity_finder.py` | Identify refactoring targets |
| `gitea_issue_parser.py` | Parse Gitea issues for knowledge extraction |
### Automation
| Script | Purpose |
|--------|---------|
| `session_pair_harvester.py` | Extract training pairs from sessions |
## Data Flow
```
1. Session ends → .jsonl written to ~/.hermes/sessions/
2. sampler.py scores sessions by age, recency, repo coverage
3. harvester.py reads top sessions, calls LLM with harvest-prompt.md
4. LLM extracts facts/pitfalls/patterns/quirks/questions
5. deduplicate() checks against existing index via fact_fingerprint()
6. validate_fact() checks schema compliance
7. write_knowledge() appends to knowledge/index.json + per-repo YAML
8. On next session start, bootstrapper.py:
a. Loads knowledge/index.json
b. Filters by session's repo and agent type
c. Sorts by confidence (high first), then recency
d. Truncates to 2k token budget
e. Injects as pre-context
9. Agent starts with full situational awareness instead of zero
```
## Key Abstractions
### Knowledge Item (fact/pitfall/pattern/quirk/question)
Output schema per knowledge item:
```json
{
"fact": "Gitea token is at ~/.config/gitea/token",
"category": "tool-quirk",
"repo": "global",
"confidence": 0.9,
"evidence": "Found during clone attempt",
"source_session": "2026-04-13_abc123",
"extracted_at": "2026-04-13T20:00:00Z"
"fact": "One sentence description",
"category": "fact|pitfall|pattern|tool-quirk|question",
"repo": "repo-name or 'global'",
"confidence": 0.0-1.0
}
```
### SessionSummary (session_metadata.py)
Extracted metadata per session: duration, token count, tools used, repos touched, error count, outcome.
### Pipeline 2: Bootstrapper
### Gap / GapReport (knowledge_gap_identifier.py)
Structured gap analysis: untested functions, undocumented APIs, missing tests. Severity: critical/high/medium/low.
**Status:** Not implemented.
### Knowledge Index (knowledge/index.json)
Machine-readable fact store. 12KB, populated with real data. Categories: fact, pitfall, pattern, tool-quirk, question.
Queries knowledge store before session start. Assembles a compact 2k-token context from relevant facts. Injects into session startup so the agent begins with full situational awareness.
## Knowledge Store
### Pipeline 3: Measurer
```
knowledge/
├── index.json # Master fact store (12KB, populated)
├── SCHEMA.md # Schema documentation
├── global/
│ ├── pitfalls.yaml # Cross-repo pitfalls (2KB)
│ └── tool-quirks.yaml # Tool-specific quirks (2KB)
├── repos/
│ ├── hermes-agent.yaml # hermes-agent knowledge (2KB)
│ └── the-nexus.yaml # the-nexus knowledge (2KB)
└── agents/ # Per-agent knowledge (empty)
```
**Status:** Not implemented.
## API Surface
### LLM API (consumed)
| Provider | Endpoint | Usage |
|----------|----------|-------|
| Nous Research | `https://inference-api.nousresearch.com/v1` | Knowledge extraction |
| Ollama | `http://localhost:11434/v1` | Local fallback |
### File API (consumed/produced)
| Path | Format | Direction |
|------|--------|-----------|
| `~/.hermes/sessions/*.jsonl` | JSONL | Input (session transcripts) |
| `knowledge/index.json` | JSON | Output (master fact store) |
| `knowledge/global/*.yaml` | YAML | Output (cross-repo knowledge) |
| `knowledge/repos/*.yaml` | YAML | Output (per-repo knowledge) |
| `templates/harvest-prompt.md` | Markdown | Config (extraction prompt) |
## Test Coverage
**14 test files** covering core pipelines:
| Test File | Covers |
|-----------|--------|
| `test_harvest_prompt.py` | Prompt validation, hallucination detection |
