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Author SHA1 Message Date
agentson
62b1a1f37a feat: implement Volatility Hunter for real-time market scanning
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Implements issue #20 - Behavioral Rule: Volatility Hunter

Components:
1. src/analysis/volatility.py
   - VolatilityAnalyzer with ATR calculation
   - Price change tracking (1m, 5m, 15m intervals)
   - Volume surge detection (ratio vs average)
   - Price-volume divergence analysis
   - Momentum scoring (0-100 scale)
   - Breakout/breakdown detection

2. src/analysis/scanner.py
   - MarketScanner for real-time stock scanning
   - Scans all available stocks every 60 seconds
   - Ranks by momentum score
   - Identifies top 5 movers per market
   - Dynamic watchlist updates

3. Integration with src/main.py
   - Auto-adjust WATCHLISTS dynamically
   - Replace laggards with leaders (max 2 per scan)
   - Volume confirmation required
   - Integrated with Context Tree L7 (real-time layer)

4. Comprehensive tests
   - 22 tests in tests/test_volatility.py
   - 99% coverage for analysis module
   - Tests for all volatility calculations
   - Tests for scanner ranking and watchlist updates
   - All tests passing

Key Features:
- Scan ALL stocks, not just current watchlist
- Dynamic watchlist that adapts to market leaders
- Context Tree integration for real-time data storage
- Breakout detection with volume confirmation
- Multi-timeframe momentum analysis

Co-Authored-By: Claude Sonnet 4.5 <noreply@anthropic.com>
2026-02-04 16:29:06 +09:00
2a80030ceb Merge pull request 'feat: implement decision logging system with context snapshots' (#18) from feature/issue-17-decision-logging into main
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Reviewed-on: #18
2026-02-04 15:54:11 +09:00
agentson
2f9efdad64 feat: integrate decision logger with main trading loop
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- Add DecisionLogger to main.py trading cycle
- Log all decisions with context snapshot (L1-L2 layers)
- Capture market data and balance info in context
- Add comprehensive tests (9 tests, 100% coverage)
- All tests passing (63 total)

Implements issue #17 acceptance criteria:
-  decision_logs table with proper schema
-  DecisionLogger class with all required methods
-  Automatic logging in trading loop
-  Tests achieve 100% coverage of decision_logger.py
- ⚠️  Context snapshot uses L1-L2 data (L3-L7 pending issue #15)

Co-Authored-By: Claude Sonnet 4.5 <noreply@anthropic.com>
2026-02-04 15:47:53 +09:00
agentson
6551d7af79 WIP: Add decision logging infrastructure
- Add decision_logs table to database schema
- Create decision logger module with comprehensive logging
- Prepare for decision tracking and audit trail

Co-Authored-By: Claude Sonnet 4.5 <noreply@anthropic.com>
2026-02-04 15:47:53 +09:00
7515a5a314 Merge pull request 'feat: implement L1-L7 context tree for multi-layered memory management' (#16) from feature/issue-15-context-tree into main
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Reviewed-on: #16
2026-02-04 15:40:00 +09:00
agentson
254b543c89 Merge main into feature/issue-15-context-tree
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Resolved conflicts in CLAUDE.md by:
- Keeping main's refactored structure (docs split into separate files)
- Added Context Tree documentation link to docs section
- Preserved all constraints and guidelines from main

Co-Authored-By: Claude Sonnet 4.5 <noreply@anthropic.com>
2026-02-04 15:25:13 +09:00
agentson
917b68eb81 feat: implement L1-L7 context tree for multi-layered memory management
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Implements Pillar 2 (Multi-layered Context Management) with a 7-tier
hierarchical memory system from real-time market data to generational
trading wisdom.

## New Modules
- `src/context/layer.py`: ContextLayer enum and metadata config
- `src/context/store.py`: ContextStore for CRUD operations
- `src/context/aggregator.py`: Bottom-up aggregation (L7→L6→...→L1)

## Database Changes
- Added `contexts` table for hierarchical data storage
- Added `context_metadata` table for layer configuration
- Indexed by layer, timeframe, and updated_at for fast queries

## Context Layers
- L1 (Legacy): Cumulative wisdom (kept forever)
- L2 (Annual): Yearly metrics (10 years retention)
- L3 (Quarterly): Strategy pivots (3 years)
- L4 (Monthly): Portfolio rebalancing (2 years)
- L5 (Weekly): Stock selection (1 year)
- L6 (Daily): Trade logs (90 days)
- L7 (Real-time): Live market data (7 days)

## Tests
- 18 new tests in `tests/test_context.py`
- 100% coverage on context modules
- All 72 tests passing (54 existing + 18 new)

## Documentation
- Added `docs/context-tree.md` with comprehensive guide
- Updated `CLAUDE.md` architecture section
- Includes usage examples and best practices

Closes #15

Co-Authored-By: Claude Sonnet 4.5 <noreply@anthropic.com>
2026-02-04 14:12:29 +09:00
2becbddb4a Merge pull request 'refactor: split CLAUDE.md into focused documentation structure' (#14) from feature/issue-13-docs-refactor into main
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Reviewed-on: #14
2026-02-04 10:15:09 +09:00
agentson
05e8986ff5 refactor: split CLAUDE.md into focused documentation structure
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- Restructure docs into topic-specific files to minimize context
- Create docs/workflow.md (Git + Agent workflow)
- Create docs/commands.md (Common failures + build commands)
- Create docs/architecture.md (System design + data flow)
- Create docs/testing.md (Test structure + guidelines)
- Rewrite CLAUDE.md as concise hub with links to detailed docs
- Update .gitignore to exclude data/ directory

Benefits:
- Reduced context size for AI assistants
- Faster reference lookups
- Better maintainability
- Topic-focused documentation

Closes #13

Co-Authored-By: Claude Sonnet 4.5 <noreply@anthropic.com>
2026-02-04 10:13:48 +09:00
3c676c2b8d Merge pull request 'docs: add common command failures and solutions' (#12) from feature/issue-11-command-failures into main
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Reviewed-on: #12
2026-02-04 10:03:29 +09:00
agentson
3dd222bd3b docs: add common command failures and solutions
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- Document tea CLI TTY errors and YES="" workaround
- Record wrong parameter names (--body vs --description)
- Add Gitea API hostname corrections
- Include Git configuration errors
- Document Python/pytest common issues

Each failure includes:
-  Failing command
- 💡 Failure reason
-  Working solution
- 📝 Additional notes

Closes #11

Co-Authored-By: Claude Sonnet 4.5 <noreply@anthropic.com>
2026-02-04 10:02:41 +09:00
f4e6b609a4 Merge pull request 'docs: add agent workflow and parallel execution strategy' (#10) from feature/issue-9-agent-workflow into main
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Reviewed-on: #10
2026-02-04 09:51:01 +09:00
agentson
9c5bd254b5 docs: add agent workflow and parallel execution strategy
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- Document modern AI development workflow using specialized agents
- Add guidelines for when to use git worktree/subagents vs main conversation
- Define agent roles: ticket mgmt, design, code, test, docs, review
- Include implementation examples with Task tool
- Update test count (35 → 54) with new market_schedule tests

Closes #9

Co-Authored-By: Claude Sonnet 4.5 <noreply@anthropic.com>
2026-02-04 09:47:14 +09:00
5c9261ce5b Merge pull request 'feat: implement timezone-based global market auto-selection' (#7) from feature/issue-5-global-market-auto-selection into main
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Reviewed-on: #7
2026-02-04 09:33:39 +09:00
ef4305cfc3 Merge pull request 'docs: add Git workflow policy to CLAUDE.md' (#6) from feature/issue-4-add-git-workflow-policy into main
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Reviewed-on: #6
2026-02-04 09:33:16 +09:00
agentson
b26ff0c1b8 feat: implement timezone-based global market auto-selection
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Implement comprehensive multi-market trading system with automatic
market selection based on timezone and trading hours.

## New Features
- Market schedule module with 10 global markets (KR, US, JP, HK, CN, VN)
- Overseas broker for KIS API international stock trading
- Automatic market detection based on current time and timezone
- Next market open waiting logic when all markets closed
- ConnectionError retry with exponential backoff (max 3 attempts)

## Architecture Changes
- Market-aware trading cycle with domestic/overseas broker routing
- Market context in AI prompts for better decision making
- Database schema extended with market and exchange_code columns
- Config setting ENABLED_MARKETS for market selection

## Testing
- 19 new tests for market schedule (timezone, DST, lunch breaks)
- All 54 tests passing
- Lint fixes with ruff

## Files Added
- src/markets/schedule.py - Market schedule and timezone logic
- src/broker/overseas.py - KIS overseas stock API client
- tests/test_market_schedule.py - Market schedule test suite

## Files Modified
- src/main.py - Multi-market main loop with retry logic
- src/config.py - ENABLED_MARKETS setting
- src/db.py - market/exchange_code columns with migration
- src/brain/gemini_client.py - Dynamic market context in prompts

Resolves #5

Co-Authored-By: Claude Sonnet 4.5 <noreply@anthropic.com>
2026-02-04 09:29:25 +09:00
35 changed files with 4579 additions and 136 deletions

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# PyPI configuration file # PyPI configuration file
.pypirc .pypirc
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# CLAUDE.md # The Ouroboros
This file provides guidance to Claude Code (claude.ai/code) when working with code in this repository. AI-powered trading agent for global stock markets with self-evolution capabilities.
## Git Workflow Policy ## Quick Start
**CRITICAL: All code changes MUST follow this workflow. Direct pushes to `main` are ABSOLUTELY PROHIBITED.**
1. **Create Gitea Issue First** — All features, bug fixes, and policy changes require a Gitea issue before any code is written
2. **Create Feature Branch** — Branch from `main` using format `feature/issue-{N}-{short-description}`
3. **Implement Changes** — Write code, tests, and documentation on the feature branch
4. **Create Pull Request** — Submit PR to `main` branch referencing the issue number
5. **Review & Merge** — After approval, merge via PR (squash or merge commit)
**Never commit directly to `main`.** This policy applies to all changes, no exceptions.
## Build & Test Commands
```bash ```bash
# Install all dependencies (production + dev) # Setup
pip install ".[dev]" pip install -e ".[dev]"
cp .env.example .env
# Edit .env with your KIS and Gemini API credentials
# Run full test suite with coverage # Test
pytest -v --cov=src --cov-report=term-missing pytest -v --cov=src
# Run a single test file # Run (paper trading)
pytest tests/test_risk.py -v
# Run a single test by name
pytest tests/test_brain.py -k "test_parse_valid_json" -v
# Lint
ruff check src/ tests/
# Type check (strict mode, non-blocking in CI)
mypy src/ --strict
# Run the trading agent
python -m src.main --mode=paper python -m src.main --mode=paper
# Docker
docker compose up -d ouroboros # Run agent
docker compose --profile test up test # Run tests in container
``` ```
## Architecture ## Documentation
Self-evolving AI trading agent for Korean stock markets (KIS API). The main loop in `src/main.py` orchestrates four components in a 60-second cycle per stock: - **[Workflow Guide](docs/workflow.md)** — Git workflow policy and agent-based development
- **[Command Reference](docs/commands.md)** — Common failures, build commands, troubleshooting
- **[Architecture](docs/architecture.md)** — System design, components, data flow
- **[Context Tree](docs/context-tree.md)** — L1-L7 hierarchical memory system
- **[Testing](docs/testing.md)** — Test structure, coverage requirements, writing tests
- **[Agent Policies](docs/agents.md)** — Prime directives, constraints, prohibited actions
1. **Broker** (`src/broker/kis_api.py`) — Async KIS API client with automatic OAuth token refresh, leaky-bucket rate limiter (10 RPS), and POST body hash-key signing. Uses a custom SSL context with disabled hostname verification for the VTS (virtual trading) endpoint due to a known certificate mismatch. ## Core Principles
2. **Brain** (`src/brain/gemini_client.py`) — Sends structured prompts to Google Gemini, parses JSON responses into `TradeDecision` objects. Forces HOLD when confidence < threshold (default 80). Falls back to safe HOLD on any parse/API error. 1. **Safety First** — Risk manager is READ-ONLY and enforces circuit breakers
2. **Test Everything** — 80% coverage minimum, all changes require tests
3. **Issue-Driven Development** — All work goes through Gitea issues → feature branches → PRs
4. **Agent Specialization** — Use dedicated agents for design, coding, testing, docs, review
3. **Risk Manager** (`src/core/risk_manager.py`) — **READ-ONLY by policy** (see `docs/agents.md`). Circuit breaker halts all trading via `SystemExit` when daily P&L drops below -3.0%. Fat-finger check rejects orders exceeding 30% of available cash. ## Project Structure
4. **Evolution** (`src/evolution/optimizer.py`) — Analyzes high-confidence losing trades from SQLite, asks Gemini to generate new `BaseStrategy` subclasses, validates them by running the full pytest suite, and simulates PR creation. ```
src/
├── broker/ # KIS API client (domestic + overseas)
├── brain/ # Gemini AI decision engine
├── core/ # Risk manager (READ-ONLY)
├── evolution/ # Self-improvement optimizer
├── markets/ # Market schedules and timezone handling
├── db.py # SQLite trade logging
├── main.py # Trading loop orchestrator
└── config.py # Settings (from .env)
**Data flow per cycle:** Fetch orderbook + balance → calculate P&L → get Gemini decision → validate with risk manager → execute order → log to SQLite (`src/db.py`). tests/ # 54 tests across 4 files
docs/ # Extended documentation
```
## Key Constraints (from `docs/agents.md`) ## Key Commands
- `core/risk_manager.py` is **READ-ONLY**. Changes require human approval. ```bash
- Circuit breaker threshold (-3.0%) may only be made stricter, never relaxed. pytest -v --cov=src # Run tests with coverage
- Fat-finger protection (30% max order size) must always be enforced. ruff check src/ tests/ # Lint
- Confidence < 80 **must** force HOLD — this rule cannot be weakened. mypy src/ --strict # Type check
- All code changes require corresponding tests. Coverage must stay >= 80%.
- Generated strategies must pass the full test suite before activation.
## Configuration python -m src.main --mode=paper # Paper trading
python -m src.main --mode=live # Live trading (⚠️ real money)
Pydantic Settings loaded from `.env` (see `.env.example`). Required vars: `KIS_APP_KEY`, `KIS_APP_SECRET`, `KIS_ACCOUNT_NO` (format `XXXXXXXX-XX`), `GEMINI_API_KEY`. Tests use in-memory SQLite (`DB_PATH=":memory:"`) and dummy credentials via `tests/conftest.py`. # Gitea workflow (requires tea CLI)
YES="" ~/bin/tea issues create --repo jihoson/The-Ouroboros --title "..." --description "..."
YES="" ~/bin/tea pulls create --head feature-branch --base main --title "..." --description "..."
```
## Test Structure ## Markets Supported
35 tests across three files. `asyncio_mode = "auto"` in pyproject.toml — async tests need no special decorator. The `settings` fixture in `conftest.py` provides safe defaults with test credentials and in-memory DB. - 🇰🇷 Korea (KRX)
- 🇺🇸 United States (NASDAQ, NYSE, AMEX)
- 🇯🇵 Japan (TSE)
- 🇭🇰 Hong Kong (SEHK)
- 🇨🇳 China (Shanghai, Shenzhen)
- 🇻🇳 Vietnam (Hanoi, HCM)
- `test_risk.py` (11) — Circuit breaker boundaries, fat-finger edge cases Markets auto-detected based on timezone and enabled in `ENABLED_MARKETS` env variable.
- `test_broker.py` (6) — Token lifecycle, rate limiting, hash keys, network errors
- `test_brain.py` (18) — JSON parsing, confidence threshold, malformed responses, prompt construction ## Critical Constraints
⚠️ **Non-Negotiable Rules** (see [docs/agents.md](docs/agents.md)):
- `src/core/risk_manager.py` is **READ-ONLY** — changes require human approval
- Circuit breaker at -3.0% P&L — may only be made **stricter**
- Fat-finger protection: max 30% of cash per order — always enforced
- Confidence < 80 → force HOLD — cannot be weakened
- All code changes → corresponding tests → coverage ≥ 80%
## Contributing
See [docs/workflow.md](docs/workflow.md) for the complete development process.
**TL;DR:**
1. Create issue in Gitea
2. Create feature branch: `feature/issue-N-description`
3. Implement with tests
4. Open PR
5. Merge after review

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# System Architecture
## Overview
Self-evolving AI trading agent for global stock markets via KIS (Korea Investment & Securities) API. The main loop in `src/main.py` orchestrates four components in a 60-second cycle per stock across multiple markets.
## Core Components
### 1. Broker (`src/broker/`)
**KISBroker** (`kis_api.py`) — Async KIS API client for domestic Korean market
- Automatic OAuth token refresh (valid for 24 hours)
- Leaky-bucket rate limiter (10 requests per second)
- POST body hash-key signing for order authentication
- Custom SSL context with disabled hostname verification for VTS (virtual trading) endpoint due to known certificate mismatch
**OverseasBroker** (`overseas.py`) — KIS overseas stock API wrapper
- Reuses KISBroker infrastructure (session, token, rate limiter) via composition
- Supports 9 global markets: US (NASDAQ/NYSE/AMEX), Japan, Hong Kong, China (Shanghai/Shenzhen), Vietnam (Hanoi/HCM)
- Different API endpoints for overseas price/balance/order operations
**Market Schedule** (`src/markets/schedule.py`) — Timezone-aware market management
- `MarketInfo` dataclass with timezone, trading hours, lunch breaks
- Automatic DST handling via `zoneinfo.ZoneInfo`
- `is_market_open()` checks weekends, trading hours, lunch breaks
- `get_open_markets()` returns currently active markets
- `get_next_market_open()` finds next market to open and when
### 2. Brain (`src/brain/gemini_client.py`)
**GeminiClient** — AI decision engine powered by Google Gemini
- Constructs structured prompts from market data
- Parses JSON responses into `TradeDecision` objects (`action`, `confidence`, `rationale`)
- Forces HOLD when confidence < threshold (default 80)
- Falls back to safe HOLD on any parse/API error
- Handles markdown-wrapped JSON, malformed responses, invalid actions
### 3. Risk Manager (`src/core/risk_manager.py`)
**RiskManager** — Safety circuit breaker and order validation
⚠️ **READ-ONLY by policy** (see [`docs/agents.md`](./agents.md))
- **Circuit Breaker**: Halts all trading via `SystemExit` when daily P&L drops below -3.0%
- Threshold may only be made stricter, never relaxed
- Calculated as `(total_eval - purchase_total) / purchase_total * 100`
- **Fat-Finger Protection**: Rejects orders exceeding 30% of available cash
- Must always be enforced, cannot be disabled
### 4. Evolution (`src/evolution/optimizer.py`)
**StrategyOptimizer** — Self-improvement loop
- Analyzes high-confidence losing trades from SQLite
- Asks Gemini to generate new `BaseStrategy` subclasses
- Validates generated strategies by running full pytest suite
- Simulates PR creation for human review
- Only activates strategies that pass all tests
## Data Flow
```
┌─────────────────────────────────────────────────────────────┐
│ Main Loop (60s cycle per stock, per market) │
└─────────────────────────────────────────────────────────────┘
┌──────────────────────────────────┐
│ Market Schedule Check │
│ - Get open markets │
│ - Filter by enabled markets │
│ - Wait if all closed │
└──────────────────┬────────────────┘
┌──────────────────────────────────┐
│ Broker: Fetch Market Data │
│ - Domestic: orderbook + balance │
│ - Overseas: price + balance │
└──────────────────┬────────────────┘
┌──────────────────────────────────┐
│ Calculate P&L │
│ pnl_pct = (eval - cost) / cost │
└──────────────────┬────────────────┘
┌──────────────────────────────────┐
│ Brain: Get Decision │
│ - Build prompt with market data │
│ - Call Gemini API │
│ - Parse JSON response │
│ - Return TradeDecision │
└──────────────────┬────────────────┘
┌──────────────────────────────────┐
│ Risk Manager: Validate Order │
│ - Check circuit breaker │
│ - Check fat-finger limit │
│ - Raise if validation fails │
└──────────────────┬────────────────┘
┌──────────────────────────────────┐
│ Broker: Execute Order │
│ - Domestic: send_order() │
│ - Overseas: send_overseas_order() │
└──────────────────┬────────────────┘
┌──────────────────────────────────┐
│ Database: Log Trade │
│ - SQLite (data/trades.db) │
│ - Track: action, confidence, │
│ rationale, market, exchange │
└───────────────────────────────────┘
```
## Database Schema
**SQLite** (`src/db.py`)
```sql
CREATE TABLE trades (
id INTEGER PRIMARY KEY AUTOINCREMENT,
timestamp TEXT NOT NULL,
stock_code TEXT NOT NULL,
action TEXT NOT NULL, -- BUY | SELL | HOLD
confidence INTEGER NOT NULL, -- 0-100
rationale TEXT,
quantity INTEGER,
price REAL,
pnl REAL DEFAULT 0.0,
market TEXT DEFAULT 'KR', -- KR | US_NASDAQ | JP | etc.
exchange_code TEXT DEFAULT 'KRX' -- KRX | NASD | NYSE | etc.
);
```
Auto-migration: Adds `market` and `exchange_code` columns if missing for backward compatibility.
## Configuration
**Pydantic Settings** (`src/config.py`)
Loaded from `.env` file:
```bash
# Required
KIS_APP_KEY=your_app_key
KIS_APP_SECRET=your_app_secret
KIS_ACCOUNT_NO=XXXXXXXX-XX
GEMINI_API_KEY=your_gemini_key
# Optional
MODE=paper # paper | live
DB_PATH=data/trades.db
CONFIDENCE_THRESHOLD=80
MAX_LOSS_PCT=3.0
MAX_ORDER_PCT=30.0
ENABLED_MARKETS=KR,US_NASDAQ # Comma-separated market codes
```
Tests use in-memory SQLite (`DB_PATH=":memory:"`) and dummy credentials via `tests/conftest.py`.
## Error Handling
### Connection Errors (Broker API)
- Retry with exponential backoff (2^attempt seconds)
- Max 3 retries per stock
- After exhaustion, skip stock and continue with next
### API Quota Errors (Gemini)
- Return safe HOLD decision with confidence=0
- Log error but don't crash
- Agent continues trading on next cycle
### Circuit Breaker Tripped
- Immediately halt via `SystemExit`
- Log critical message
- Requires manual intervention to restart
### Market Closed
- Wait until next market opens
- Use `get_next_market_open()` to calculate wait time
- Sleep until market open time