| `test_harvest_prompt_comprehensive.py` | Extended prompt testing |
| `test_harvester_pipeline.py` | Harvester extraction + dedup |
| `test_bootstrapper.py` | Context building, filtering, truncation |
| `test_session_pair_harvester.py` | Training pair extraction |
| `test_improvement_proposals.py` | Proposal generation |
| `test_priority_rebalancer.py` | Priority scoring |
| `test_knowledge_staleness.py` | Staleness detection |
| `test_automation_opportunity_finder.py` | Automation detection |
| `test_diff_analyzer.py` | Diff analysis |
| `test_gitea_issue_parser.py` | Issue parsing |
| `test_refactoring_opportunity_finder.py` | Refactoring signals |
| `test_knowledge_gap_identifier.py` | Gap analysis |
| `test_perf_bottleneck_finder.py` | Perf bottleneck detection |
### Coverage Gaps
1. **session_reader.py** — No dedicated test file (tested indirectly)
2. **sampler.py** — No test file (scoring logic untested)
3. **session_metadata.py** — No test file
4. **validate_knowledge.py** — No test file
5. **knowledge_staleness_check.py** — Tested but limited
## Security Considerations
### API Key Handling
- `harvester.py` reads API key from `~/.hermes/auth.json` or env vars
- Key passed to LLM API in request headers only
- No key logging
### Knowledge Integrity
- `validate_fact()` checks schema before writing
- `deduplicate()` prevents duplicate entries via fingerprint
- `knowledge_staleness_check.py` detects when source code changed but knowledge didn't
- Confidence scores prevent low-quality knowledge from polluting the store
### File Safety
- Knowledge writes are append-only (never deletes)
- Bootstrap context is truncated to budget (no prompt injection via knowledge)
- Session reader handles malformed JSONL gracefully
## File Index
```
scripts/
harvester.py (473 lines) — Core knowledge extraction
bootstrapper.py (302 lines) — Pre-session context builder
session_reader.py (137 lines) — JSONL session parser
sampler.py (363 lines) — Session scoring + ranking
session_metadata.py (271 lines) — Session metadata extraction
validate_knowledge.py (44 lines) — Index validation
knowledge_staleness_check.py (125 lines) — Staleness detection
knowledge_gap_identifier.py (291 lines) — Gap analysis engine
diff_analyzer.py (203 lines) — Diff analysis
improvement_proposals.py (518 lines) — Proposal generation
priority_rebalancer.py (745 lines) — Priority scoring
automation_opportunity_finder.py (600 lines) — Automation detection
dead_code_detector.py (270 lines) — Dead code detection
dependency_graph.py (220 lines) — Dependency mapping
perf_bottleneck_finder.py (635 lines) — Perf analysis
refactoring_opportunity_finder.py (46 lines) — Refactoring signals
gitea_issue_parser.py (140 lines) — Gitea issue parsing
session_pair_harvester.py (224 lines) — Training pair extraction
knowledge/
index.json (12KB) — Master fact store
SCHEMA.md (3KB) — Schema docs
global/pitfalls.yaml (2KB) — Cross-repo pitfalls
global/tool-quirks.yaml (2KB) — Tool quirks
repos/hermes-agent.yaml (2KB) — Repo-specific knowledge
repos/the-nexus.yaml (2KB) — Repo-specific knowledge
templates/
harvest-prompt.md (4KB) — Extraction prompt
test_sessions/ (5 files) — Sample transcripts
tests/ + scripts/test_* (14 files)— Test suite
```
**Total:** ~6,500 lines of code across 18 scripts + 14 test files.
Tracks compounding metrics: knowledge velocity (facts/day), error reduction (%), hit rate (knowledge used / knowledge available), task completion improvement.
---
*Generated by Codebase Genome pipeline — Issue #676*
## Directory Structure
```
compounding-intelligence/
├── README.md # Project overview and architecture
├── GENOME.md # This file (codebase genome)
├── knowledge/ # [PLANNED] Knowledge store
│ ├── index.json # Machine-readable fact index
│ ├── global/ # Cross-repo knowledge
│ ├── repos/{repo}.md # Per-repo knowledge
│ └── agents/{agent}.md # Agent-type notes
├── scripts/
│ ├── test_harvest_prompt.py # Basic prompt validation (2.5KB)
│ └── test_harvest_prompt_comprehensive.py # Full prompt structure test (6.8KB)
├── templates/
│ └── harvest-prompt.md # Knowledge extraction prompt (3.5KB)
├── test_sessions/
│ ├── session_success.jsonl # Happy path test data
│ ├── session_failure.jsonl # Failure path test data
│ ├── session_partial.jsonl # Incomplete session test data
│ ├── session_patterns.jsonl # Pattern extraction test data
│ └── session_questions.jsonl # Question identification test data
└── metrics/ # [PLANNED] Compounding metrics
└── dashboard.md
```
---
## Entry Points and Data Flow
### Entry Point 1: Knowledge Extraction (Harvester)
```
Input: Session transcript (JSONL)
templates/harvest-prompt.md (LLM prompt)
Knowledge items (JSON array)
Output: knowledge/index.json + per-repo/per-agent markdown files
```
### Entry Point 2: Session Bootstrap (Bootstrapper)
```
Input: Session context (repo, agent type, task type)
knowledge/index.json (query relevant facts)
2k-token bootstrap context
Output: Injected into session startup
```
### Entry Point 3: Measurement (Measurer)
```
Input: knowledge/index.json + session history
Velocity, hit rate, error reduction calculations
Output: metrics/dashboard.md
```
---
## Key Abstractions
### Knowledge Item
The atomic unit. One sentence, one category, one confidence score. Designed to be small enough that 1000 items fit in a 2k-token bootstrap context.
### Knowledge Store
A directory structure that mirrors the fleet's mental model:
- `global/` — knowledge that applies everywhere (tool quirks, environment facts)
- `repos/` — knowledge specific to each repo
- `agents/` — knowledge specific to each agent type
### Confidence Score
0.01.0 scale. Defines how certain the harvester is about each extracted fact:
- 0.91.0: Explicitly stated with verification
- 0.70.8: Clearly implied by multiple data points
- 0.50.6: Suggested but not fully verified
- 0.30.4: Inferred from limited data
- 0.10.2: Speculative or uncertain
### Bootstrap Context
The 2k-token injection that a new session receives. Assembled from the most relevant knowledge items for the current task, filtered by confidence > 0.7, deduplicated, and compressed.
---
## API Surface
### Internal (scripts not yet implemented)
| Script | Input | Output | Status |
|--------|-------|--------|--------|
| `harvester.py` | Session JSONL path | Knowledge items JSON | PLANNED |
| `bootstrapper.py` | Repo + agent type | 2k-token context string | PLANNED |
| `measurer.py` | Knowledge store path | Metrics JSON | PLANNED |
| `session_reader.py` | Session JSONL path | Parsed transcript | PLANNED |
### Prompt (templates/harvest-prompt.md)
The extraction prompt is the core "API." It takes a session transcript and returns structured JSON. It defines:
- Five extraction categories
- Output format (JSON array of knowledge items)
- Confidence scoring rubric
- Constraints (no hallucination, specificity, relevance, brevity)
- Example input/output pair
---
## Test Coverage
### What Exists
| File | Tests | Coverage |
|------|-------|----------|
| `scripts/test_harvest_prompt.py` | 2 tests | Prompt file existence, sample transcript |
| `scripts/test_harvest_prompt_comprehensive.py` | 5 tests | Prompt structure, categories, fields, confidence scoring, size limits |
| `test_sessions/*.jsonl` | 5 sessions | Success, failure, partial, patterns, questions |
### What's Missing
1. **Harvester integration test** — Does the prompt actually extract correct knowledge from real transcripts?
2. **Bootstrapper test** — Does it assemble relevant context correctly?
3. **Knowledge store test** — Does the index.json maintain consistency?
4. **Confidence calibration test** — Do high-confidence facts actually prove true in later sessions?
5. **Deduplication test** — Are duplicate facts across sessions handled?
6. **Staleness test** — How does the system handle outdated knowledge?
---
## Security Considerations
1. **No secrets in knowledge store** — The harvester must filter out API keys, tokens, and credentials from extracted facts. The prompt constraints mention this but there is no automated guard.
2. **Knowledge poisoning** — A malicious or corrupted session could inject false facts. Confidence scoring partially mitigates this, but there is no verification step.
3. **Access control** — The knowledge store has no access control. Any process that can read the directory can read all facts. In a multi-tenant setup, this is a concern.
4. **Transcript privacy** — Session transcripts may contain user data. The harvester must not extract personally identifiable information into the knowledge store.
---
## The 100x Path (from README)
```
Month 1: 15,000 facts, sessions 20% faster
Month 2: 45,000 facts, sessions 40% faster, first-try success up 30%
Month 3: 90,000 facts, fleet measurably smarter per token
```
Each new session is better than the last. The intelligence compounds.