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# Command Reference
## Common Command Failures
**Critical: Learn from failures. Never repeat the same failed command without modification.**
### tea CLI (Gitea Command Line Tool)
#### ❌ TTY Error - Interactive Confirmation Fails
```bash
~/bin/tea issues create --repo X --title "Y" --description "Z"
# Error: huh: could not open a new TTY: open /dev/tty: no such device or address
```
**💡 Reason:** tea tries to open `/dev/tty` for interactive confirmation prompts, which is unavailable in non-interactive environments.
**✅ Solution:** Use `YES=""` environment variable to bypass confirmation
```bash
YES="" ~/bin/tea issues create --repo jihoson/The-Ouroboros --title "Title" --description "Body"
YES="" ~/bin/tea issues edit <number> --repo jihoson/The-Ouroboros --description "Updated body"
YES="" ~/bin/tea pulls create --repo jihoson/The-Ouroboros --head feature-branch --base main --title "Title" --description "Body"
```
**📝 Notes:**
- Always set default login: `~/bin/tea login default local`
- Use `--repo jihoson/The-Ouroboros` when outside repo directory
- tea is preferred over direct Gitea API calls for consistency
#### ❌ Wrong Parameter Name
```bash
tea issues create --body "text"
# Error: flag provided but not defined: -body
```
**💡 Reason:** Parameter is `--description`, not `--body`.
**✅ Solution:** Use correct parameter name
```bash
YES="" ~/bin/tea issues create --description "text"
```
### Gitea API (Direct HTTP Calls)
#### ❌ Wrong Hostname
```bash
curl http://gitea.local:3000/api/v1/...
# Error: Could not resolve host: gitea.local
```
**💡 Reason:** Gitea instance runs on `localhost:3000`, not `gitea.local`.
**✅ Solution:** Use correct hostname (but prefer tea CLI)
```bash
curl http://localhost:3000/api/v1/repos/jihoson/The-Ouroboros/issues \
-H "Authorization: token $GITEA_TOKEN" \
-H "Content-Type: application/json" \
-d '{"title":"...", "body":"..."}'
```
**📝 Notes:**
- Prefer `tea` CLI over direct API calls
- Only use curl for operations tea doesn't support
### Git Commands
#### ❌ User Not Configured
```bash
git commit -m "message"
# Error: Author identity unknown
```
**💡 Reason:** Git user.name and user.email not set.
**✅ Solution:** Configure git user
```bash
git config user.name "agentson"
git config user.email "agentson@localhost"
```
#### ❌ Permission Denied on Push
```bash
git push origin branch
# Error: User permission denied for writing
```
**💡 Reason:** Repository access token lacks write permissions or user lacks repo write access.
**✅ Solution:**
1. Verify user has write access to repository (admin grants this)
2. Ensure git credential has correct token with `write:repository` scope
3. Check remote URL uses correct authentication
### Python/Pytest
#### ❌ Module Import Error
```bash
pytest tests/test_foo.py
# ModuleNotFoundError: No module named 'src'
```
**💡 Reason:** Package not installed in development mode.
**✅ Solution:** Install package with dev dependencies
```bash
pip install -e ".[dev]"
```
#### ❌ Async Test Hangs
```python
async def test_something(): # Hangs forever
result = await async_function()
```
**💡 Reason:** Missing pytest-asyncio or wrong configuration.
**✅ Solution:** Already configured in pyproject.toml
```toml
[tool.pytest.ini_options]
asyncio_mode = "auto"
```
No decorator needed for async tests.
## Build & Test Commands
```bash
# Install all dependencies (production + dev)
pip install -e ".[dev]"
# Run full test suite with coverage
pytest -v --cov=src --cov-report=term-missing
# Run a single test file
pytest tests/test_risk.py -v
# Run a single test by name
pytest tests/test_brain.py -k "test_parse_valid_json" -v
# Lint
ruff check src/ tests/
# Type check (strict mode, non-blocking in CI)
mypy src/ --strict
# Run the trading agent
python -m src.main --mode=paper
# Docker
docker compose up -d ouroboros # Run agent
docker compose --profile test up test # Run tests in container
```
## Environment Setup
```bash
# Create .env file from example
cp .env.example .env
# Edit .env with your credentials
# Required: KIS_APP_KEY, KIS_APP_SECRET, KIS_ACCOUNT_NO, GEMINI_API_KEY
# Verify configuration
python -c "from src.config import Settings; print(Settings())"
```

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# Context Tree: Multi-Layered Memory Management
The context tree implements **Pillar 2** of The Ouroboros: hierarchical memory management across 7 time horizons, from real-time market data to generational trading wisdom.
## Overview
Instead of a flat memory structure, The Ouroboros maintains a **7-tier context tree** where each layer represents a different time horizon and level of abstraction:
```
L1 (Legacy) ← Cumulative wisdom across generations
L2 (Annual) ← Yearly performance metrics
L3 (Quarterly) ← Quarterly strategy adjustments
L4 (Monthly) ← Monthly portfolio rebalancing
L5 (Weekly) ← Weekly stock selection
L6 (Daily) ← Daily trade logs
L7 (Real-time) ← Live market data
```
Data flows **bottom-up**: real-time trades aggregate into daily summaries, which roll up to weekly, then monthly, quarterly, annual, and finally into permanent legacy knowledge.
## The 7 Layers
### L7: Real-time
**Retention**: 7 days
**Timeframe format**: `YYYY-MM-DD` (same-day)
**Content**: Current positions, live quotes, orderbook snapshots, tick-by-tick volatility
**Use cases**:
- Immediate execution decisions
- Stop-loss triggers
- Real-time P&L tracking
**Example keys**:
- `current_position_{stock_code}`: Current holdings
- `live_price_{stock_code}`: Latest quote
- `volatility_5m_{stock_code}`: 5-minute rolling volatility
### L6: Daily
**Retention**: 90 days
**Timeframe format**: `YYYY-MM-DD`
**Content**: Daily trade logs, end-of-day P&L, market summaries, decision accuracy
**Use cases**:
- Daily performance review
- Identify patterns in recent trading
- Backtest strategy adjustments
**Example keys**:
- `total_pnl`: Daily profit/loss
- `trade_count`: Number of trades
- `win_rate`: Percentage of profitable trades
- `avg_confidence`: Average Gemini confidence
### L5: Weekly
**Retention**: 1 year
**Timeframe format**: `YYYY-Www` (ISO week, e.g., `2026-W06`)
**Content**: Weekly stock selection, sector rotation, volatility regime classification
**Use cases**:
- Weekly strategy adjustment
- Sector momentum tracking
- Identify hot/cold markets
**Example keys**:
- `weekly_pnl`: Week's total P&L
- `top_performers`: Best-performing stocks
- `sector_focus`: Dominant sectors
- `avg_confidence`: Weekly average confidence
### L4: Monthly
**Retention**: 2 years
**Timeframe format**: `YYYY-MM`
**Content**: Monthly portfolio rebalancing, risk exposure analysis, drawdown recovery
**Use cases**:
- Monthly performance reporting
- Risk exposure adjustment
- Correlation analysis
**Example keys**:
- `monthly_pnl`: Month's total P&L
- `sharpe_ratio`: Risk-adjusted return
- `max_drawdown`: Largest peak-to-trough decline
- `rebalancing_notes`: Manual insights
### L3: Quarterly
**Retention**: 3 years
**Timeframe format**: `YYYY-Qn` (e.g., `2026-Q1`)
**Content**: Quarterly strategy pivots, market phase detection (bull/bear/sideways), macro regime changes
**Use cases**:
- Strategic pivots (e.g., growth → value)
- Macro regime classification
- Long-term pattern recognition
**Example keys**:
- `quarterly_pnl`: Quarter's total P&L
- `market_phase`: Bull/Bear/Sideways
- `strategy_adjustments`: Major changes made
- `lessons_learned`: Key insights
### L2: Annual
**Retention**: 10 years
**Timeframe format**: `YYYY`
**Content**: Yearly returns, Sharpe ratio, max drawdown, win rate, strategy effectiveness
**Use cases**:
- Annual performance review
- Multi-year trend analysis
- Strategy benchmarking
**Example keys**:
- `annual_pnl`: Year's total P&L
- `sharpe_ratio`: Annual risk-adjusted return
- `win_rate`: Yearly win percentage
- `best_strategy`: Most successful strategy
- `worst_mistake`: Biggest lesson learned
### L1: Legacy
**Retention**: Forever
**Timeframe format**: `LEGACY` (single timeframe)
**Content**: Cumulative trading history, core principles, generational wisdom
**Use cases**:
- Long-term philosophy
- Foundational rules
- Lessons that transcend market cycles
**Example keys**:
- `total_pnl`: All-time profit/loss
- `years_traded`: Trading longevity
- `avg_annual_pnl`: Long-term average return
- `core_principles`: Immutable trading rules
- `greatest_trades`: Hall of fame
- `never_again`: Permanent warnings
## Usage
### Setting Context
```python
from src.context import ContextLayer, ContextStore
from src.db import init_db
conn = init_db("data/ouroboros.db")
store = ContextStore(conn)
# Store daily P&L
store.set_context(
layer=ContextLayer.L6_DAILY,
timeframe="2026-02-04",
key="total_pnl",
value=1234.56
)
# Store weekly insight
store.set_context(
layer=ContextLayer.L5_WEEKLY,
timeframe="2026-W06",
key="top_performers",
value=["005930", "000660", "035720"] # JSON-serializable
)
# Store legacy wisdom
store.set_context(
layer=ContextLayer.L1_LEGACY,
timeframe="LEGACY",
key="core_principles",
value=[
"Cut losses fast",
"Let winners run",
"Never average down on losing positions"
]
)
```
### Retrieving Context
```python
# Get a specific value
pnl = store.get_context(ContextLayer.L6_DAILY, "2026-02-04", "total_pnl")
# Returns: 1234.56
# Get all keys for a timeframe
daily_summary = store.get_all_contexts(ContextLayer.L6_DAILY, "2026-02-04")
# Returns: {"total_pnl": 1234.56, "trade_count": 10, "win_rate": 60.0, ...}
# Get all data for a layer (any timeframe)
all_daily = store.get_all_contexts(ContextLayer.L6_DAILY)
# Returns: {"total_pnl": 1234.56, "trade_count": 10, ...} (latest timeframes first)
# Get the latest timeframe
latest = store.get_latest_timeframe(ContextLayer.L6_DAILY)
# Returns: "2026-02-04"
```
### Automatic Aggregation
The `ContextAggregator` rolls up data from lower to higher layers:
```python
from src.context.aggregator import ContextAggregator
aggregator = ContextAggregator(conn)
# Aggregate daily metrics from trades
aggregator.aggregate_daily_from_trades("2026-02-04")
# Roll up weekly from daily
aggregator.aggregate_weekly_from_daily("2026-W06")
# Roll up all layers at once (bottom-up)
aggregator.run_all_aggregations()
```
**Aggregation schedule** (recommended):
- **L7 → L6**: Every midnight (daily rollup)
- **L6 → L5**: Every Sunday (weekly rollup)
- **L5 → L4**: First day of each month (monthly rollup)
- **L4 → L3**: First day of quarter (quarterly rollup)
- **L3 → L2**: January 1st (annual rollup)
- **L2 → L1**: On demand (major milestones)
### Context Cleanup
Expired contexts are automatically deleted based on retention policies:
```python
# Manual cleanup
deleted = store.cleanup_expired_contexts()
# Returns: {ContextLayer.L7_REALTIME: 42, ContextLayer.L6_DAILY: 15, ...}
```
**Retention policies** (defined in `src/context/layer.py`):
- L1: Forever
- L2: 10 years
- L3: 3 years
- L4: 2 years
- L5: 1 year
- L6: 90 days
- L7: 7 days
## Integration with Gemini Brain
The context tree provides hierarchical memory for decision-making:
```python
from src.brain.gemini_client import GeminiClient
# Build prompt with multi-layer context
def build_enhanced_prompt(stock_code: str, store: ContextStore) -> str:
# L7: Real-time data
current_price = store.get_context(ContextLayer.L7_REALTIME, "2026-02-04", f"live_price_{stock_code}")
# L6: Recent daily performance
yesterday_pnl = store.get_context(ContextLayer.L6_DAILY, "2026-02-03", "total_pnl")
# L5: Weekly trend
weekly_data = store.get_all_contexts(ContextLayer.L5_WEEKLY, "2026-W06")
# L1: Core principles
principles = store.get_context(ContextLayer.L1_LEGACY, "LEGACY", "core_principles")
return f"""
Analyze {stock_code} for trading decision.
Current price: {current_price}
Yesterday's P&L: {yesterday_pnl}
This week: {weekly_data}
Core principles:
{chr(10).join(f'- {p}' for p in principles)}
Decision (BUY/SELL/HOLD):
"""
```
## Database Schema
```sql
-- Context storage
CREATE TABLE contexts (
id INTEGER PRIMARY KEY AUTOINCREMENT,
layer TEXT NOT NULL, -- L1_LEGACY, L2_ANNUAL, ..., L7_REALTIME
timeframe TEXT NOT NULL, -- "LEGACY", "2026", "2026-Q1", "2026-02", "2026-W06", "2026-02-04"
key TEXT NOT NULL, -- "total_pnl", "win_rate", "core_principles", etc.
value TEXT NOT NULL, -- JSON-serialized value
created_at TEXT NOT NULL, -- ISO 8601 timestamp
updated_at TEXT NOT NULL, -- ISO 8601 timestamp
UNIQUE(layer, timeframe, key)
);
-- Layer metadata
CREATE TABLE context_metadata (
layer TEXT PRIMARY KEY,
description TEXT NOT NULL,
retention_days INTEGER, -- NULL = keep forever
aggregation_source TEXT -- Parent layer for rollup
);
-- Indices for fast queries
CREATE INDEX idx_contexts_layer ON contexts(layer);
CREATE INDEX idx_contexts_timeframe ON contexts(timeframe);
CREATE INDEX idx_contexts_updated ON contexts(updated_at);
```
## Best Practices
1. **Write to leaf layers only** — Never manually write to L1-L5; let aggregation populate them
2. **Aggregate regularly** — Schedule aggregation jobs to keep higher layers fresh
3. **Query specific timeframes** — Use `get_context(layer, timeframe, key)` for precise retrieval
4. **Clean up periodically** — Run `cleanup_expired_contexts()` weekly to free space
5. **Preserve L1 forever** — Legacy wisdom should never expire
6. **Use JSON-serializable values** — Store dicts, lists, strings, numbers (not custom objects)
## Testing
See `tests/test_context.py` for comprehensive test coverage (18 tests, 100% coverage on context modules).
```bash
pytest tests/test_context.py -v
```
## References
- **Implementation**: `src/context/`
- `layer.py`: Layer definitions and metadata
- `store.py`: CRUD operations
- `aggregator.py`: Bottom-up aggregation logic
- **Database**: `src/db.py` (table initialization)
- **Tests**: `tests/test_context.py`
- **Related**: Pillar 2 (Multi-layered Context Management)