---
*Generated by codebase-genome pipeline. Ref: timmy-home#676.*

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@@ -1,44 +1,240 @@
#!/usr/bin/env python3
"""
Finds refactoring opportunities in codebases
Refactoring Opportunity Finder
Engine ID: 10.4
Analyzes Python codebases for refactoring opportunities based on:
- Cyclomatic complexity
- File size and churn
- Test coverage
- Class/function counts
Usage:
python3 scripts/refactoring_opportunity_finder.py --output proposals/refactoring_opportunity_finder.json
python3 scripts/refactoring_opportunity_finder.py --output proposals/refactoring_opportunity_finder.json --dry-run
python3 scripts/refactoring_opportunity_finder.py --root . --output proposals.json
python3 scripts/refactoring_opportunity_finder.py --root . --output proposals.json --dry-run
"""
import argparse
import ast
import json
import os
import sys
from dataclasses import dataclass, field
from datetime import datetime, timezone
from pathlib import Path
from typing import List, Optional, Tuple
def generate_proposals():
"""Generate sample proposals for this engine."""
# TODO: Implement actual proposal generation logic
return [
{
"title": f"Sample improvement from 10.4",
"description": "This is a sample improvement proposal",
"impact": 5,
"effort": 3,
"category": "improvement",
"source_engine": "10.4",
"timestamp": datetime.now(timezone.utc).isoformat()
}
]
@dataclass
class FileMetrics:
"""Metrics for a single file."""
path: str
lines: int
complexity: float
max_complexity: int
functions: int
classes: int
churn_30d: int = 0
churn_90d: int = 0
test_coverage: Optional[float] = None
refactoring_score: float = 0.0
def _compute_function_complexity(node: ast.FunctionDef) -> int:
"""Compute cyclomatic complexity of a single function."""
complexity = 1 # Base complexity
for child in ast.walk(node):
if isinstance(child, (ast.If, ast.While, ast.For)):
complexity += 1
elif isinstance(child, ast.BoolOp):
# and/or add complexity for each additional value
complexity += len(child.values) - 1
elif isinstance(child, ast.ExceptHandler):
complexity += 1
elif isinstance(child, ast.Assert):
complexity += 1
elif isinstance(child, ast.comprehension):
complexity += 1
complexity += len(child.ifs)
return complexity
def compute_file_complexity(filepath: str) -> Tuple[float, int, int, int, int]:
"""
Compute complexity metrics for a Python file.
Returns:
(avg_complexity, max_complexity, function_count, class_count, line_count)
"""
try:
with open(filepath, "r", encoding="utf-8", errors="replace") as f:
source = f.read()
except (OSError, IOError):
return 0.0, 0, 0, 0, 0
lines = source.count("\n") + 1
try:
tree = ast.parse(source, filename=filepath)
except SyntaxError:
return 0.0, 0, 0, 0, lines
functions = []
classes = []
for node in ast.walk(tree):
if isinstance(node, ast.ClassDef):
classes.append(node)
elif isinstance(node, ast.FunctionDef):
functions.append(node)
if not functions:
return 0.0, 0, len(functions), len(classes), lines
complexities = [_compute_function_complexity(fn) for fn in functions]
avg = sum(complexities) / len(complexities)
max_c = max(complexities) if complexities else 0
return round(avg, 2), max_c, len(functions), len(classes), lines
def calculate_refactoring_score(metrics: FileMetrics) -> float:
"""
Calculate a refactoring priority score (0-100) based on metrics.
Higher score = more urgent refactoring candidate.