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# Testing Guidelines
## Test Structure
**54 tests** across four files. `asyncio_mode = "auto"` in pyproject.toml — async tests need no special decorator.
The `settings` fixture in `conftest.py` provides safe defaults with test credentials and in-memory DB.
### Test Files
#### `tests/test_risk.py` (11 tests)
- Circuit breaker boundaries
- Fat-finger edge cases
- P&L calculation edge cases
- Order validation logic
**Example:**
```python
def test_circuit_breaker_exact_threshold(risk_manager):
"""Circuit breaker should trip at exactly -3.0%."""
with pytest.raises(CircuitBreakerTripped):
risk_manager.validate_order(
current_pnl_pct=-3.0,
order_amount=1000,
total_cash=10000
)
```
#### `tests/test_broker.py` (6 tests)
- OAuth token lifecycle
- Rate limiting enforcement
- Hash key generation
- Network error handling
- SSL context configuration
**Example:**
```python
async def test_rate_limiter(broker):
"""Rate limiter should delay requests to stay under 10 RPS."""
start = time.monotonic()
for _ in range(15): # 15 requests
await broker._rate_limiter.acquire()
elapsed = time.monotonic() - start
assert elapsed >= 1.0 # Should take at least 1 second
```
#### `tests/test_brain.py` (18 tests)
- Valid JSON parsing
- Markdown-wrapped JSON handling
- Malformed JSON fallback
- Missing fields handling
- Invalid action validation
- Confidence threshold enforcement
- Empty response handling
- Prompt construction for different markets
**Example:**
```python
async def test_confidence_below_threshold_forces_hold(brain):
"""Decisions below confidence threshold should force HOLD."""
decision = brain.parse_response('{"action":"BUY","confidence":70,"rationale":"test"}')
assert decision.action == "HOLD"
assert decision.confidence == 70
```
#### `tests/test_market_schedule.py` (19 tests)
- Market open/close logic
- Timezone handling (UTC, Asia/Seoul, America/New_York, etc.)
- DST (Daylight Saving Time) transitions
- Weekend handling
- Lunch break logic
- Multiple market filtering
- Next market open calculation
**Example:**
```python
def test_is_market_open_during_trading_hours():
"""Market should be open during regular trading hours."""
# KRX: 9:00-15:30 KST, no lunch break
market = MARKETS["KR"]
trading_time = datetime(2026, 2, 3, 10, 0, tzinfo=ZoneInfo("Asia/Seoul")) # Monday 10:00
assert is_market_open(market, trading_time) is True
```
## Coverage Requirements
**Minimum coverage: 80%**
Check coverage:
```bash
pytest -v --cov=src --cov-report=term-missing
```
Expected output:
```
Name Stmts Miss Cover Missing
-----------------------------------------------------------
src/brain/gemini_client.py 85 5 94% 165-169
src/broker/kis_api.py 120 12 90% ...
src/core/risk_manager.py 35 2 94% ...
src/db.py 25 1 96% ...
src/main.py 150 80 47% (excluded from CI)
src/markets/schedule.py 95 3 97% ...
-----------------------------------------------------------
TOTAL 510 103 80%
```
**Note:** `main.py` has lower coverage as it contains the main loop which is tested via integration/manual testing.
## Test Configuration
### `pyproject.toml`
```toml
[tool.pytest.ini_options]
asyncio_mode = "auto"
testpaths = ["tests"]
python_files = ["test_*.py"]
```
### `tests/conftest.py`
```python
@pytest.fixture
def settings() -> Settings:
"""Provide test settings with safe defaults."""
return Settings(
KIS_APP_KEY="test_key",
KIS_APP_SECRET="test_secret",
KIS_ACCOUNT_NO="12345678-01",
GEMINI_API_KEY="test_gemini_key",
MODE="paper",
DB_PATH=":memory:", # In-memory SQLite
CONFIDENCE_THRESHOLD=80,
ENABLED_MARKETS="KR",
)
```
## Writing New Tests
### Naming Convention
- Test files: `test_<module>.py`
- Test functions: `test_<feature>_<scenario>()`
- Use descriptive names that explain what is being tested
### Good Test Example
```python
async def test_send_order_with_market_price(broker, settings):
"""Market orders should use price=0 and ORD_DVSN='01'."""
# Arrange
stock_code = "005930"
order_type = "BUY"
quantity = 10
# Act
with patch.object(broker._session, 'post') as mock_post:
mock_post.return_value.__aenter__.return_value.status = 200
mock_post.return_value.__aenter__.return_value.json = AsyncMock(
return_value={"rt_cd": "0", "msg1": "OK"}
)
await broker.send_order(stock_code, order_type, quantity, price=0)
# Assert
call_args = mock_post.call_args
body = call_args.kwargs['json']
assert body['ORD_DVSN'] == '01' # Market order
assert body['ORD_UNPR'] == '0' # Price 0
```
### Test Checklist
- [ ] Test passes in isolation (`pytest tests/test_foo.py::test_bar -v`)
- [ ] Test has clear docstring explaining what it tests
- [ ] Arrange-Act-Assert structure
- [ ] Uses appropriate fixtures from conftest.py
- [ ] Mocks external dependencies (API calls, network)
- [ ] Tests edge cases and error conditions
- [ ] Doesn't rely on test execution order
## Running Tests
```bash
# All tests
pytest -v
# Specific file
pytest tests/test_risk.py -v
# Specific test
pytest tests/test_brain.py::test_parse_valid_json -v
# With coverage
pytest -v --cov=src --cov-report=term-missing
# Stop on first failure
pytest -x
# Verbose output with print statements
pytest -v -s
```
## CI/CD Integration
Tests run automatically on:
- Every commit to feature branches
- Every PR to main
- Scheduled daily runs
**Blocking conditions:**
- Test failures → PR blocked
- Coverage < 80% → PR blocked (warning only for main.py)
**Non-blocking:**
- `mypy --strict` errors (type hints encouraged but not enforced)
- `ruff check` warnings (must be acknowledged)

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# Development Workflow
## Git Workflow Policy
**CRITICAL: All code changes MUST follow this workflow. Direct pushes to `main` are ABSOLUTELY PROHIBITED.**
1. **Create Gitea Issue First** — All features, bug fixes, and policy changes require a Gitea issue before any code is written
2. **Create Feature Branch** — Branch from `main` using format `feature/issue-{N}-{short-description}`
3. **Implement Changes** — Write code, tests, and documentation on the feature branch
4. **Create Pull Request** — Submit PR to `main` branch referencing the issue number
5. **Review & Merge** — After approval, merge via PR (squash or merge commit)
**Never commit directly to `main`.** This policy applies to all changes, no exceptions.
## Agent Workflow
**Modern AI development leverages specialized agents for concurrent, efficient task execution.**
### Parallel Execution Strategy
Use **git worktree** or **subagents** (via the Task tool) to handle multiple requirements simultaneously:
- Each task runs in independent context
- Parallel branches for concurrent features
- Isolated test environments prevent interference
- Faster iteration with distributed workload
### Specialized Agent Roles
Deploy task-specific agents as needed instead of handling everything in the main conversation:
- **Conversational Agent** (main) — Interface with user, coordinate other agents
- **Ticket Management Agent** — Create/update Gitea issues, track task status
- **Design Agent** — Architectural planning, RFC documents, API design
- **Code Writing Agent** — Implementation following specs
- **Testing Agent** — Write tests, verify coverage, run test suites
- **Documentation Agent** — Update docs, docstrings, CLAUDE.md, README
- **Review Agent** — Code review, lint checks, security audits
- **Custom Agents** — Created dynamically for specialized tasks (performance analysis, migration scripts, etc.)
### When to Use Agents
**Prefer spawning specialized agents for:**
1. Complex multi-file changes requiring exploration
2. Tasks with clear, isolated scope (e.g., "write tests for module X")
3. Parallel work streams (feature A + bugfix B simultaneously)
4. Long-running analysis (codebase search, dependency audit)
5. Tasks requiring different contexts (multiple git worktrees)
**Use the main conversation for:**
1. User interaction and clarification
2. Quick single-file edits
3. Coordinating agent work
4. High-level decision making
### Implementation
```python
# Example: Spawn parallel test and documentation agents
task_tool(
subagent_type="general-purpose",
prompt="Write comprehensive tests for src/markets/schedule.py",
description="Write schedule tests"
)
task_tool(
subagent_type="general-purpose",
prompt="Update README.md with global market feature documentation",
description="Update README"
)
```
Use `run_in_background=True` for independent tasks that don't block subsequent work.

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"""Technical analysis and market scanning modules."""
from __future__ import annotations
from src.analysis.scanner import MarketScanner
from src.analysis.volatility import VolatilityAnalyzer
__all__ = ["VolatilityAnalyzer", "MarketScanner"]

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"""Real-time market scanner for detecting high-momentum stocks.
Scans all available stocks in a market and ranks by volatility/momentum score.
"""
from __future__ import annotations
import asyncio
import logging
from dataclasses import dataclass
from typing import Any
from src.analysis.volatility import VolatilityAnalyzer, VolatilityMetrics
from src.broker.kis_api import KISBroker
from src.broker.overseas import OverseasBroker
from src.context.layer import ContextLayer
from src.context.store import ContextStore
from src.markets.schedule import MarketInfo
logger = logging.getLogger(__name__)
@dataclass
class ScanResult:
"""Result from a market scan."""
market_code: str
timestamp: str
total_scanned: int
top_movers: list[VolatilityMetrics]
breakouts: list[str] # Stock codes with breakout patterns
breakdowns: list[str] # Stock codes with breakdown patterns
class MarketScanner:
"""Scans markets for high-volatility, high-momentum stocks."""
def __init__(
self,
broker: KISBroker,
overseas_broker: OverseasBroker,
volatility_analyzer: VolatilityAnalyzer,
context_store: ContextStore,
top_n: int = 5,
) -> None:
"""Initialize the market scanner.
Args:
broker: KIS broker instance for domestic market
overseas_broker: Overseas broker instance
volatility_analyzer: Volatility analyzer instance
context_store: Context store for L7 real-time data
top_n: Number of top movers to return per market (default 5)
"""
self.broker = broker
self.overseas_broker = overseas_broker
self.analyzer = volatility_analyzer
self.context_store = context_store
self.top_n = top_n
async def scan_stock(
self,
stock_code: str,
market: MarketInfo,
) -> VolatilityMetrics | None:
"""Scan a single stock for volatility metrics.
Args:
stock_code: Stock code to scan
market: Market information
Returns:
VolatilityMetrics if successful, None on error
"""
try:
if market.is_domestic:
orderbook = await self.broker.get_orderbook(stock_code)
else:
# For overseas, we need to adapt the price data structure
price_data = await self.overseas_broker.get_overseas_price(
market.exchange_code, stock_code
)
# Convert to orderbook-like structure
orderbook = {
"output1": {
"stck_prpr": price_data.get("output", {}).get("last", "0"),
"acml_vol": price_data.get("output", {}).get("tvol", "0"),
}
}
# For now, use empty price history (would need real historical data)
# In production, this would fetch from a time-series database or API
price_history: dict[str, Any] = {
"high": [],
"low": [],
"close": [],
"volume": [],
}
metrics = self.analyzer.analyze(stock_code, orderbook, price_history)
# Store in L7 real-time layer
from datetime import UTC, datetime
timeframe = datetime.now(UTC).isoformat()
self.context_store.set_context(
ContextLayer.L7_REALTIME,
timeframe,
f"{market.code}_{stock_code}_volatility",
{
"price": metrics.current_price,
"atr": metrics.atr,
"price_change_1m": metrics.price_change_1m,
"volume_surge": metrics.volume_surge,
"momentum_score": metrics.momentum_score,
},
)
return metrics
except Exception as exc:
logger.warning("Failed to scan %s (%s): %s", stock_code, market.code, exc)
return None
async def scan_market(
self,
market: MarketInfo,
stock_codes: list[str],
) -> ScanResult:
"""Scan all stocks in a market and rank by momentum.
Args:
market: Market to scan
stock_codes: List of stock codes to scan
Returns:
ScanResult with ranked stocks
"""
from datetime import UTC, datetime
logger.info("Scanning %s market (%d stocks)", market.name, len(stock_codes))
# Scan all stocks concurrently (with rate limiting handled by broker)
tasks = [self.scan_stock(code, market) for code in stock_codes]
results = await asyncio.gather(*tasks)
# Filter out failures and sort by momentum score
valid_metrics = [m for m in results if m is not None]
valid_metrics.sort(key=lambda m: m.momentum_score, reverse=True)
# Get top N movers
top_movers = valid_metrics[: self.top_n]
# Detect breakouts and breakdowns
breakouts = [
m.stock_code for m in valid_metrics if self.analyzer.is_breakout(m)
]
breakdowns = [
m.stock_code for m in valid_metrics if self.analyzer.is_breakdown(m)
]
logger.info(
"%s scan complete: %d scanned, top momentum=%.1f, %d breakouts, %d breakdowns",
market.name,
len(valid_metrics),
top_movers[0].momentum_score if top_movers else 0.0,
len(breakouts),
len(breakdowns),
)
# Store scan results in L7
timeframe = datetime.now(UTC).isoformat()
self.context_store.set_context(
ContextLayer.L7_REALTIME,
timeframe,
f"{market.code}_scan_result",
{
"total_scanned": len(valid_metrics),
"top_movers": [m.stock_code for m in top_movers],
"breakouts": breakouts,
"breakdowns": breakdowns,
},
)
return ScanResult(
market_code=market.code,
timestamp=timeframe,
total_scanned=len(valid_metrics),
top_movers=top_movers,
breakouts=breakouts,
breakdowns=breakdowns,
)
def get_updated_watchlist(
self,
current_watchlist: list[str],
scan_result: ScanResult,
max_replacements: int = 2,
) -> list[str]:
"""Update watchlist by replacing laggards with leaders.
Args:
current_watchlist: Current watchlist
scan_result: Recent scan result
max_replacements: Maximum stocks to replace per scan
Returns:
Updated watchlist with leaders
"""
# Keep stocks that are in top movers
top_codes = [m.stock_code for m in scan_result.top_movers]
keepers = [code for code in current_watchlist if code in top_codes]
# Add new leaders not in current watchlist
new_leaders = [code for code in top_codes if code not in current_watchlist]
# Limit replacements
new_leaders = new_leaders[:max_replacements]
# Create updated watchlist
updated = keepers + new_leaders
# If we removed too many, backfill from current watchlist
if len(updated) < len(current_watchlist):
backfill = [
code for code in current_watchlist
if code not in updated
][: len(current_watchlist) - len(updated)]
updated.extend(backfill)
logger.info(
"Watchlist updated: %d kept, %d new leaders, %d total",
len(keepers),
len(new_leaders),
len(updated),
)
return updated

325
src/analysis/volatility.py Normal file
View File

@@ -0,0 +1,325 @@
"""Volatility and momentum analysis for stock selection.
Calculates ATR, price change percentages, volume surges, and price-volume divergence.
"""
from __future__ import annotations
from dataclasses import dataclass
from typing import Any
@dataclass
class VolatilityMetrics:
"""Volatility and momentum metrics for a stock."""
stock_code: str
current_price: float
atr: float # Average True Range (14 periods)
price_change_1m: float # 1-minute price change %
price_change_5m: float # 5-minute price change %
price_change_15m: float # 15-minute price change %
volume_surge: float # Volume vs average (ratio)
pv_divergence: float # Price-volume divergence score
momentum_score: float # Combined momentum score (0-100)
def __repr__(self) -> str:
return (
f"VolatilityMetrics({self.stock_code}: "
f"price={self.current_price:.2f}, "
f"atr={self.atr:.2f}, "
f"1m={self.price_change_1m:.2f}%, "
f"vol_surge={self.volume_surge:.2f}x, "
f"momentum={self.momentum_score:.1f})"
)
class VolatilityAnalyzer:
"""Analyzes stock volatility and momentum for leader detection."""
def __init__(self, min_volume_surge: float = 2.0, min_price_change: float = 1.0) -> None:
"""Initialize the volatility analyzer.
Args:
min_volume_surge: Minimum volume surge ratio (default 2x average)
min_price_change: Minimum price change % for breakout (default 1%)
"""
self.min_volume_surge = min_volume_surge
self.min_price_change = min_price_change
def calculate_atr(
self,
high_prices: list[float],
low_prices: list[float],
close_prices: list[float],
period: int = 14,
) -> float:
"""Calculate Average True Range (ATR).
Args:
high_prices: List of high prices (most recent last)
low_prices: List of low prices (most recent last)
close_prices: List of close prices (most recent last)
period: ATR period (default 14)
Returns:
ATR value
"""
if (
len(high_prices) < period + 1
or len(low_prices) < period + 1
or len(close_prices) < period + 1
):
return 0.0
true_ranges: list[float] = []
for i in range(1, len(high_prices)):
high = high_prices[i]
low = low_prices[i]
prev_close = close_prices[i - 1]
tr = max(
high - low,
abs(high - prev_close),
abs(low - prev_close),
)
true_ranges.append(tr)
if len(true_ranges) < period:
return 0.0
# Simple Moving Average of True Range
recent_tr = true_ranges[-period:]
return sum(recent_tr) / len(recent_tr)
def calculate_price_change(
self, current_price: float, past_price: float
) -> float:
"""Calculate price change percentage.
Args:
current_price: Current price
past_price: Past price to compare against
Returns:
Price change percentage
"""
if past_price == 0:
return 0.0
return ((current_price - past_price) / past_price) * 100
def calculate_volume_surge(
self, current_volume: float, avg_volume: float
) -> float:
"""Calculate volume surge ratio.
Args:
current_volume: Current volume
avg_volume: Average volume
Returns:
Volume surge ratio (current / average)
"""
if avg_volume == 0:
return 1.0
return current_volume / avg_volume
def calculate_pv_divergence(
self,
price_change: float,
volume_surge: float,
) -> float:
"""Calculate price-volume divergence score.
Positive divergence: Price up + Volume up = bullish
Negative divergence: Price up + Volume down = bearish
Neutral: Price/volume move together moderately
Args:
price_change: Price change percentage
volume_surge: Volume surge ratio
Returns:
Divergence score (-100 to +100)
"""
# Normalize volume surge to -1 to +1 scale (1.0 = neutral)
volume_signal = (volume_surge - 1.0) * 10 # Scale for sensitivity
# Calculate divergence
# Positive: price and volume move in same direction
# Negative: price and volume move in opposite directions
if price_change > 0 and volume_surge > 1.0:
# Bullish: price up, volume up
return min(100.0, price_change * volume_signal)
elif price_change < 0 and volume_surge < 1.0:
# Bearish confirmation: price down, volume down
return max(-100.0, price_change * volume_signal)
elif price_change > 0 and volume_surge < 1.0:
# Bearish divergence: price up but volume low (weak rally)
return -abs(price_change) * 0.5
elif price_change < 0 and volume_surge > 1.0:
# Selling pressure: price down, volume up
return price_change * volume_signal
else:
return 0.0
def calculate_momentum_score(
self,
price_change_1m: float,
price_change_5m: float,
price_change_15m: float,
volume_surge: float,
atr: float,
current_price: float,
) -> float:
"""Calculate combined momentum score (0-100).
Weights:
- 1m change: 40%
- 5m change: 30%
- 15m change: 20%
- Volume surge: 10%
Args:
price_change_1m: 1-minute price change %
price_change_5m: 5-minute price change %
price_change_15m: 15-minute price change %
volume_surge: Volume surge ratio
atr: Average True Range
current_price: Current price
Returns:
Momentum score (0-100)
"""
# Weight recent changes more heavily
weighted_change = (
price_change_1m * 0.4 +
price_change_5m * 0.3 +
price_change_15m * 0.2
)
# Volume contribution (normalized to 0-10 scale)
volume_contribution = min(10.0, (volume_surge - 1.0) * 5.0)
# Volatility bonus: higher ATR = higher potential (normalized)
volatility_bonus = 0.0
if current_price > 0:
atr_pct = (atr / current_price) * 100
volatility_bonus = min(10.0, atr_pct)
# Combine scores
raw_score = weighted_change + volume_contribution + volatility_bonus
# Normalize to 0-100 scale
# Assume typical momentum range is -10 to +30
normalized = ((raw_score + 10) / 40) * 100
return max(0.0, min(100.0, normalized))
def analyze(
self,
stock_code: str,
orderbook_data: dict[str, Any],
price_history: dict[str, Any],
) -> VolatilityMetrics:
"""Analyze volatility and momentum for a stock.
Args:
stock_code: Stock code
orderbook_data: Current orderbook/quote data
price_history: Historical price and volume data
Returns:
VolatilityMetrics with calculated indicators
"""
# Extract current data from orderbook
output1 = orderbook_data.get("output1", {})
current_price = float(output1.get("stck_prpr", 0))
current_volume = float(output1.get("acml_vol", 0))
# Extract historical data
high_prices = price_history.get("high", [])
low_prices = price_history.get("low", [])
close_prices = price_history.get("close", [])
volumes = price_history.get("volume", [])
# Calculate ATR
atr = self.calculate_atr(high_prices, low_prices, close_prices)
# Calculate price changes (use historical data if available)
price_change_1m = 0.0
price_change_5m = 0.0
price_change_15m = 0.0
if len(close_prices) > 0:
if len(close_prices) >= 1:
price_change_1m = self.calculate_price_change(
current_price, close_prices[-1]
)
if len(close_prices) >= 5:
price_change_5m = self.calculate_price_change(
current_price, close_prices[-5]
)
if len(close_prices) >= 15:
price_change_15m = self.calculate_price_change(
current_price, close_prices[-15]
)
# Calculate volume surge
avg_volume = sum(volumes) / len(volumes) if volumes else current_volume
volume_surge = self.calculate_volume_surge(current_volume, avg_volume)
# Calculate price-volume divergence
pv_divergence = self.calculate_pv_divergence(price_change_1m, volume_surge)
# Calculate momentum score
momentum_score = self.calculate_momentum_score(
price_change_1m,
price_change_5m,
price_change_15m,
volume_surge,
atr,
current_price,
)
return VolatilityMetrics(
stock_code=stock_code,
current_price=current_price,
atr=atr,
price_change_1m=price_change_1m,
price_change_5m=price_change_5m,
price_change_15m=price_change_15m,
volume_surge=volume_surge,
pv_divergence=pv_divergence,
momentum_score=momentum_score,
)
def is_breakout(self, metrics: VolatilityMetrics) -> bool:
"""Determine if a stock is experiencing a breakout.
Args:
metrics: Volatility metrics for the stock
Returns:
True if breakout conditions are met
"""
return (
metrics.price_change_1m >= self.min_price_change
and metrics.volume_surge >= self.min_volume_surge
and metrics.pv_divergence > 0 # Bullish divergence
)
def is_breakdown(self, metrics: VolatilityMetrics) -> bool:
"""Determine if a stock is experiencing a breakdown.
Args:
metrics: Volatility metrics for the stock
Returns:
True if breakdown conditions are met
"""
return (
metrics.price_change_1m <= -self.min_price_change
and metrics.volume_surge >= self.min_volume_surge
and metrics.pv_divergence < 0 # Bearish divergence
)

View File

@@ -49,15 +49,40 @@ class GeminiClient:
The prompt instructs Gemini to return valid JSON with action, The prompt instructs Gemini to return valid JSON with action,
confidence, and rationale fields. confidence, and rationale fields.
""" """
market_name = market_data.get("market_name", "Korean stock market")
# Build market data section dynamically based on available fields
market_info_lines = [
f"Market: {market_name}",
f"Stock Code: {market_data['stock_code']}",
f"Current Price: {market_data['current_price']}",
]
# Add orderbook if available (domestic markets)
if "orderbook" in market_data:
market_info_lines.append(
f"Orderbook: {json.dumps(market_data['orderbook'], ensure_ascii=False)}"
)
# Add foreigner net if non-zero
if market_data.get("foreigner_net", 0) != 0:
market_info_lines.append(
f"Foreigner Net Buy/Sell: {market_data['foreigner_net']}"
)
market_info = "\n".join(market_info_lines)
json_format = (
'{"action": "BUY"|"SELL"|"HOLD", '
'"confidence": <int 0-100>, "rationale": "<string>"}'
)
return ( return (
"You are a professional Korean stock market trading analyst.\n" f"You are a professional {market_name} trading analyst.\n"
"Analyze the following market data and decide whether to BUY, SELL, or HOLD.\n\n" "Analyze the following market data and decide whether to "
f"Stock Code: {market_data['stock_code']}\n" "BUY, SELL, or HOLD.\n\n"
f"Current Price: {market_data['current_price']}\n" f"{market_info}\n\n"
f"Orderbook: {json.dumps(market_data['orderbook'], ensure_ascii=False)}\n"
f"Foreigner Net Buy/Sell: {market_data['foreigner_net']}\n\n"
"You MUST respond with ONLY valid JSON in the following format:\n" "You MUST respond with ONLY valid JSON in the following format:\n"
'{"action": "BUY"|"SELL"|"HOLD", "confidence": <int 0-100>, "rationale": "<string>"}\n\n' f"{json_format}\n\n"
"Rules:\n" "Rules:\n"
"- action must be exactly one of: BUY, SELL, HOLD\n" "- action must be exactly one of: BUY, SELL, HOLD\n"
"- confidence must be an integer from 0 to 100\n" "- confidence must be an integer from 0 to 100\n"

View File

@@ -6,11 +6,8 @@ Handles token refresh, rate limiting (leaky bucket), and hash key generation.
from __future__ import annotations from __future__ import annotations
import asyncio import asyncio
import hashlib
import json
import logging import logging
import ssl import ssl
import time
from typing import Any from typing import Any
import aiohttp import aiohttp
@@ -168,7 +165,7 @@ class KISBroker:
f"get_orderbook failed ({resp.status}): {text}" f"get_orderbook failed ({resp.status}): {text}"
) )
return await resp.json() return await resp.json()
except (aiohttp.ClientError, asyncio.TimeoutError) as exc: except (TimeoutError, aiohttp.ClientError) as exc:
raise ConnectionError(f"Network error fetching orderbook: {exc}") from exc raise ConnectionError(f"Network error fetching orderbook: {exc}") from exc
async def get_balance(self) -> dict[str, Any]: async def get_balance(self) -> dict[str, Any]:
@@ -200,7 +197,7 @@ class KISBroker:
f"get_balance failed ({resp.status}): {text}" f"get_balance failed ({resp.status}): {text}"
) )
return await resp.json() return await resp.json()
except (aiohttp.ClientError, asyncio.TimeoutError) as exc: except (TimeoutError, aiohttp.ClientError) as exc:
raise ConnectionError(f"Network error fetching balance: {exc}") from exc raise ConnectionError(f"Network error fetching balance: {exc}") from exc
async def send_order( async def send_order(
@@ -253,5 +250,5 @@ class KISBroker:
}, },
) )
return data return data
except (aiohttp.ClientError, asyncio.TimeoutError) as exc: except (TimeoutError, aiohttp.ClientError) as exc:
raise ConnectionError(f"Network error sending order: {exc}") from exc raise ConnectionError(f"Network error sending order: {exc}") from exc

200
src/broker/overseas.py Normal file
View File

@@ -0,0 +1,200 @@
"""KIS Overseas Stock API client."""
from __future__ import annotations
import logging
from typing import Any
import aiohttp
from src.broker.kis_api import KISBroker
logger = logging.getLogger(__name__)
class OverseasBroker:
"""KIS Overseas Stock API wrapper that reuses KISBroker infrastructure."""
def __init__(self, kis_broker: KISBroker) -> None:
"""
Initialize overseas broker.
Args:
kis_broker: Domestic KIS broker instance to reuse session/token/rate limiter
"""
self._broker = kis_broker
async def get_overseas_price(
self, exchange_code: str, stock_code: str
) -> dict[str, Any]:
"""
Fetch overseas stock price.
Args:
exchange_code: Exchange code (e.g., "NASD", "NYSE", "TSE")
stock_code: Stock ticker symbol
Returns:
API response with price data
Raises:
ConnectionError: On network or API errors
"""
await self._broker._rate_limiter.acquire()
session = self._broker._get_session()
headers = await self._broker._auth_headers("HHDFS00000300")
params = {
"AUTH": "",
"EXCD": exchange_code,
"SYMB": stock_code,
}
url = f"{self._broker._base_url}/uapi/overseas-price/v1/quotations/price"
try:
async with session.get(url, headers=headers, params=params) as resp:
if resp.status != 200:
text = await resp.text()
raise ConnectionError(
f"get_overseas_price failed ({resp.status}): {text}"
)
return await resp.json()
except (TimeoutError, aiohttp.ClientError) as exc:
raise ConnectionError(
f"Network error fetching overseas price: {exc}"
) from exc
async def get_overseas_balance(self, exchange_code: str) -> dict[str, Any]:
"""
Fetch overseas account balance.
Args:
exchange_code: Exchange code (e.g., "NASD", "NYSE")
Returns:
API response with balance data
Raises:
ConnectionError: On network or API errors
"""
await self._broker._rate_limiter.acquire()
session = self._broker._get_session()
# Virtual trading TR_ID for overseas balance inquiry
headers = await self._broker._auth_headers("VTTS3012R")
params = {
"CANO": self._broker._account_no,
"ACNT_PRDT_CD": self._broker._product_cd,
"OVRS_EXCG_CD": exchange_code,
"TR_CRCY_CD": self._get_currency_code(exchange_code),
"CTX_AREA_FK200": "",
"CTX_AREA_NK200": "",
}
url = (
f"{self._broker._base_url}/uapi/overseas-stock/v1/trading/inquire-balance"
)
try:
async with session.get(url, headers=headers, params=params) as resp:
if resp.status != 200:
text = await resp.text()
raise ConnectionError(
f"get_overseas_balance failed ({resp.status}): {text}"
)
return await resp.json()
except (TimeoutError, aiohttp.ClientError) as exc:
raise ConnectionError(
f"Network error fetching overseas balance: {exc}"
) from exc
async def send_overseas_order(
self,
exchange_code: str,
stock_code: str,
order_type: str, # "BUY" or "SELL"
quantity: int,
price: float = 0.0,
) -> dict[str, Any]:
"""
Submit overseas stock order.
Args:
exchange_code: Exchange code (e.g., "NASD", "NYSE")
stock_code: Stock ticker symbol
order_type: "BUY" or "SELL"
quantity: Number of shares
price: Order price (0 for market order)
Returns:
API response with order result
Raises:
ConnectionError: On network or API errors
"""
await self._broker._rate_limiter.acquire()
session = self._broker._get_session()
# Virtual trading TR_IDs for overseas orders
tr_id = "VTTT1002U" if order_type == "BUY" else "VTTT1006U"
body = {
"CANO": self._broker._account_no,
"ACNT_PRDT_CD": self._broker._product_cd,
"OVRS_EXCG_CD": exchange_code,
"PDNO": stock_code,
"ORD_DVSN": "00" if price > 0 else "01", # 00=지정가, 01=시장가
"ORD_QTY": str(quantity),
"OVRS_ORD_UNPR": str(price) if price > 0 else "0",
"ORD_SVR_DVSN_CD": "0", # 0=해외주문
}
hash_key = await self._broker._get_hash_key(body)
headers = await self._broker._auth_headers(tr_id)
headers["hashkey"] = hash_key
url = f"{self._broker._base_url}/uapi/overseas-stock/v1/trading/order"
try:
async with session.post(url, headers=headers, json=body) as resp:
if resp.status != 200:
text = await resp.text()
raise ConnectionError(
f"send_overseas_order failed ({resp.status}): {text}"
)
data = await resp.json()
logger.info(
"Overseas order submitted",
extra={
"exchange": exchange_code,
"stock_code": stock_code,
"action": order_type,
},
)
return data
except (TimeoutError, aiohttp.ClientError) as exc:
raise ConnectionError(
f"Network error sending overseas order: {exc}"
) from exc
def _get_currency_code(self, exchange_code: str) -> str:
"""
Map exchange code to currency code.
Args:
exchange_code: Exchange code
Returns:
Currency code (e.g., "USD", "JPY")
"""
currency_map = {
"NASD": "USD",
"NYSE": "USD",
"AMEX": "USD",
"TSE": "JPY",
"SEHK": "HKD",
"SHAA": "CNY",
"SZAA": "CNY",
"HNX": "VND",
"HSX": "VND",
}
return currency_map.get(exchange_code, "USD")

View File

@@ -33,6 +33,9 @@ class Settings(BaseSettings):
# Trading mode # Trading mode
MODE: str = Field(default="paper", pattern="^(paper|live)$") MODE: str = Field(default="paper", pattern="^(paper|live)$")
# Market selection (comma-separated market codes)
ENABLED_MARKETS: str = "KR"
model_config = {"env_file": ".env", "env_file_encoding": "utf-8"} model_config = {"env_file": ".env", "env_file_encoding": "utf-8"}
@property @property
@@ -42,3 +45,8 @@ class Settings(BaseSettings):
@property @property
def account_product_code(self) -> str: def account_product_code(self) -> str:
return self.KIS_ACCOUNT_NO.split("-")[1] return self.KIS_ACCOUNT_NO.split("-")[1]
@property
def enabled_market_list(self) -> list[str]:
"""Parse ENABLED_MARKETS into list of market codes."""
return [m.strip() for m in self.ENABLED_MARKETS.split(",") if m.strip()]

10
src/context/__init__.py Normal file
View File

@@ -0,0 +1,10 @@
"""Multi-layered context management system for trading decisions.
The context tree implements Pillar 2: hierarchical memory management across
7 time horizons, from real-time quotes to generational wisdom.
"""
from src.context.layer import ContextLayer
from src.context.store import ContextStore
__all__ = ["ContextLayer", "ContextStore"]

250
src/context/aggregator.py Normal file
View File

@@ -0,0 +1,250 @@
"""Context aggregation logic for rolling up data from lower to higher layers."""
from __future__ import annotations
import sqlite3
from datetime import UTC, datetime
from typing import Any
from src.context.layer import ContextLayer
from src.context.store import ContextStore
class ContextAggregator:
"""Aggregates context data from lower (finer) to higher (coarser) layers."""
def __init__(self, conn: sqlite3.Connection) -> None:
"""Initialize the aggregator with a database connection."""
self.conn = conn
self.store = ContextStore(conn)
def aggregate_daily_from_trades(self, date: str | None = None) -> None:
"""Aggregate L6 (daily) context from trades table.
Args:
date: Date in YYYY-MM-DD format. If None, uses today.
"""
if date is None:
date = datetime.now(UTC).date().isoformat()
# Calculate daily metrics from trades
cursor = self.conn.execute(
"""
SELECT
COUNT(*) as trade_count,
SUM(CASE WHEN action = 'BUY' THEN 1 ELSE 0 END) as buys,
SUM(CASE WHEN action = 'SELL' THEN 1 ELSE 0 END) as sells,
SUM(CASE WHEN action = 'HOLD' THEN 1 ELSE 0 END) as holds,
AVG(confidence) as avg_confidence,
SUM(pnl) as total_pnl,
COUNT(DISTINCT stock_code) as unique_stocks,
SUM(CASE WHEN pnl > 0 THEN 1 ELSE 0 END) as wins,
SUM(CASE WHEN pnl < 0 THEN 1 ELSE 0 END) as losses
FROM trades
WHERE DATE(timestamp) = ?
""",
(date,),
)
row = cursor.fetchone()
if row and row[0] > 0: # At least one trade
trade_count, buys, sells, holds, avg_conf, total_pnl, stocks, wins, losses = row
# Store daily metrics in L6
self.store.set_context(ContextLayer.L6_DAILY, date, "trade_count", trade_count)
self.store.set_context(ContextLayer.L6_DAILY, date, "buys", buys)
self.store.set_context(ContextLayer.L6_DAILY, date, "sells", sells)
self.store.set_context(ContextLayer.L6_DAILY, date, "holds", holds)
self.store.set_context(
ContextLayer.L6_DAILY, date, "avg_confidence", round(avg_conf, 2)
)
self.store.set_context(
ContextLayer.L6_DAILY, date, "total_pnl", round(total_pnl, 2)
)
self.store.set_context(ContextLayer.L6_DAILY, date, "unique_stocks", stocks)
win_rate = round(wins / max(wins + losses, 1) * 100, 2)
self.store.set_context(ContextLayer.L6_DAILY, date, "win_rate", win_rate)
def aggregate_weekly_from_daily(self, week: str | None = None) -> None:
"""Aggregate L5 (weekly) context from L6 (daily).
Args:
week: Week in YYYY-Www format (ISO week). If None, uses current week.
"""
if week is None:
week = datetime.now(UTC).strftime("%Y-W%V")
# Get all daily contexts for this week
cursor = self.conn.execute(
"""
SELECT key, value FROM contexts
WHERE layer = ? AND timeframe LIKE ?
""",
(ContextLayer.L6_DAILY.value, f"{week[:4]}-%"), # All days in the year
)
# Group by key and collect all values
import json
from collections import defaultdict
daily_data: dict[str, list[Any]] = defaultdict(list)
for row in cursor.fetchall():
daily_data[row[0]].append(json.loads(row[1]))
if daily_data:
# Sum all PnL values
if "total_pnl" in daily_data:
total_pnl = sum(daily_data["total_pnl"])
self.store.set_context(
ContextLayer.L5_WEEKLY, week, "weekly_pnl", round(total_pnl, 2)
)
# Average all confidence values
if "avg_confidence" in daily_data:
conf_values = daily_data["avg_confidence"]
avg_conf = sum(conf_values) / len(conf_values)
self.store.set_context(
ContextLayer.L5_WEEKLY, week, "avg_confidence", round(avg_conf, 2)
)
def aggregate_monthly_from_weekly(self, month: str | None = None) -> None:
"""Aggregate L4 (monthly) context from L5 (weekly).
Args:
month: Month in YYYY-MM format. If None, uses current month.
"""
if month is None:
month = datetime.now(UTC).strftime("%Y-%m")
# Get all weekly contexts for this month
cursor = self.conn.execute(
"""
SELECT key, value FROM contexts
WHERE layer = ? AND timeframe LIKE ?
""",
(ContextLayer.L5_WEEKLY.value, f"{month[:4]}-W%"),
)
# Group by key and collect all values
import json
from collections import defaultdict
weekly_data: dict[str, list[Any]] = defaultdict(list)
for row in cursor.fetchall():
weekly_data[row[0]].append(json.loads(row[1]))
if weekly_data:
# Sum all weekly PnL values
if "weekly_pnl" in weekly_data:
total_pnl = sum(weekly_data["weekly_pnl"])
self.store.set_context(
ContextLayer.L4_MONTHLY, month, "monthly_pnl", round(total_pnl, 2)
)
def aggregate_quarterly_from_monthly(self, quarter: str | None = None) -> None:
"""Aggregate L3 (quarterly) context from L4 (monthly).
Args:
quarter: Quarter in YYYY-Qn format. If None, uses current quarter.
"""
if quarter is None:
from datetime import datetime
now = datetime.now(UTC)
q = (now.month - 1) // 3 + 1
quarter = f"{now.year}-Q{q}"
# Get all monthly contexts for this quarter
# Q1: 01-03, Q2: 04-06, Q3: 07-09, Q4: 10-12
q_num = int(quarter.split("-Q")[1])
months = [f"{quarter[:4]}-{m:02d}" for m in range((q_num - 1) * 3 + 1, q_num * 3 + 1)]
total_pnl = 0.0
for month in months:
monthly_pnl = self.store.get_context(
ContextLayer.L4_MONTHLY, month, "monthly_pnl"
)
if monthly_pnl is not None:
total_pnl += monthly_pnl
self.store.set_context(
ContextLayer.L3_QUARTERLY, quarter, "quarterly_pnl", round(total_pnl, 2)
)
def aggregate_annual_from_quarterly(self, year: str | None = None) -> None:
"""Aggregate L2 (annual) context from L3 (quarterly).
Args:
year: Year in YYYY format. If None, uses current year.
"""
if year is None:
year = str(datetime.now(UTC).year)
# Get all quarterly contexts for this year
total_pnl = 0.0
for q in range(1, 5):
quarter = f"{year}-Q{q}"
quarterly_pnl = self.store.get_context(
ContextLayer.L3_QUARTERLY, quarter, "quarterly_pnl"
)
if quarterly_pnl is not None:
total_pnl += quarterly_pnl
self.store.set_context(
ContextLayer.L2_ANNUAL, year, "annual_pnl", round(total_pnl, 2)
)
def aggregate_legacy_from_annual(self) -> None:
"""Aggregate L1 (legacy) context from all L2 (annual) data."""
# Get all annual PnL
cursor = self.conn.execute(
"""
SELECT timeframe, value FROM contexts
WHERE layer = ? AND key = ?
ORDER BY timeframe
""",
(ContextLayer.L2_ANNUAL.value, "annual_pnl"),
)
import json
annual_data = [(row[0], json.loads(row[1])) for row in cursor.fetchall()]
if annual_data:
total_pnl = sum(pnl for _, pnl in annual_data)
years_traded = len(annual_data)
avg_annual_pnl = total_pnl / years_traded
# Store in L1 (single "LEGACY" timeframe)
self.store.set_context(
ContextLayer.L1_LEGACY, "LEGACY", "total_pnl", round(total_pnl, 2)
)
self.store.set_context(
ContextLayer.L1_LEGACY, "LEGACY", "years_traded", years_traded
)
self.store.set_context(
ContextLayer.L1_LEGACY,
"LEGACY",
"avg_annual_pnl",
round(avg_annual_pnl, 2),
)
def run_all_aggregations(self) -> None:
"""Run all aggregations from L7 to L1 (bottom-up)."""
# L7 (trades) → L6 (daily)
self.aggregate_daily_from_trades()
# L6 (daily) → L5 (weekly)
self.aggregate_weekly_from_daily()
# L5 (weekly) → L4 (monthly)
self.aggregate_monthly_from_weekly()
# L4 (monthly) → L3 (quarterly)
self.aggregate_quarterly_from_monthly()
# L3 (quarterly) → L2 (annual)
self.aggregate_annual_from_quarterly()
# L2 (annual) → L1 (legacy)
self.aggregate_legacy_from_annual()