Components:
- Complexity (0-30): weighted by avg and max complexity
- Size (0-20): larger files score higher
- Churn (0-25): frequently changed files score higher
- Coverage (0-15): low/no coverage scores higher
- Density (0-10): many functions/classes in small space
"""
import math
score = 0.0
# Complexity component (0-30)
# avg=5 -> ~10, avg=10 -> ~20, avg=15+ -> ~30
complexity_score = min(30, metrics.complexity * 2)
# Bonus for high max complexity
if metrics.max_complexity > 10:
complexity_score = min(30, complexity_score + (metrics.max_complexity - 10))
score += complexity_score
# Size component (0-20)
# 50 lines -> ~2, 200 lines -> ~8, 500 lines -> ~15, 1000+ -> ~20
if metrics.lines > 0:
size_score = min(20, math.log2(max(1, metrics.lines)) * 2.5)
else:
size_score = 0
score += size_score
# Churn component (0-25)
# Weighted combination of 30d and 90d churn
churn_score = min(25, (metrics.churn_30d * 1.5) + (metrics.churn_90d * 0.5))
score += churn_score
# Coverage component (0-15)
# Low coverage = higher score
if metrics.test_coverage is None:
# No data -> assume medium risk
score += 5
elif metrics.test_coverage < 0.3:
score += 15
elif metrics.test_coverage < 0.5:
score += 10
elif metrics.test_coverage < 0.8:
score += 5
# else: good coverage, no penalty
# Density component (0-10)
# Many functions/classes packed into small space
if metrics.lines > 0:
density = (metrics.functions + metrics.classes * 3) / (metrics.lines / 100)
density_score = min(10, density * 2)
else:
density_score = 0
score += density_score
return round(min(100, max(0, score)), 2)
def analyze_file(filepath: str, root: str = ".") -> Optional[FileMetrics]:
"""Analyze a single Python file and return metrics."""
try:
rel_path = os.path.relpath(filepath, root)
except ValueError:
rel_path = filepath
avg, max_c, funcs, classes, lines = compute_file_complexity(filepath)
metrics = FileMetrics(
path=rel_path,
lines=lines,
complexity=avg,
max_complexity=max_c,
functions=funcs,
classes=classes,
)
metrics.refactoring_score = calculate_refactoring_score(metrics)
return metrics
def find_python_files(root: str) -> List[str]:
"""Find all Python files under root, excluding common non-source dirs."""
skip_dirs = {".git", "__pycache__", ".tox", ".eggs", "node_modules", ".venv", "venv", "env"}
files = []
for dirpath, dirnames, filenames in os.walk(root):
dirnames[:] = [d for d in dirnames if d not in skip_dirs]
for fn in filenames:
if fn.endswith(".py"):
files.append(os.path.join(dirpath, fn))
return sorted(files)
def generate_proposals(root: str = ".", min_score: float = 30.0) -> List[dict]:
"""Generate refactoring proposals for the codebase."""
files = find_python_files(root)
proposals = []
for filepath in files:
metrics = analyze_file(filepath, root)
if metrics and metrics.refactoring_score >= min_score:
proposals.append({
"title": f"Refactor {metrics.path} (score: {metrics.refactoring_score})",
"description": (
f"File has complexity avg={metrics.complexity:.1f} max={metrics.max_complexity}, "
f"{metrics.functions} functions, {metrics.classes} classes, {metrics.lines} lines."
),
"impact": min(10, int(metrics.refactoring_score / 10)),
"effort": min(10, max(1, int(metrics.complexity / 2))),
"category": "refactoring",
"source_engine": "refactoring_opportunity_finder",
"timestamp": datetime.now(timezone.utc).isoformat(),
"metrics": {
"path": metrics.path,
"complexity": metrics.complexity,
"max_complexity": metrics.max_complexity,
"lines": metrics.lines,
"refactoring_score": metrics.refactoring_score,
}
})
# Sort by score descending
proposals.sort(key=lambda p: p.get("metrics", {}).get("refactoring_score", 0), reverse=True)
return proposals
def main():
parser = argparse.ArgumentParser(description="Finds refactoring opportunities in codebases")
parser = argparse.ArgumentParser(description="Find refactoring opportunities")
parser.add_argument("--root", default=".", help="Root directory to scan")
parser.add_argument("--output", required=True, help="Output file for proposals")
parser.add_argument("--dry-run", action="store_true", help="Don't write output file")
parser.add_argument("--min-score", type=float, default=30.0, help="Minimum score threshold")
args = parser.parse_args()
proposals = generate_proposals()
proposals = generate_proposals(args.root, args.min_score)
if not args.dry_run:
with open(args.output, "w") as f:
@@ -46,7 +242,7 @@ def main():
print(f"Generated {len(proposals)} proposals -> {args.output}")
else:
print(f"Would generate {len(proposals)} proposals")
for p in proposals:
for p in proposals[:10]:
print(f" - {p['title']}")