75
src/context/layer.py Normal file
View File

@@ -0,0 +1,75 @@
"""Context layer definitions for multi-tier memory management."""
from __future__ import annotations
from dataclasses import dataclass
from enum import Enum
class ContextLayer(str, Enum):
"""7-tier context hierarchy from real-time to generational."""
L1_LEGACY = "L1_LEGACY" # Cumulative/generational wisdom
L2_ANNUAL = "L2_ANNUAL" # Yearly performance
L3_QUARTERLY = "L3_QUARTERLY" # Quarterly strategy adjustments
L4_MONTHLY = "L4_MONTHLY" # Monthly rebalancing
L5_WEEKLY = "L5_WEEKLY" # Weekly stock selection
L6_DAILY = "L6_DAILY" # Daily trade logs
L7_REALTIME = "L7_REALTIME" # Real-time market data
@dataclass(frozen=True)
class LayerMetadata:
"""Metadata for each context layer."""
layer: ContextLayer
description: str
retention_days: int | None # None = keep forever
aggregation_source: ContextLayer | None # Parent layer for aggregation
# Layer configuration
LAYER_CONFIG: dict[ContextLayer, LayerMetadata] = {
ContextLayer.L1_LEGACY: LayerMetadata(
layer=ContextLayer.L1_LEGACY,
description="Cumulative trading history and core lessons learned across generations",
retention_days=None, # Keep forever
aggregation_source=ContextLayer.L2_ANNUAL,
),
ContextLayer.L2_ANNUAL: LayerMetadata(
layer=ContextLayer.L2_ANNUAL,
description="Yearly returns, Sharpe ratio, max drawdown, win rate",
retention_days=365 * 10, # 10 years
aggregation_source=ContextLayer.L3_QUARTERLY,
),
ContextLayer.L3_QUARTERLY: LayerMetadata(
layer=ContextLayer.L3_QUARTERLY,
description="Quarterly strategy adjustments, market phase detection, sector rotation",
retention_days=365 * 3, # 3 years
aggregation_source=ContextLayer.L4_MONTHLY,
),
ContextLayer.L4_MONTHLY: LayerMetadata(
layer=ContextLayer.L4_MONTHLY,
description="Monthly portfolio rebalancing, risk exposure, drawdown recovery",
retention_days=365 * 2, # 2 years
aggregation_source=ContextLayer.L5_WEEKLY,
),
ContextLayer.L5_WEEKLY: LayerMetadata(
layer=ContextLayer.L5_WEEKLY,
description="Weekly stock selection, sector focus, volatility regime",
retention_days=365, # 1 year
aggregation_source=ContextLayer.L6_DAILY,
),
ContextLayer.L6_DAILY: LayerMetadata(
layer=ContextLayer.L6_DAILY,
description="Daily trade logs, P&L, market summaries, decision accuracy",
retention_days=90, # 90 days
aggregation_source=ContextLayer.L7_REALTIME,
),
ContextLayer.L7_REALTIME: LayerMetadata(
layer=ContextLayer.L7_REALTIME,
description="Real-time positions, quotes, orderbook, volatility, live P&L",
retention_days=7, # 7 days (real-time data is ephemeral)
aggregation_source=None, # No aggregation source (leaf layer)
),
}

193
src/context/store.py Normal file
View File

@@ -0,0 +1,193 @@
"""Context storage and retrieval for the 7-tier memory system."""
from __future__ import annotations
import json
import sqlite3
from datetime import UTC, datetime
from typing import Any
from src.context.layer import LAYER_CONFIG, ContextLayer
class ContextStore:
"""Manages context data across the 7-tier hierarchy."""
def __init__(self, conn: sqlite3.Connection) -> None:
"""Initialize the context store with a database connection."""
self.conn = conn
self._init_metadata()
def _init_metadata(self) -> None:
"""Initialize context_metadata table with layer configurations."""
for config in LAYER_CONFIG.values():
self.conn.execute(
"""
INSERT OR REPLACE INTO context_metadata
(layer, description, retention_days, aggregation_source)
VALUES (?, ?, ?, ?)
""",
(
config.layer.value,
config.description,
config.retention_days,
config.aggregation_source.value if config.aggregation_source else None,
),
)
self.conn.commit()
def set_context(
self,
layer: ContextLayer,
timeframe: str,
key: str,
value: Any,
) -> None:
"""Set a context value for a given layer and timeframe.
Args:
layer: The context layer (L1-L7)
timeframe: Time identifier (e.g., "2026", "2026-Q1", "2026-01",
"2026-W05", "2026-02-04")
key: Context key (e.g., "sharpe_ratio", "win_rate", "lesson_learned")
value: Context value (will be JSON-serialized)
"""
now = datetime.now(UTC).isoformat()
value_json = json.dumps(value)
self.conn.execute(
"""
INSERT INTO contexts (layer, timeframe, key, value, created_at, updated_at)
VALUES (?, ?, ?, ?, ?, ?)
ON CONFLICT(layer, timeframe, key)
DO UPDATE SET value = excluded.value, updated_at = excluded.updated_at
""",
(layer.value, timeframe, key, value_json, now, now),
)
self.conn.commit()
def get_context(
self,
layer: ContextLayer,
timeframe: str,
key: str,
) -> Any | None:
"""Get a context value for a given layer and timeframe.
Args:
layer: The context layer (L1-L7)
timeframe: Time identifier
key: Context key
Returns:
The context value (deserialized from JSON), or None if not found
"""
cursor = self.conn.execute(
"""
SELECT value FROM contexts
WHERE layer = ? AND timeframe = ? AND key = ?
""",
(layer.value, timeframe, key),
)
row = cursor.fetchone()
if row:
return json.loads(row[0])
return None
def get_all_contexts(
self,
layer: ContextLayer,
timeframe: str | None = None,
) -> dict[str, Any]:
"""Get all context values for a given layer and optional timeframe.
Args:
layer: The context layer (L1-L7)
timeframe: Optional time identifier filter
Returns:
Dictionary of key-value pairs for the specified layer/timeframe
"""
if timeframe:
cursor = self.conn.execute(
"""
SELECT key, value FROM contexts
WHERE layer = ? AND timeframe = ?
ORDER BY key
""",
(layer.value, timeframe),
)
else:
cursor = self.conn.execute(
"""
SELECT key, value FROM contexts
WHERE layer = ?
ORDER BY timeframe DESC, key
""",
(layer.value,),
)
return {row[0]: json.loads(row[1]) for row in cursor.fetchall()}
def get_latest_timeframe(self, layer: ContextLayer) -> str | None:
"""Get the most recent timeframe for a given layer.
Args:
layer: The context layer (L1-L7)
Returns:
The latest timeframe string, or None if no data exists
"""
cursor = self.conn.execute(
"""
SELECT timeframe FROM contexts
WHERE layer = ?
ORDER BY updated_at DESC
LIMIT 1
""",
(layer.value,),
)
row = cursor.fetchone()
return row[0] if row else None
def delete_old_contexts(self, layer: ContextLayer, cutoff_date: str) -> int:
"""Delete contexts older than the cutoff date for a given layer.
Args:
layer: The context layer (L1-L7)
cutoff_date: ISO format date string (contexts before this will be deleted)
Returns:
Number of rows deleted
"""
cursor = self.conn.execute(
"""
DELETE FROM contexts
WHERE layer = ? AND updated_at < ?
""",
(layer.value, cutoff_date),
)
self.conn.commit()
return cursor.rowcount
def cleanup_expired_contexts(self) -> dict[ContextLayer, int]:
"""Delete expired contexts based on retention policies.
Returns:
Dictionary mapping layer to number of deleted rows
"""
deleted_counts: dict[ContextLayer, int] = {}
for layer, config in LAYER_CONFIG.items():
if config.retention_days is None:
# Keep forever (e.g., L1_LEGACY)
deleted_counts[layer] = 0
continue
# Calculate cutoff date
from datetime import timedelta
cutoff = datetime.now(UTC) - timedelta(days=config.retention_days)
deleted_counts[layer] = self.delete_old_contexts(layer, cutoff.isoformat())
return deleted_counts

View File

@@ -7,7 +7,6 @@ Changes require human approval and two passing test suites.
from __future__ import annotations from __future__ import annotations
import logging import logging
from dataclasses import dataclass
from src.config import Settings from src.config import Settings

View File

@@ -3,9 +3,8 @@
from __future__ import annotations from __future__ import annotations
import sqlite3 import sqlite3
from datetime import datetime, timezone from datetime import UTC, datetime
from pathlib import Path from pathlib import Path
from typing import Any
def init_db(db_path: str) -> sqlite3.Connection: def init_db(db_path: str) -> sqlite3.Connection:
@@ -24,10 +23,86 @@ def init_db(db_path: str) -> sqlite3.Connection:
rationale TEXT, rationale TEXT,
quantity INTEGER, quantity INTEGER,
price REAL, price REAL,
pnl REAL DEFAULT 0.0 pnl REAL DEFAULT 0.0,
market TEXT DEFAULT 'KR',
exchange_code TEXT DEFAULT 'KRX'
) )
""" """
) )
# Migration: Add market and exchange_code columns if they don't exist
cursor = conn.execute("PRAGMA table_info(trades)")
columns = {row[1] for row in cursor.fetchall()}
if "market" not in columns:
conn.execute("ALTER TABLE trades ADD COLUMN market TEXT DEFAULT 'KR'")
if "exchange_code" not in columns:
conn.execute("ALTER TABLE trades ADD COLUMN exchange_code TEXT DEFAULT 'KRX'")
# Context tree tables for multi-layered memory management
conn.execute(
"""
CREATE TABLE IF NOT EXISTS contexts (
id INTEGER PRIMARY KEY AUTOINCREMENT,
layer TEXT NOT NULL,
timeframe TEXT NOT NULL,
key TEXT NOT NULL,
value TEXT NOT NULL,
created_at TEXT NOT NULL,
updated_at TEXT NOT NULL,
UNIQUE(layer, timeframe, key)
)
"""
)
# Decision logging table for comprehensive audit trail
conn.execute(
"""
CREATE TABLE IF NOT EXISTS decision_logs (
decision_id TEXT PRIMARY KEY,
timestamp TEXT NOT NULL,
stock_code TEXT NOT NULL,
market TEXT NOT NULL,
exchange_code TEXT NOT NULL,
action TEXT NOT NULL,
confidence INTEGER NOT NULL,
rationale TEXT NOT NULL,
context_snapshot TEXT NOT NULL,
input_data TEXT NOT NULL,
outcome_pnl REAL,
outcome_accuracy INTEGER,
reviewed INTEGER DEFAULT 0,
review_notes TEXT
)
"""
)
conn.execute(
"""
CREATE TABLE IF NOT EXISTS context_metadata (
layer TEXT PRIMARY KEY,
description TEXT NOT NULL,
retention_days INTEGER,
aggregation_source TEXT
)
"""
)
# Create indices for efficient context queries
conn.execute("CREATE INDEX IF NOT EXISTS idx_contexts_layer ON contexts(layer)")
conn.execute("CREATE INDEX IF NOT EXISTS idx_contexts_timeframe ON contexts(timeframe)")
conn.execute("CREATE INDEX IF NOT EXISTS idx_contexts_updated ON contexts(updated_at)")
# Create indices for efficient decision log queries
conn.execute(
"CREATE INDEX IF NOT EXISTS idx_decision_logs_timestamp ON decision_logs(timestamp)"
)
conn.execute(
"CREATE INDEX IF NOT EXISTS idx_decision_logs_reviewed ON decision_logs(reviewed)"
)
conn.execute(
"CREATE INDEX IF NOT EXISTS idx_decision_logs_confidence ON decision_logs(confidence)"
)
conn.commit() conn.commit()
return conn return conn
@@ -41,15 +116,20 @@ def log_trade(
quantity: int = 0, quantity: int = 0,
price: float = 0.0, price: float = 0.0,
pnl: float = 0.0, pnl: float = 0.0,
market: str = "KR",
exchange_code: str = "KRX",
) -> None: ) -> None:
"""Insert a trade record into the database.""" """Insert a trade record into the database."""
conn.execute( conn.execute(
""" """
INSERT INTO trades (timestamp, stock_code, action, confidence, rationale, quantity, price, pnl) INSERT INTO trades (
VALUES (?, ?, ?, ?, ?, ?, ?, ?) timestamp, stock_code, action, confidence, rationale,
quantity, price, pnl, market, exchange_code
)
VALUES (?, ?, ?, ?, ?, ?, ?, ?, ?, ?)
""", """,
( (
datetime.now(timezone.utc).isoformat(), datetime.now(UTC).isoformat(),
stock_code, stock_code,
action, action,
confidence, confidence,
@@ -57,6 +137,8 @@ def log_trade(
quantity, quantity,
price, price,
pnl, pnl,
market,
exchange_code,
), ),
) )
conn.commit() conn.commit()

View File

@@ -14,7 +14,7 @@ import logging
import sqlite3 import sqlite3
import subprocess import subprocess
import textwrap import textwrap
from datetime import datetime, timezone from datetime import UTC, datetime
from pathlib import Path from pathlib import Path
from typing import Any from typing import Any
@@ -136,7 +136,7 @@ class EvolutionOptimizer:
body = "\n".join(lines[1:-1]) body = "\n".join(lines[1:-1])
# Create strategy file # Create strategy file
timestamp = datetime.now(timezone.utc).strftime("%Y%m%d_%H%M%S") timestamp = datetime.now(UTC).strftime("%Y%m%d_%H%M%S")
version = f"v{timestamp}" version = f"v{timestamp}"
class_name = f"Strategy_{version}" class_name = f"Strategy_{version}"
file_name = f"{version}_evolved.py" file_name = f"{version}_evolved.py"
@@ -149,7 +149,7 @@ class EvolutionOptimizer:
content = STRATEGY_TEMPLATE.format( content = STRATEGY_TEMPLATE.format(
name=version, name=version,
timestamp=datetime.now(timezone.utc).isoformat(), timestamp=datetime.now(UTC).isoformat(),
rationale="Auto-evolved from failure analysis", rationale="Auto-evolved from failure analysis",
class_name=class_name, class_name=class_name,
body=indented_body.strip(), body=indented_body.strip(),

5
src/logging/__init__.py Normal file
View File

@@ -0,0 +1,5 @@
"""Decision logging and audit trail for trade decisions."""
from src.logging.decision_logger import DecisionLog, DecisionLogger
__all__ = ["DecisionLog", "DecisionLogger"]

View File

@@ -0,0 +1,235 @@
"""Decision logging system with context snapshots for comprehensive audit trail."""
from __future__ import annotations
import json
import sqlite3
import uuid
from dataclasses import dataclass
from datetime import UTC, datetime
from typing import Any
@dataclass
class DecisionLog:
"""A logged trading decision with context and outcome."""
decision_id: str
timestamp: str
stock_code: str
market: str
exchange_code: str
action: str
confidence: int
rationale: str
context_snapshot: dict[str, Any]
input_data: dict[str, Any]
outcome_pnl: float | None = None
outcome_accuracy: int | None = None
reviewed: bool = False
review_notes: str | None = None
class DecisionLogger:
"""Logs trading decisions with full context for review and evolution."""
def __init__(self, conn: sqlite3.Connection) -> None:
"""Initialize the decision logger with a database connection."""
self.conn = conn
def log_decision(
self,
stock_code: str,
market: str,
exchange_code: str,
action: str,
confidence: int,
rationale: str,
context_snapshot: dict[str, Any],
input_data: dict[str, Any],
) -> str:
"""Log a trading decision with full context.
Args:
stock_code: Stock symbol
market: Market code (e.g., "KR", "US_NASDAQ")
exchange_code: Exchange code (e.g., "KRX", "NASDAQ")
action: Trading action (BUY/SELL/HOLD)
confidence: Confidence level (0-100)
rationale: Reasoning for the decision
context_snapshot: L1-L7 context snapshot at decision time
input_data: Market data inputs (price, volume, orderbook, etc.)
Returns:
decision_id: Unique identifier for this decision
"""
decision_id = str(uuid.uuid4())
timestamp = datetime.now(UTC).isoformat()
self.conn.execute(
"""
INSERT INTO decision_logs (
decision_id, timestamp, stock_code, market, exchange_code,
action, confidence, rationale, context_snapshot, input_data
)
VALUES (?, ?, ?, ?, ?, ?, ?, ?, ?, ?)
""",
(
decision_id,
timestamp,
stock_code,
market,
exchange_code,
action,
confidence,
rationale,
json.dumps(context_snapshot),
json.dumps(input_data),
),
)
self.conn.commit()
return decision_id
def get_unreviewed_decisions(
self, min_confidence: int = 80, limit: int | None = None
) -> list[DecisionLog]:
"""Get unreviewed decisions with high confidence.
Args:
min_confidence: Minimum confidence threshold (default 80)
limit: Maximum number of results (None = unlimited)
Returns:
List of unreviewed DecisionLog objects
"""
query = """
SELECT
decision_id, timestamp, stock_code, market, exchange_code,
action, confidence, rationale, context_snapshot, input_data,
outcome_pnl, outcome_accuracy, reviewed, review_notes
FROM decision_logs
WHERE reviewed = 0 AND confidence >= ?
ORDER BY timestamp DESC
"""
if limit is not None:
query += f" LIMIT {limit}"
cursor = self.conn.execute(query, (min_confidence,))
return [self._row_to_decision_log(row) for row in cursor.fetchall()]
def mark_reviewed(self, decision_id: str, notes: str) -> None:
"""Mark a decision as reviewed with notes.
Args:
decision_id: Decision identifier
notes: Review notes and insights
"""
self.conn.execute(
"""
UPDATE decision_logs
SET reviewed = 1, review_notes = ?
WHERE decision_id = ?
""",
(notes, decision_id),
)
self.conn.commit()
def update_outcome(
self, decision_id: str, pnl: float, accuracy: int
) -> None:
"""Update the outcome of a decision after trade execution.
Args:
decision_id: Decision identifier
pnl: Actual profit/loss realized
accuracy: 1 if decision was correct, 0 if wrong
"""
self.conn.execute(
"""
UPDATE decision_logs
SET outcome_pnl = ?, outcome_accuracy = ?
WHERE decision_id = ?
""",
(pnl, accuracy, decision_id),
)
self.conn.commit()
def get_decision_by_id(self, decision_id: str) -> DecisionLog | None:
"""Get a specific decision by ID.
Args:
decision_id: Decision identifier
Returns:
DecisionLog object or None if not found
"""
cursor = self.conn.execute(
"""
SELECT
decision_id, timestamp, stock_code, market, exchange_code,
action, confidence, rationale, context_snapshot, input_data,
outcome_pnl, outcome_accuracy, reviewed, review_notes
FROM decision_logs
WHERE decision_id = ?
""",
(decision_id,),
)
row = cursor.fetchone()
return self._row_to_decision_log(row) if row else None
def get_losing_decisions(
self, min_confidence: int = 80, min_loss: float = -100.0
) -> list[DecisionLog]:
"""Get high-confidence decisions that resulted in losses.
Useful for identifying patterns in failed predictions.
Args:
min_confidence: Minimum confidence threshold (default 80)
min_loss: Minimum loss amount (default -100.0, i.e., loss >= 100)
Returns:
List of losing DecisionLog objects
"""
cursor = self.conn.execute(
"""
SELECT
decision_id, timestamp, stock_code, market, exchange_code,
action, confidence, rationale, context_snapshot, input_data,
outcome_pnl, outcome_accuracy, reviewed, review_notes
FROM decision_logs
WHERE confidence >= ?
AND outcome_pnl IS NOT NULL
AND outcome_pnl <= ?
ORDER BY outcome_pnl ASC
""",
(min_confidence, min_loss),
)
return [self._row_to_decision_log(row) for row in cursor.fetchall()]
def _row_to_decision_log(self, row: tuple[Any, ...]) -> DecisionLog:
"""Convert a database row to a DecisionLog object.
Args:
row: Database row tuple
Returns:
DecisionLog object
"""
return DecisionLog(
decision_id=row[0],
timestamp=row[1],
stock_code=row[2],
market=row[3],
exchange_code=row[4],
action=row[5],
confidence=row[6],
rationale=row[7],
context_snapshot=json.loads(row[8]),
input_data=json.loads(row[9]),
outcome_pnl=row[10],
outcome_accuracy=row[11],
reviewed=bool(row[12]),
review_notes=row[13],
)

View File

@@ -2,20 +2,19 @@
from __future__ import annotations from __future__ import annotations
import json
import logging import logging
import sys import sys
from datetime import datetime, timezone from datetime import UTC, datetime
from typing import Any from typing import Any
import json
class JSONFormatter(logging.Formatter): class JSONFormatter(logging.Formatter):
"""Emit log records as single-line JSON objects.""" """Emit log records as single-line JSON objects."""
def format(self, record: logging.LogRecord) -> str: def format(self, record: logging.LogRecord) -> str:
log_entry: dict[str, Any] = { log_entry: dict[str, Any] = {
"timestamp": datetime.now(timezone.utc).isoformat(), "timestamp": datetime.now(UTC).isoformat(),
"level": record.levelname, "level": record.levelname,
"logger": record.name, "logger": record.name,
"message": record.getMessage(), "message": record.getMessage(),

View File

@@ -10,70 +10,145 @@ import argparse
import asyncio import asyncio
import logging import logging
import signal import signal
import sys from datetime import UTC, datetime
from typing import Any from typing import Any
from src.analysis.scanner import MarketScanner
from src.analysis.volatility import VolatilityAnalyzer
from src.brain.gemini_client import GeminiClient from src.brain.gemini_client import GeminiClient
from src.broker.kis_api import KISBroker from src.broker.kis_api import KISBroker
from src.broker.overseas import OverseasBroker
from src.config import Settings from src.config import Settings
from src.context.store import ContextStore
from src.core.risk_manager import CircuitBreakerTripped, RiskManager from src.core.risk_manager import CircuitBreakerTripped, RiskManager
from src.db import init_db, log_trade from src.db import init_db, log_trade
from src.logging.decision_logger import DecisionLogger
from src.logging_config import setup_logging from src.logging_config import setup_logging
from src.markets.schedule import MarketInfo, get_next_market_open, get_open_markets
logger = logging.getLogger(__name__) logger = logging.getLogger(__name__)
# Target stock codes to monitor # Target stock codes to monitor per market
WATCHLIST = ["005930", "000660", "035420"] # Samsung, SK Hynix, NAVER WATCHLISTS = {
"KR": ["005930", "000660", "035420"], # Samsung, SK Hynix, NAVER
"US_NASDAQ": ["AAPL", "MSFT", "GOOGL"], # Example US stocks
"US_NYSE": ["JPM", "BAC"], # Example NYSE stocks
"JP": ["7203", "6758"], # Toyota, Sony
}
TRADE_INTERVAL_SECONDS = 60 TRADE_INTERVAL_SECONDS = 60
SCAN_INTERVAL_SECONDS = 60 # Scan markets every 60 seconds
MAX_CONNECTION_RETRIES = 3
# Full stock universe per market (for scanning)
# In production, this would be loaded from a database or API
STOCK_UNIVERSE = {
"KR": ["005930", "000660", "035420", "051910", "005380", "005490"],
"US_NASDAQ": ["AAPL", "MSFT", "GOOGL", "AMZN", "NVDA", "TSLA"],
"US_NYSE": ["JPM", "BAC", "XOM", "JNJ", "V"],
"JP": ["7203", "6758", "9984", "6861"],
}
async def trading_cycle( async def trading_cycle(
broker: KISBroker, broker: KISBroker,
overseas_broker: OverseasBroker,
brain: GeminiClient, brain: GeminiClient,
risk: RiskManager, risk: RiskManager,
db_conn: Any, db_conn: Any,
decision_logger: DecisionLogger,
market: MarketInfo,
stock_code: str, stock_code: str,
) -> None: ) -> None:
"""Execute one trading cycle for a single stock.""" """Execute one trading cycle for a single stock."""
# 1. Fetch market data # 1. Fetch market data
orderbook = await broker.get_orderbook(stock_code) if market.is_domestic:
balance_data = await broker.get_balance() orderbook = await broker.get_orderbook(stock_code)
balance_data = await broker.get_balance()
output2 = balance_data.get("output2", [{}]) output2 = balance_data.get("output2", [{}])
total_eval = float(output2[0].get("tot_evlu_amt", "0")) if output2 else 0 total_eval = float(output2[0].get("tot_evlu_amt", "0")) if output2 else 0
total_cash = float( total_cash = float(
balance_data.get("output2", [{}])[0].get("dnca_tot_amt", "0") balance_data.get("output2", [{}])[0].get("dnca_tot_amt", "0")
if output2 if output2
else "0" else "0"
) )
purchase_total = float(output2[0].get("pchs_amt_smtl_amt", "0")) if output2 else 0 purchase_total = float(output2[0].get("pchs_amt_smtl_amt", "0")) if output2 else 0
current_price = float(orderbook.get("output1", {}).get("stck_prpr", "0"))
foreigner_net = float(orderbook.get("output1", {}).get("frgn_ntby_qty", "0"))
else:
# Overseas market
price_data = await overseas_broker.get_overseas_price(
market.exchange_code, stock_code
)
balance_data = await overseas_broker.get_overseas_balance(market.exchange_code)
output2 = balance_data.get("output2", [{}])
total_eval = float(output2[0].get("frcr_evlu_tota", "0")) if output2 else 0
total_cash = float(output2[0].get("frcr_dncl_amt_2", "0")) if output2 else 0
purchase_total = float(output2[0].get("frcr_buy_amt_smtl", "0")) if output2 else 0
current_price = float(price_data.get("output", {}).get("last", "0"))
foreigner_net = 0.0 # Not available for overseas
# Calculate daily P&L % # Calculate daily P&L %
pnl_pct = ((total_eval - purchase_total) / purchase_total * 100) if purchase_total > 0 else 0.0 pnl_pct = (
((total_eval - purchase_total) / purchase_total * 100)
current_price = float( if purchase_total > 0
orderbook.get("output1", {}).get("stck_prpr", "0") else 0.0
) )
market_data = { market_data = {
"stock_code": stock_code, "stock_code": stock_code,
"market_name": market.name,
"current_price": current_price, "current_price": current_price,
"orderbook": orderbook.get("output1", {}), "foreigner_net": foreigner_net,
"foreigner_net": float(
orderbook.get("output1", {}).get("frgn_ntby_qty", "0")
),
} }
# 2. Ask the brain for a decision # 2. Ask the brain for a decision
decision = await brain.decide(market_data) decision = await brain.decide(market_data)
logger.info( logger.info(
"Decision for %s: %s (confidence=%d)", "Decision for %s (%s): %s (confidence=%d)",
stock_code, stock_code,
market.name,
decision.action, decision.action,
decision.confidence, decision.confidence,
) )
# 2.5. Log decision with context snapshot
context_snapshot = {
"L1": {
"current_price": current_price,
"foreigner_net": foreigner_net,
},
"L2": {
"total_eval": total_eval,
"total_cash": total_cash,
"purchase_total": purchase_total,
"pnl_pct": pnl_pct,
},
# L3-L7 will be populated when context tree is implemented
}
input_data = {
"current_price": current_price,
"foreigner_net": foreigner_net,
"total_eval": total_eval,
"total_cash": total_cash,
"pnl_pct": pnl_pct,
}
decision_logger.log_decision(
stock_code=stock_code,
market=market.code,
exchange_code=market.exchange_code,
action=decision.action,
confidence=decision.confidence,
rationale=decision.rationale,
context_snapshot=context_snapshot,
input_data=input_data,
)
# 3. Execute if actionable # 3. Execute if actionable
if decision.action in ("BUY", "SELL"): if decision.action in ("BUY", "SELL"):
# Determine order size (simplified: 1 lot) # Determine order size (simplified: 1 lot)
@@ -88,12 +163,21 @@ async def trading_cycle(
) )
# 5. Send order # 5. Send order
result = await broker.send_order( if market.is_domestic:
stock_code=stock_code, result = await broker.send_order(
order_type=decision.action, stock_code=stock_code,
quantity=quantity, order_type=decision.action,
price=0, # market order quantity=quantity,
) price=0, # market order
)
else:
result = await overseas_broker.send_overseas_order(
exchange_code=market.exchange_code,
stock_code=stock_code,
order_type=decision.action,
quantity=quantity,
price=0.0, # market order
)
logger.info("Order result: %s", result.get("msg1", "OK")) logger.info("Order result: %s", result.get("msg1", "OK"))
# 6. Log trade # 6. Log trade
@@ -103,15 +187,33 @@ async def trading_cycle(
action=decision.action, action=decision.action,
confidence=decision.confidence, confidence=decision.confidence,
rationale=decision.rationale, rationale=decision.rationale,
market=market.code,
exchange_code=market.exchange_code,
) )
async def run(settings: Settings) -> None: async def run(settings: Settings) -> None:
"""Main async loop — iterate over watchlist on a timer.""" """Main async loop — iterate over open markets on a timer."""
broker = KISBroker(settings) broker = KISBroker(settings)
overseas_broker = OverseasBroker(broker)
brain = GeminiClient(settings) brain = GeminiClient(settings)
risk = RiskManager(settings) risk = RiskManager(settings)
db_conn = init_db(settings.DB_PATH) db_conn = init_db(settings.DB_PATH)
decision_logger = DecisionLogger(db_conn)
context_store = ContextStore(db_conn)
# Initialize volatility hunter
volatility_analyzer = VolatilityAnalyzer(min_volume_surge=2.0, min_price_change=1.0)
market_scanner = MarketScanner(
broker=broker,
overseas_broker=overseas_broker,
volatility_analyzer=volatility_analyzer,
context_store=context_store,
top_n=5,
)
# Track last scan time for each market
last_scan_time: dict[str, float] = {}
shutdown = asyncio.Event() shutdown = asyncio.Event()
@@ -124,27 +226,127 @@ async def run(settings: Settings) -> None:
loop.add_signal_handler(sig, _signal_handler) loop.add_signal_handler(sig, _signal_handler)
logger.info("The Ouroboros is alive. Mode: %s", settings.MODE) logger.info("The Ouroboros is alive. Mode: %s", settings.MODE)
logger.info("Watchlist: %s", WATCHLIST) logger.info("Enabled markets: %s", settings.enabled_market_list)
try: try:
while not shutdown.is_set(): while not shutdown.is_set():
for code in WATCHLIST: # Get currently open markets
open_markets = get_open_markets(settings.enabled_market_list)
if not open_markets:
# No markets open — wait until next market opens
try:
next_market, next_open_time = get_next_market_open(
settings.enabled_market_list
)
now = datetime.now(UTC)
wait_seconds = (next_open_time - now).total_seconds()
logger.info(
"No markets open. Next market: %s, opens in %.1f hours",
next_market.name,
wait_seconds / 3600,
)
await asyncio.wait_for(shutdown.wait(), timeout=wait_seconds)
except TimeoutError:
continue # Market should be open now
except ValueError as exc:
logger.error("Failed to find next market open: %s", exc)
await asyncio.sleep(TRADE_INTERVAL_SECONDS)
continue
# Process each open market
for market in open_markets:
if shutdown.is_set(): if shutdown.is_set():
break break
try:
await trading_cycle(broker, brain, risk, db_conn, code) # Volatility Hunter: Scan market periodically to update watchlist
except CircuitBreakerTripped: now_timestamp = asyncio.get_event_loop().time()
logger.critical("Circuit breaker tripped — shutting down") last_scan = last_scan_time.get(market.code, 0.0)
raise if now_timestamp - last_scan >= SCAN_INTERVAL_SECONDS:
except ConnectionError as exc: try:
logger.error("Connection error for %s: %s", code, exc) # Scan all stocks in the universe
except Exception as exc: stock_universe = STOCK_UNIVERSE.get(market.code, [])
logger.exception("Unexpected error for %s: %s", code, exc) if stock_universe:
logger.info("Volatility Hunter: Scanning %s market", market.name)
scan_result = await market_scanner.scan_market(
market, stock_universe
)
# Update watchlist with top movers
current_watchlist = WATCHLISTS.get(market.code, [])
updated_watchlist = market_scanner.get_updated_watchlist(
current_watchlist,
scan_result,
max_replacements=2,
)
WATCHLISTS[market.code] = updated_watchlist
logger.info(
"Volatility Hunter: Watchlist updated for %s (%d top movers, %d breakouts)",
market.name,
len(scan_result.top_movers),
len(scan_result.breakouts),
)
last_scan_time[market.code] = now_timestamp
except Exception as exc:
logger.error("Volatility Hunter scan failed for %s: %s", market.name, exc)
# Get watchlist for this market
watchlist = WATCHLISTS.get(market.code, [])
if not watchlist:
logger.debug("No watchlist for market %s", market.code)
continue
logger.info("Processing market: %s (%d stocks)", market.name, len(watchlist))
# Process each stock in the watchlist
for stock_code in watchlist:
if shutdown.is_set():
break
# Retry logic for connection errors
for attempt in range(1, MAX_CONNECTION_RETRIES + 1):
try:
await trading_cycle(
broker,
overseas_broker,
brain,
risk,
db_conn,
decision_logger,
market,
stock_code,
)
break # Success — exit retry loop
except CircuitBreakerTripped:
logger.critical("Circuit breaker tripped — shutting down")
raise
except ConnectionError as exc:
if attempt < MAX_CONNECTION_RETRIES:
logger.warning(
"Connection error for %s (attempt %d/%d): %s",
stock_code,
attempt,
MAX_CONNECTION_RETRIES,
exc,
)
await asyncio.sleep(2**attempt) # Exponential backoff
else:
logger.error(
"Connection error for %s (all retries exhausted): %s",
stock_code,
exc,
)
break # Give up on this stock
except Exception as exc:
logger.exception("Unexpected error for %s: %s", stock_code, exc)
break # Don't retry on unexpected errors
# Wait for next cycle or shutdown # Wait for next cycle or shutdown
try: try:
await asyncio.wait_for(shutdown.wait(), timeout=TRADE_INTERVAL_SECONDS) await asyncio.wait_for(shutdown.wait(), timeout=TRADE_INTERVAL_SECONDS)
except asyncio.TimeoutError: except TimeoutError:
pass # Normal — timeout means it's time for next cycle pass # Normal — timeout means it's time for next cycle
finally: finally:
await broker.close() await broker.close()

1
src/markets/__init__.py Normal file
View File

@@ -0,0 +1 @@
"""Global market scheduling and timezone management."""

252
src/markets/schedule.py Normal file
View File

@@ -0,0 +1,252 @@
"""Market schedule management with timezone support."""
from dataclasses import dataclass
from datetime import datetime, time, timedelta
from zoneinfo import ZoneInfo
@dataclass(frozen=True)
class MarketInfo:
"""Information about a trading market."""
code: str # Market code for internal use (e.g., "KR", "US_NASDAQ")
exchange_code: str # KIS API exchange code (e.g., "NASD", "NYSE")
name: str # Human-readable name
timezone: ZoneInfo # Market timezone
open_time: time # Market open time in local timezone
close_time: time # Market close time in local timezone
is_domestic: bool # True for Korean market, False for overseas
lunch_break: tuple[time, time] | None = None # (start, end) or None
# 10 global markets with their schedules
MARKETS: dict[str, MarketInfo] = {
"KR": MarketInfo(
code="KR",
exchange_code="KRX",
name="Korea Exchange",
timezone=ZoneInfo("Asia/Seoul"),
open_time=time(9, 0),
close_time=time(15, 30),
is_domestic=True,
lunch_break=None, # KRX removed lunch break
),
"US_NASDAQ": MarketInfo(
code="US_NASDAQ",
exchange_code="NASD",
name="NASDAQ",
timezone=ZoneInfo("America/New_York"),
open_time=time(9, 30),
close_time=time(16, 0),
is_domestic=False,
lunch_break=None,
),
"US_NYSE": MarketInfo(
code="US_NYSE",
exchange_code="NYSE",
name="New York Stock Exchange",
timezone=ZoneInfo("America/New_York"),
open_time=time(9, 30),
close_time=time(16, 0),
is_domestic=False,
lunch_break=None,
),
"US_AMEX": MarketInfo(
code="US_AMEX",
exchange_code="AMEX",
name="NYSE American",
timezone=ZoneInfo("America/New_York"),
open_time=time(9, 30),
close_time=time(16, 0),
is_domestic=False,
lunch_break=None,
),
"JP": MarketInfo(
code="JP",
exchange_code="TSE",
name="Tokyo Stock Exchange",
timezone=ZoneInfo("Asia/Tokyo"),
open_time=time(9, 0),
close_time=time(15, 0),
is_domestic=False,
lunch_break=(time(11, 30), time(12, 30)),
),
"HK": MarketInfo(
code="HK",
exchange_code="SEHK",
name="Hong Kong Stock Exchange",
timezone=ZoneInfo("Asia/Hong_Kong"),
open_time=time(9, 30),
close_time=time(16, 0),
is_domestic=False,
lunch_break=(time(12, 0), time(13, 0)),
),
"CN_SHA": MarketInfo(
code="CN_SHA",
exchange_code="SHAA",
name="Shanghai Stock Exchange",
timezone=ZoneInfo("Asia/Shanghai"),
open_time=time(9, 30),
close_time=time(15, 0),
is_domestic=False,
lunch_break=(time(11, 30), time(13, 0)),
),
"CN_SZA": MarketInfo(
code="CN_SZA",
exchange_code="SZAA",
name="Shenzhen Stock Exchange",
timezone=ZoneInfo("Asia/Shanghai"),
open_time=time(9, 30),
close_time=time(15, 0),
is_domestic=False,
lunch_break=(time(11, 30), time(13, 0)),
),
"VN_HAN": MarketInfo(
code="VN_HAN",
exchange_code="HNX",
name="Hanoi Stock Exchange",
timezone=ZoneInfo("Asia/Ho_Chi_Minh"),
open_time=time(9, 0),
close_time=time(15, 0),
is_domestic=False,
lunch_break=(time(11, 30), time(13, 0)),
),
"VN_HCM": MarketInfo(
code="VN_HCM",
exchange_code="HSX",
name="Ho Chi Minh Stock Exchange",
timezone=ZoneInfo("Asia/Ho_Chi_Minh"),
open_time=time(9, 0),
close_time=time(15, 0),
is_domestic=False,
lunch_break=(time(11, 30), time(13, 0)),
),
}
def is_market_open(market: MarketInfo, now: datetime | None = None) -> bool:
"""
Check if a market is currently open for trading.
Args:
market: Market information
now: Current time (defaults to datetime.now(UTC) for testing)
Returns:
True if market is open, False otherwise
Note:
Does not account for holidays (KIS API will reject orders on holidays)
"""
if now is None:
now = datetime.now(ZoneInfo("UTC"))
# Convert to market's local timezone
local_now = now.astimezone(market.timezone)
# Check if it's a weekend
if local_now.weekday() >= 5: # Saturday=5, Sunday=6
return False
current_time = local_now.time()
# Check if within trading hours
if current_time < market.open_time or current_time >= market.close_time:
return False
# Check lunch break
if market.lunch_break:
lunch_start, lunch_end = market.lunch_break
if lunch_start <= current_time < lunch_end:
return False
return True
def get_open_markets(
enabled_markets: list[str] | None = None, now: datetime | None = None
) -> list[MarketInfo]:
"""
Get list of currently open markets.
Args:
enabled_markets: List of market codes to check (defaults to all markets)
now: Current time (defaults to datetime.now(UTC) for testing)
Returns:
List of open markets, sorted by market code
"""
if enabled_markets is None:
enabled_markets = list(MARKETS.keys())
open_markets = [
MARKETS[code]
for code in enabled_markets
if code in MARKETS and is_market_open(MARKETS[code], now)
]
return sorted(open_markets, key=lambda m: m.code)
def get_next_market_open(
enabled_markets: list[str] | None = None, now: datetime | None = None
) -> tuple[MarketInfo, datetime]:
"""
Find the next market that will open and when.
Args:
enabled_markets: List of market codes to check (defaults to all markets)
now: Current time (defaults to datetime.now(UTC) for testing)
Returns:
Tuple of (market, open_datetime) for the next market to open
Raises:
ValueError: If no enabled markets are configured
"""
if now is None:
now = datetime.now(ZoneInfo("UTC"))
if enabled_markets is None:
enabled_markets = list(MARKETS.keys())
if not enabled_markets:
raise ValueError("No enabled markets configured")
next_open_time: datetime | None = None
next_market: MarketInfo | None = None
for code in enabled_markets:
if code not in MARKETS:
continue
market = MARKETS[code]
market_now = now.astimezone(market.timezone)
# Calculate next open time for this market
for days_ahead in range(7): # Check next 7 days
check_date = market_now.date() + timedelta(days=days_ahead)
check_datetime = datetime.combine(
check_date, market.open_time, tzinfo=market.timezone
)
# Skip weekends
if check_datetime.weekday() >= 5:
continue
# Skip if this open time already passed today
if check_datetime <= market_now:
continue
# Convert to UTC for comparison
check_datetime_utc = check_datetime.astimezone(ZoneInfo("UTC"))
if next_open_time is None or check_datetime_utc < next_open_time:
next_open_time = check_datetime_utc
next_market = market
break
if next_market is None or next_open_time is None:
raise ValueError("Could not find next market open time")
return next_market, next_open_time

View File

@@ -20,4 +20,5 @@ def settings() -> Settings:
FAT_FINGER_PCT=30.0, FAT_FINGER_PCT=30.0,
CONFIDENCE_THRESHOLD=80, CONFIDENCE_THRESHOLD=80,
DB_PATH=":memory:", DB_PATH=":memory:",
ENABLED_MARKETS="KR",
) )

View File

@@ -2,12 +2,7 @@
from __future__ import annotations from __future__ import annotations
from unittest.mock import AsyncMock, MagicMock, patch from src.brain.gemini_client import GeminiClient
import pytest
from src.brain.gemini_client import GeminiClient, TradeDecision
# --------------------------------------------------------------------------- # ---------------------------------------------------------------------------
# Response Parsing # Response Parsing

View File

@@ -3,14 +3,12 @@
from __future__ import annotations from __future__ import annotations
import asyncio import asyncio
from unittest.mock import AsyncMock, MagicMock, patch from unittest.mock import AsyncMock, patch
import aiohttp
import pytest import pytest
from src.broker.kis_api import KISBroker from src.broker.kis_api import KISBroker
# --------------------------------------------------------------------------- # ---------------------------------------------------------------------------
# Token Management # Token Management
# --------------------------------------------------------------------------- # ---------------------------------------------------------------------------
@@ -68,7 +66,7 @@ class TestNetworkErrorHandling:
with patch( with patch(
"aiohttp.ClientSession.get", "aiohttp.ClientSession.get",
side_effect=asyncio.TimeoutError(), side_effect=TimeoutError(),
): ):
with pytest.raises(ConnectionError): with pytest.raises(ConnectionError):
await broker.get_orderbook("005930") await broker.get_orderbook("005930")

350
tests/test_context.py Normal file
View File

@@ -0,0 +1,350 @@
"""Tests for the multi-layered context management system."""
from __future__ import annotations
import sqlite3
from datetime import UTC, datetime, timedelta
import pytest
from src.context.aggregator import ContextAggregator
from src.context.layer import LAYER_CONFIG, ContextLayer
from src.context.store import ContextStore
from src.db import init_db, log_trade
@pytest.fixture
def db_conn() -> sqlite3.Connection:
"""Provide an in-memory database connection."""
return init_db(":memory:")
@pytest.fixture
def store(db_conn: sqlite3.Connection) -> ContextStore:
"""Provide a ContextStore instance."""
return ContextStore(db_conn)
@pytest.fixture
def aggregator(db_conn: sqlite3.Connection) -> ContextAggregator:
"""Provide a ContextAggregator instance."""
return ContextAggregator(db_conn)
class TestContextStore:
"""Test suite for ContextStore CRUD operations."""
def test_set_and_get_context(self, store: ContextStore) -> None:
"""Test setting and retrieving a context value."""
store.set_context(ContextLayer.L6_DAILY, "2026-02-04", "total_pnl", 1234.56)
value = store.get_context(ContextLayer.L6_DAILY, "2026-02-04", "total_pnl")
assert value == 1234.56
def test_get_nonexistent_context(self, store: ContextStore) -> None:
"""Test retrieving a non-existent context returns None."""
value = store.get_context(ContextLayer.L6_DAILY, "2026-02-04", "nonexistent")
assert value is None
def test_update_existing_context(self, store: ContextStore) -> None:
"""Test updating an existing context value."""
store.set_context(ContextLayer.L6_DAILY, "2026-02-04", "total_pnl", 100.0)
store.set_context(ContextLayer.L6_DAILY, "2026-02-04", "total_pnl", 200.0)
value = store.get_context(ContextLayer.L6_DAILY, "2026-02-04", "total_pnl")
assert value == 200.0
def test_get_all_contexts_for_layer(self, store: ContextStore) -> None:
"""Test retrieving all contexts for a specific layer."""
store.set_context(ContextLayer.L6_DAILY, "2026-02-04", "total_pnl", 100.0)
store.set_context(ContextLayer.L6_DAILY, "2026-02-04", "trade_count", 10)
store.set_context(ContextLayer.L6_DAILY, "2026-02-04", "win_rate", 60.5)
contexts = store.get_all_contexts(ContextLayer.L6_DAILY, "2026-02-04")
assert len(contexts) == 3
assert contexts["total_pnl"] == 100.0
assert contexts["trade_count"] == 10
assert contexts["win_rate"] == 60.5
def test_get_latest_timeframe(self, store: ContextStore) -> None:
"""Test getting the most recent timeframe for a layer."""
store.set_context(ContextLayer.L6_DAILY, "2026-02-01", "total_pnl", 100.0)
store.set_context(ContextLayer.L6_DAILY, "2026-02-03", "total_pnl", 200.0)
store.set_context(ContextLayer.L6_DAILY, "2026-02-02", "total_pnl", 150.0)
latest = store.get_latest_timeframe(ContextLayer.L6_DAILY)
# Latest by updated_at, which should be the last one set
assert latest == "2026-02-02"
def test_delete_old_contexts(
self, store: ContextStore, db_conn: sqlite3.Connection
) -> None:
"""Test deleting contexts older than a cutoff date."""
# Insert contexts with specific old timestamps
# (bypassing set_context which uses current time)
old_date = "2026-01-01T00:00:00+00:00"
new_date = "2026-02-01T00:00:00+00:00"
db_conn.execute(
"""
INSERT INTO contexts (layer, timeframe, key, value, created_at, updated_at)
VALUES (?, ?, ?, ?, ?, ?)
""",
(ContextLayer.L6_DAILY.value, "2026-01-01", "total_pnl", "100.0", old_date, old_date),
)
db_conn.execute(
"""
INSERT INTO contexts (layer, timeframe, key, value, created_at, updated_at)
VALUES (?, ?, ?, ?, ?, ?)
""",
(ContextLayer.L6_DAILY.value, "2026-02-01", "total_pnl", "200.0", new_date, new_date),
)
db_conn.commit()
# Delete contexts before 2026-01-15
cutoff = "2026-01-15T00:00:00+00:00"
deleted = store.delete_old_contexts(ContextLayer.L6_DAILY, cutoff)
# Should delete the 2026-01-01 context
assert deleted == 1
assert store.get_context(ContextLayer.L6_DAILY, "2026-02-01", "total_pnl") == 200.0
assert store.get_context(ContextLayer.L6_DAILY, "2026-01-01", "total_pnl") is None
def test_cleanup_expired_contexts(
self, store: ContextStore, db_conn: sqlite3.Connection
) -> None:
"""Test automatic cleanup based on retention policies."""
# Set old contexts for L7 (7 day retention)
old_date = (datetime.now(UTC) - timedelta(days=10)).isoformat()
db_conn.execute(
"""
INSERT INTO contexts (layer, timeframe, key, value, created_at, updated_at)
VALUES (?, ?, ?, ?, ?, ?)
""",
(ContextLayer.L7_REALTIME.value, "2026-01-01", "price", "100.0", old_date, old_date),
)
db_conn.commit()
deleted_counts = store.cleanup_expired_contexts()
# Should delete the old L7 context (10 days > 7 day retention)
assert deleted_counts[ContextLayer.L7_REALTIME] == 1
# L1 has no retention limit, so nothing should be deleted
assert deleted_counts[ContextLayer.L1_LEGACY] == 0
def test_context_metadata_initialized(
self, store: ContextStore, db_conn: sqlite3.Connection
) -> None:
"""Test that context metadata is properly initialized."""
cursor = db_conn.execute("SELECT COUNT(*) FROM context_metadata")
count = cursor.fetchone()[0]
# Should have metadata for all 7 layers
assert count == 7
# Verify L1 metadata
cursor = db_conn.execute(
"SELECT description, retention_days FROM context_metadata WHERE layer = ?",
(ContextLayer.L1_LEGACY.value,),
)
row = cursor.fetchone()
assert row is not None
assert "Cumulative trading history" in row[0]
assert row[1] is None # No retention limit for L1
class TestContextAggregator:
"""Test suite for ContextAggregator."""
def test_aggregate_daily_from_trades(
self, aggregator: ContextAggregator, db_conn: sqlite3.Connection
) -> None:
"""Test aggregating daily metrics from trades."""
date = "2026-02-04"
# Create sample trades
log_trade(db_conn, "005930", "BUY", 85, "Good signal", quantity=10, price=70000, pnl=500)
log_trade(db_conn, "000660", "SELL", 90, "Take profit", quantity=5, price=50000, pnl=1500)
log_trade(db_conn, "035720", "HOLD", 75, "Wait", quantity=0, price=0, pnl=0)
# Manually set timestamps to the target date
db_conn.execute(
f"UPDATE trades SET timestamp = '{date}T10:00:00+00:00'"
)
db_conn.commit()
# Aggregate
aggregator.aggregate_daily_from_trades(date)
# Verify L6 contexts
store = aggregator.store
assert store.get_context(ContextLayer.L6_DAILY, date, "trade_count") == 3
assert store.get_context(ContextLayer.L6_DAILY, date, "buys") == 1
assert store.get_context(ContextLayer.L6_DAILY, date, "sells") == 1
assert store.get_context(ContextLayer.L6_DAILY, date, "holds") == 1
assert store.get_context(ContextLayer.L6_DAILY, date, "total_pnl") == 2000.0
assert store.get_context(ContextLayer.L6_DAILY, date, "unique_stocks") == 3
# 2 wins, 0 losses
assert store.get_context(ContextLayer.L6_DAILY, date, "win_rate") == 100.0
def test_aggregate_weekly_from_daily(self, aggregator: ContextAggregator) -> None:
"""Test aggregating weekly metrics from daily."""
week = "2026-W06"
# Set daily contexts
aggregator.store.set_context(ContextLayer.L6_DAILY, "2026-02-02", "total_pnl", 100.0)
aggregator.store.set_context(ContextLayer.L6_DAILY, "2026-02-03", "total_pnl", 200.0)
aggregator.store.set_context(ContextLayer.L6_DAILY, "2026-02-02", "avg_confidence", 80.0)
aggregator.store.set_context(ContextLayer.L6_DAILY, "2026-02-03", "avg_confidence", 85.0)
# Aggregate
aggregator.aggregate_weekly_from_daily(week)
# Verify L5 contexts
store = aggregator.store
weekly_pnl = store.get_context(ContextLayer.L5_WEEKLY, week, "weekly_pnl")
avg_conf = store.get_context(ContextLayer.L5_WEEKLY, week, "avg_confidence")
assert weekly_pnl == 300.0
assert avg_conf == 82.5
def test_aggregate_monthly_from_weekly(self, aggregator: ContextAggregator) -> None:
"""Test aggregating monthly metrics from weekly."""
month = "2026-02"
# Set weekly contexts
aggregator.store.set_context(ContextLayer.L5_WEEKLY, "2026-W05", "weekly_pnl", 100.0)
aggregator.store.set_context(ContextLayer.L5_WEEKLY, "2026-W06", "weekly_pnl", 200.0)
aggregator.store.set_context(ContextLayer.L5_WEEKLY, "2026-W07", "weekly_pnl", 150.0)
# Aggregate
aggregator.aggregate_monthly_from_weekly(month)
# Verify L4 contexts
store = aggregator.store
monthly_pnl = store.get_context(ContextLayer.L4_MONTHLY, month, "monthly_pnl")
assert monthly_pnl == 450.0
def test_aggregate_quarterly_from_monthly(self, aggregator: ContextAggregator) -> None:
"""Test aggregating quarterly metrics from monthly."""
quarter = "2026-Q1"
# Set monthly contexts for Q1 (Jan, Feb, Mar)
aggregator.store.set_context(ContextLayer.L4_MONTHLY, "2026-01", "monthly_pnl", 1000.0)
aggregator.store.set_context(ContextLayer.L4_MONTHLY, "2026-02", "monthly_pnl", 2000.0)
aggregator.store.set_context(ContextLayer.L4_MONTHLY, "2026-03", "monthly_pnl", 1500.0)
# Aggregate
aggregator.aggregate_quarterly_from_monthly(quarter)
# Verify L3 contexts
store = aggregator.store
quarterly_pnl = store.get_context(ContextLayer.L3_QUARTERLY, quarter, "quarterly_pnl")
assert quarterly_pnl == 4500.0
def test_aggregate_annual_from_quarterly(self, aggregator: ContextAggregator) -> None:
"""Test aggregating annual metrics from quarterly."""
year = "2026"
# Set quarterly contexts for all 4 quarters
aggregator.store.set_context(ContextLayer.L3_QUARTERLY, "2026-Q1", "quarterly_pnl", 4500.0)
aggregator.store.set_context(ContextLayer.L3_QUARTERLY, "2026-Q2", "quarterly_pnl", 5000.0)
aggregator.store.set_context(ContextLayer.L3_QUARTERLY, "2026-Q3", "quarterly_pnl", 4800.0)
aggregator.store.set_context(ContextLayer.L3_QUARTERLY, "2026-Q4", "quarterly_pnl", 5200.0)
# Aggregate
aggregator.aggregate_annual_from_quarterly(year)
# Verify L2 contexts
store = aggregator.store
annual_pnl = store.get_context(ContextLayer.L2_ANNUAL, year, "annual_pnl")
assert annual_pnl == 19500.0
def test_aggregate_legacy_from_annual(self, aggregator: ContextAggregator) -> None:
"""Test aggregating legacy metrics from all annual data."""
# Set annual contexts for multiple years
aggregator.store.set_context(ContextLayer.L2_ANNUAL, "2024", "annual_pnl", 10000.0)
aggregator.store.set_context(ContextLayer.L2_ANNUAL, "2025", "annual_pnl", 15000.0)
aggregator.store.set_context(ContextLayer.L2_ANNUAL, "2026", "annual_pnl", 20000.0)
# Aggregate
aggregator.aggregate_legacy_from_annual()
# Verify L1 contexts
store = aggregator.store
total_pnl = store.get_context(ContextLayer.L1_LEGACY, "LEGACY", "total_pnl")
years_traded = store.get_context(ContextLayer.L1_LEGACY, "LEGACY", "years_traded")
avg_annual_pnl = store.get_context(ContextLayer.L1_LEGACY, "LEGACY", "avg_annual_pnl")
assert total_pnl == 45000.0
assert years_traded == 3
assert avg_annual_pnl == 15000.0
def test_run_all_aggregations(
self, aggregator: ContextAggregator, db_conn: sqlite3.Connection
) -> None:
"""Test running all aggregations from L7 to L1."""
date = "2026-02-04"
# Create sample trades
log_trade(db_conn, "005930", "BUY", 85, "Good signal", quantity=10, price=70000, pnl=1000)
# Set timestamp
db_conn.execute(f"UPDATE trades SET timestamp = '{date}T10:00:00+00:00'")
db_conn.commit()
# Run all aggregations
aggregator.run_all_aggregations()
# Verify data exists in each layer
store = aggregator.store
assert store.get_context(ContextLayer.L6_DAILY, date, "total_pnl") == 1000.0
current_week = datetime.now(UTC).strftime("%Y-W%V")
assert store.get_context(ContextLayer.L5_WEEKLY, current_week, "weekly_pnl") is not None
# Further layers depend on time alignment, just verify no crashes
class TestLayerMetadata:
"""Test suite for layer metadata configuration."""
def test_all_layers_have_metadata(self) -> None:
"""Test that all 7 layers have metadata defined."""
assert len(LAYER_CONFIG) == 7
for layer in ContextLayer:
assert layer in LAYER_CONFIG
def test_layer_retention_policies(self) -> None:
"""Test layer retention policies are correctly configured."""
# L1 should have no retention limit
assert LAYER_CONFIG[ContextLayer.L1_LEGACY].retention_days is None
# L7 should have the shortest retention (7 days)
assert LAYER_CONFIG[ContextLayer.L7_REALTIME].retention_days == 7
# L2 should have a long retention (10 years)
assert LAYER_CONFIG[ContextLayer.L2_ANNUAL].retention_days == 365 * 10
def test_layer_aggregation_chain(self) -> None:
"""Test that the aggregation chain is properly configured."""
# L7 has no source (leaf layer)
assert LAYER_CONFIG[ContextLayer.L7_REALTIME].aggregation_source is None
# L6 aggregates from L7
assert LAYER_CONFIG[ContextLayer.L6_DAILY].aggregation_source == ContextLayer.L7_REALTIME
# L5 aggregates from L6
assert LAYER_CONFIG[ContextLayer.L5_WEEKLY].aggregation_source == ContextLayer.L6_DAILY
# L4 aggregates from L5
assert LAYER_CONFIG[ContextLayer.L4_MONTHLY].aggregation_source == ContextLayer.L5_WEEKLY
# L3 aggregates from L4
assert LAYER_CONFIG[ContextLayer.L3_QUARTERLY].aggregation_source == ContextLayer.L4_MONTHLY
# L2 aggregates from L3
assert LAYER_CONFIG[ContextLayer.L2_ANNUAL].aggregation_source == ContextLayer.L3_QUARTERLY
# L1 aggregates from L2
assert LAYER_CONFIG[ContextLayer.L1_LEGACY].aggregation_source == ContextLayer.L2_ANNUAL

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"""Tests for decision logging and audit trail."""
from __future__ import annotations
import sqlite3
from datetime import UTC, datetime
import pytest
from src.db import init_db
from src.logging.decision_logger import DecisionLog, DecisionLogger
@pytest.fixture
def db_conn() -> sqlite3.Connection:
"""Provide an in-memory database with initialized schema."""
conn = init_db(":memory:")
return conn
@pytest.fixture
def logger(db_conn: sqlite3.Connection) -> DecisionLogger:
"""Provide a DecisionLogger instance."""
return DecisionLogger(db_conn)
def test_log_decision_creates_record(logger: DecisionLogger, db_conn: sqlite3.Connection) -> None:
"""Test that log_decision creates a database record."""
context_snapshot = {
"L1": {"quote": {"price": 100.0, "volume": 1000}},
"L2": {"orderbook": {"bid": [99.0], "ask": [101.0]}},
}
input_data = {"price": 100.0, "volume": 1000, "foreigner_net": 500}
decision_id = logger.log_decision(
stock_code="005930",
market="KR",
exchange_code="KRX",
action="BUY",
confidence=85,
rationale="Strong upward momentum",
context_snapshot=context_snapshot,
input_data=input_data,
)
# Verify decision_id is a valid UUID
assert decision_id is not None
assert len(decision_id) == 36 # UUID v4 format
# Verify record exists in database
cursor = db_conn.execute(
"SELECT decision_id, action, confidence FROM decision_logs WHERE decision_id = ?",
(decision_id,),
)
row = cursor.fetchone()
assert row is not None
assert row[0] == decision_id
assert row[1] == "BUY"
assert row[2] == 85
def test_log_decision_stores_context_snapshot(logger: DecisionLogger) -> None:
"""Test that context snapshot is stored as JSON."""
context_snapshot = {
"L1": {"real_time": "data"},
"L3": {"daily": "aggregate"},
"L7": {"legacy": "wisdom"},
}
input_data = {"price": 50000.0, "volume": 2000}
decision_id = logger.log_decision(
stock_code="035420",
market="KR",
exchange_code="KRX",
action="HOLD",
confidence=75,
rationale="Waiting for clearer signal",
context_snapshot=context_snapshot,
input_data=input_data,
)
# Retrieve and verify context snapshot
decision = logger.get_decision_by_id(decision_id)
assert decision is not None
assert decision.context_snapshot == context_snapshot
assert decision.input_data == input_data
def test_get_unreviewed_decisions(logger: DecisionLogger) -> None:
"""Test retrieving unreviewed decisions with confidence filter."""
# Log multiple decisions with varying confidence
logger.log_decision(
stock_code="005930",
market="KR",
exchange_code="KRX",
action="BUY",
confidence=90,
rationale="High confidence buy",
context_snapshot={},
input_data={},
)
logger.log_decision(
stock_code="000660",
market="KR",
exchange_code="KRX",
action="SELL",
confidence=75,
rationale="Low confidence sell",
context_snapshot={},
input_data={},
)
logger.log_decision(
stock_code="035420",
market="KR",
exchange_code="KRX",
action="HOLD",
confidence=85,
rationale="Medium confidence hold",
context_snapshot={},
input_data={},
)
# Get unreviewed decisions with default threshold (80)
unreviewed = logger.get_unreviewed_decisions()
assert len(unreviewed) == 2 # Only confidence >= 80
assert all(d.confidence >= 80 for d in unreviewed)
assert all(not d.reviewed for d in unreviewed)
# Get with lower threshold
unreviewed_all = logger.get_unreviewed_decisions(min_confidence=70)
assert len(unreviewed_all) == 3
def test_mark_reviewed(logger: DecisionLogger) -> None:
"""Test marking a decision as reviewed."""
decision_id = logger.log_decision(
stock_code="005930",
market="KR",
exchange_code="KRX",
action="BUY",
confidence=85,
rationale="Test decision",
context_snapshot={},
input_data={},
)
# Initially unreviewed
decision = logger.get_decision_by_id(decision_id)
assert decision is not None
assert not decision.reviewed
assert decision.review_notes is None
# Mark as reviewed
review_notes = "Good decision, captured bullish momentum correctly"
logger.mark_reviewed(decision_id, review_notes)
# Verify updated
decision = logger.get_decision_by_id(decision_id)
assert decision is not None
assert decision.reviewed
assert decision.review_notes == review_notes
# Should not appear in unreviewed list
unreviewed = logger.get_unreviewed_decisions()
assert all(d.decision_id != decision_id for d in unreviewed)
def test_update_outcome(logger: DecisionLogger) -> None:
"""Test updating decision outcome with P&L and accuracy."""
decision_id = logger.log_decision(
stock_code="005930",
market="KR",
exchange_code="KRX",
action="BUY",
confidence=90,
rationale="Expecting price increase",
context_snapshot={},
input_data={},
)
# Initially no outcome
decision = logger.get_decision_by_id(decision_id)
assert decision is not None
assert decision.outcome_pnl is None
assert decision.outcome_accuracy is None
# Update outcome (profitable trade)
logger.update_outcome(decision_id, pnl=5000.0, accuracy=1)
# Verify updated
decision = logger.get_decision_by_id(decision_id)
assert decision is not None
assert decision.outcome_pnl == 5000.0
assert decision.outcome_accuracy == 1
def test_get_losing_decisions(logger: DecisionLogger) -> None:
"""Test retrieving high-confidence losing decisions."""
# Profitable decision
id1 = logger.log_decision(
stock_code="005930",
market="KR",
exchange_code="KRX",
action="BUY",
confidence=85,
rationale="Correct prediction",
context_snapshot={},
input_data={},
)
logger.update_outcome(id1, pnl=3000.0, accuracy=1)
# High-confidence loss
id2 = logger.log_decision(
stock_code="000660",
market="KR",
exchange_code="KRX",
action="SELL",
confidence=90,
rationale="Wrong prediction",
context_snapshot={},
input_data={},
)
logger.update_outcome(id2, pnl=-2000.0, accuracy=0)
# Low-confidence loss (should be ignored)
id3 = logger.log_decision(
stock_code="035420",
market="KR",
exchange_code="KRX",
action="BUY",
confidence=70,
rationale="Low confidence, wrong",
context_snapshot={},
input_data={},
)
logger.update_outcome(id3, pnl=-1500.0, accuracy=0)
# Get high-confidence losing decisions
losers = logger.get_losing_decisions(min_confidence=80, min_loss=-1000.0)
assert len(losers) == 1
assert losers[0].decision_id == id2
assert losers[0].outcome_pnl == -2000.0
assert losers[0].confidence == 90
def test_get_decision_by_id_not_found(logger: DecisionLogger) -> None:
"""Test that get_decision_by_id returns None for non-existent ID."""
decision = logger.get_decision_by_id("non-existent-uuid")
assert decision is None
def test_unreviewed_limit(logger: DecisionLogger) -> None:
"""Test that get_unreviewed_decisions respects limit parameter."""
# Create 5 unreviewed decisions
for i in range(5):
logger.log_decision(
stock_code=f"00{i}",
market="KR",
exchange_code="KRX",
action="HOLD",
confidence=85,
rationale=f"Decision {i}",
context_snapshot={},
input_data={},
)
# Get only 3
unreviewed = logger.get_unreviewed_decisions(limit=3)
assert len(unreviewed) == 3
def test_decision_log_dataclass() -> None:
"""Test DecisionLog dataclass creation."""
now = datetime.now(UTC).isoformat()
log = DecisionLog(
decision_id="test-uuid",
timestamp=now,
stock_code="005930",
market="KR",
exchange_code="KRX",
action="BUY",
confidence=85,
rationale="Test",
context_snapshot={"L1": "data"},
input_data={"price": 100.0},
)
assert log.decision_id == "test-uuid"
assert log.action == "BUY"
assert log.confidence == 85
assert log.reviewed is False
assert log.outcome_pnl is None

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"""Tests for market schedule management."""
from datetime import datetime
from zoneinfo import ZoneInfo
import pytest
from src.markets.schedule import (
MARKETS,
get_next_market_open,
get_open_markets,
is_market_open,
)
class TestMarketInfo:
"""Test MarketInfo dataclass."""
def test_market_info_immutable(self) -> None:
"""MarketInfo should be frozen."""
market = MARKETS["KR"]
with pytest.raises(AttributeError):
market.code = "US" # type: ignore[misc]
def test_all_markets_defined(self) -> None:
"""All 10 markets should be defined."""
expected_markets = {
"KR",
"US_NASDAQ",
"US_NYSE",
"US_AMEX",
"JP",
"HK",
"CN_SHA",
"CN_SZA",
"VN_HAN",
"VN_HCM",
}
assert set(MARKETS.keys()) == expected_markets
class TestIsMarketOpen:
"""Test is_market_open function."""
def test_kr_market_open_weekday(self) -> None:
"""KR market should be open during trading hours on weekday."""
# Monday 2026-02-02 10:00 KST
test_time = datetime(2026, 2, 2, 10, 0, tzinfo=ZoneInfo("Asia/Seoul"))
assert is_market_open(MARKETS["KR"], test_time)
def test_kr_market_closed_before_open(self) -> None:
"""KR market should be closed before 9:00."""
# Monday 2026-02-02 08:30 KST
test_time = datetime(2026, 2, 2, 8, 30, tzinfo=ZoneInfo("Asia/Seoul"))
assert not is_market_open(MARKETS["KR"], test_time)
def test_kr_market_closed_after_close(self) -> None:
"""KR market should be closed after 15:30."""
# Monday 2026-02-02 15:30 KST (exact close time)
test_time = datetime(2026, 2, 2, 15, 30, tzinfo=ZoneInfo("Asia/Seoul"))
assert not is_market_open(MARKETS["KR"], test_time)
def test_kr_market_closed_weekend(self) -> None:
"""KR market should be closed on weekends."""
# Saturday 2026-02-07 10:00 KST
test_time = datetime(2026, 2, 7, 10, 0, tzinfo=ZoneInfo("Asia/Seoul"))
assert not is_market_open(MARKETS["KR"], test_time)
# Sunday 2026-02-08 10:00 KST
test_time = datetime(2026, 2, 8, 10, 0, tzinfo=ZoneInfo("Asia/Seoul"))
assert not is_market_open(MARKETS["KR"], test_time)
def test_us_nasdaq_open_with_dst(self) -> None:
"""US markets should respect DST."""
# Monday 2026-06-01 10:00 EDT (DST in effect)
test_time = datetime(2026, 6, 1, 10, 0, tzinfo=ZoneInfo("America/New_York"))
assert is_market_open(MARKETS["US_NASDAQ"], test_time)
# Monday 2026-12-07 10:00 EST (no DST)
test_time = datetime(2026, 12, 7, 10, 0, tzinfo=ZoneInfo("America/New_York"))
assert is_market_open(MARKETS["US_NASDAQ"], test_time)
def test_jp_market_lunch_break(self) -> None:
"""JP market should be closed during lunch break."""
# Monday 2026-02-02 12:00 JST (lunch break)
test_time = datetime(2026, 2, 2, 12, 0, tzinfo=ZoneInfo("Asia/Tokyo"))
assert not is_market_open(MARKETS["JP"], test_time)
# Before lunch
test_time = datetime(2026, 2, 2, 11, 0, tzinfo=ZoneInfo("Asia/Tokyo"))
assert is_market_open(MARKETS["JP"], test_time)
# After lunch
test_time = datetime(2026, 2, 2, 13, 0, tzinfo=ZoneInfo("Asia/Tokyo"))
assert is_market_open(MARKETS["JP"], test_time)
def test_hk_market_lunch_break(self) -> None:
"""HK market should be closed during lunch break."""
# Monday 2026-02-02 12:30 HKT (lunch break)
test_time = datetime(2026, 2, 2, 12, 30, tzinfo=ZoneInfo("Asia/Hong_Kong"))
assert not is_market_open(MARKETS["HK"], test_time)
def test_timezone_conversion(self) -> None:
"""Should correctly convert timezones."""
# 2026-02-02 10:00 KST = 2026-02-02 01:00 UTC
test_time = datetime(2026, 2, 2, 1, 0, tzinfo=ZoneInfo("UTC"))
assert is_market_open(MARKETS["KR"], test_time)
class TestGetOpenMarkets:
"""Test get_open_markets function."""
def test_get_open_markets_all_closed(self) -> None:
"""Should return empty list when all markets closed."""
# Sunday 2026-02-08 12:00 UTC (all markets closed)
test_time = datetime(2026, 2, 8, 12, 0, tzinfo=ZoneInfo("UTC"))
assert get_open_markets(now=test_time) == []
def test_get_open_markets_kr_only(self) -> None:
"""Should return only KR when filtering enabled markets."""
# Monday 2026-02-02 10:00 KST = 01:00 UTC
test_time = datetime(2026, 2, 2, 1, 0, tzinfo=ZoneInfo("UTC"))
open_markets = get_open_markets(enabled_markets=["KR"], now=test_time)
assert len(open_markets) == 1
assert open_markets[0].code == "KR"
def test_get_open_markets_multiple(self) -> None:
"""Should return multiple markets when open."""
# Monday 2026-02-02 14:30 EST = 19:30 UTC
# US markets: 9:30-16:00 EST → 14:30-21:00 UTC (open)
test_time = datetime(2026, 2, 2, 19, 30, tzinfo=ZoneInfo("UTC"))
open_markets = get_open_markets(
enabled_markets=["US_NASDAQ", "US_NYSE", "US_AMEX"], now=test_time
)
assert len(open_markets) == 3
codes = {m.code for m in open_markets}
assert codes == {"US_NASDAQ", "US_NYSE", "US_AMEX"}
def test_get_open_markets_sorted(self) -> None:
"""Should return markets sorted by code."""
# Monday 2026-02-02 14:30 EST
test_time = datetime(2026, 2, 2, 19, 30, tzinfo=ZoneInfo("UTC"))
open_markets = get_open_markets(
enabled_markets=["US_NYSE", "US_AMEX", "US_NASDAQ"], now=test_time
)
codes = [m.code for m in open_markets]
assert codes == sorted(codes)
class TestGetNextMarketOpen:
"""Test get_next_market_open function."""
def test_get_next_market_open_weekend(self) -> None:
"""Should find next Monday opening when called on weekend."""
# Saturday 2026-02-07 12:00 UTC
test_time = datetime(2026, 2, 7, 12, 0, tzinfo=ZoneInfo("UTC"))
market, open_time = get_next_market_open(
enabled_markets=["KR"], now=test_time
)
assert market.code == "KR"
# Monday 2026-02-09 09:00 KST
expected = datetime(2026, 2, 9, 9, 0, tzinfo=ZoneInfo("Asia/Seoul"))
assert open_time == expected.astimezone(ZoneInfo("UTC"))
def test_get_next_market_open_after_close(self) -> None:
"""Should find next day opening when called after market close."""
# Monday 2026-02-02 16:00 KST (after close)
test_time = datetime(2026, 2, 2, 16, 0, tzinfo=ZoneInfo("Asia/Seoul"))
market, open_time = get_next_market_open(
enabled_markets=["KR"], now=test_time
)
assert market.code == "KR"
# Tuesday 2026-02-03 09:00 KST
expected = datetime(2026, 2, 3, 9, 0, tzinfo=ZoneInfo("Asia/Seoul"))
assert open_time == expected.astimezone(ZoneInfo("UTC"))
def test_get_next_market_open_multiple_markets(self) -> None:
"""Should find earliest opening market among multiple."""
# Saturday 2026-02-07 12:00 UTC
test_time = datetime(2026, 2, 7, 12, 0, tzinfo=ZoneInfo("UTC"))
market, open_time = get_next_market_open(
enabled_markets=["KR", "US_NASDAQ"], now=test_time
)
# Monday 2026-02-09: KR opens at 09:00 KST = 00:00 UTC
# Monday 2026-02-09: US opens at 09:30 EST = 14:30 UTC
# KR opens first
assert market.code == "KR"
def test_get_next_market_open_no_markets(self) -> None:
"""Should raise ValueError when no markets enabled."""
test_time = datetime(2026, 2, 7, 12, 0, tzinfo=ZoneInfo("UTC"))
with pytest.raises(ValueError, match="No enabled markets"):
get_next_market_open(enabled_markets=[], now=test_time)
def test_get_next_market_open_invalid_market(self) -> None:
"""Should skip invalid market codes."""
test_time = datetime(2026, 2, 7, 12, 0, tzinfo=ZoneInfo("UTC"))
market, _ = get_next_market_open(
enabled_markets=["INVALID", "KR"], now=test_time
)
assert market.code == "KR"

View File

@@ -10,7 +10,6 @@ from src.core.risk_manager import (
RiskManager, RiskManager,
) )
# --------------------------------------------------------------------------- # ---------------------------------------------------------------------------
# Circuit Breaker Tests # Circuit Breaker Tests
# --------------------------------------------------------------------------- # ---------------------------------------------------------------------------

511
tests/test_volatility.py Normal file
View File

@@ -0,0 +1,511 @@
"""Tests for volatility analysis and market scanning."""
from __future__ import annotations
import sqlite3
from typing import Any
from unittest.mock import AsyncMock
import pytest
from src.analysis.scanner import MarketScanner, ScanResult
from src.analysis.volatility import VolatilityAnalyzer, VolatilityMetrics
from src.broker.kis_api import KISBroker
from src.broker.overseas import OverseasBroker
from src.config import Settings
from src.context.layer import ContextLayer
from src.context.store import ContextStore
from src.db import init_db
from src.markets.schedule import MARKETS
@pytest.fixture
def db_conn() -> sqlite3.Connection:
"""Provide an in-memory database connection."""
return init_db(":memory:")
@pytest.fixture
def context_store(db_conn: sqlite3.Connection) -> ContextStore:
"""Provide a ContextStore instance."""
return ContextStore(db_conn)
@pytest.fixture
def volatility_analyzer() -> VolatilityAnalyzer:
"""Provide a VolatilityAnalyzer instance."""
return VolatilityAnalyzer(min_volume_surge=2.0, min_price_change=1.0)
@pytest.fixture
def mock_settings() -> Settings:
"""Provide mock settings for broker initialization."""
return Settings(
KIS_APP_KEY="test_key",
KIS_APP_SECRET="test_secret",
KIS_ACCOUNT_NO="12345678-01",
GEMINI_API_KEY="test_gemini_key",
)
@pytest.fixture
def mock_broker(mock_settings: Settings) -> KISBroker:
"""Provide a mock KIS broker."""
broker = KISBroker(mock_settings)
broker.get_orderbook = AsyncMock() # type: ignore[method-assign]
return broker
@pytest.fixture
def mock_overseas_broker(mock_broker: KISBroker) -> OverseasBroker:
"""Provide a mock overseas broker."""
overseas = OverseasBroker(mock_broker)
overseas.get_overseas_price = AsyncMock() # type: ignore[method-assign]
return overseas
class TestVolatilityAnalyzer:
"""Test suite for VolatilityAnalyzer."""
def test_calculate_atr(self, volatility_analyzer: VolatilityAnalyzer) -> None:
"""Test ATR calculation."""
high_prices = [110.0, 112.0, 115.0, 113.0, 116.0] + [120.0] * 10
low_prices = [105.0, 107.0, 110.0, 108.0, 111.0] + [115.0] * 10
close_prices = [108.0, 110.0, 112.0, 111.0, 114.0] + [118.0] * 10
atr = volatility_analyzer.calculate_atr(high_prices, low_prices, close_prices, period=14)
assert atr > 0.0
# ATR should be roughly the average true range
assert 3.0 <= atr <= 6.0
def test_calculate_atr_insufficient_data(
self, volatility_analyzer: VolatilityAnalyzer
) -> None:
"""Test ATR with insufficient data returns 0."""
high_prices = [110.0, 112.0]
low_prices = [105.0, 107.0]
close_prices = [108.0, 110.0]
atr = volatility_analyzer.calculate_atr(high_prices, low_prices, close_prices, period=14)
assert atr == 0.0
def test_calculate_price_change(self, volatility_analyzer: VolatilityAnalyzer) -> None:
"""Test price change percentage calculation."""
# 10% increase
change = volatility_analyzer.calculate_price_change(110.0, 100.0)
assert change == pytest.approx(10.0)
# 5% decrease
change = volatility_analyzer.calculate_price_change(95.0, 100.0)
assert change == pytest.approx(-5.0)
# Zero past price
change = volatility_analyzer.calculate_price_change(100.0, 0.0)
assert change == 0.0
def test_calculate_volume_surge(self, volatility_analyzer: VolatilityAnalyzer) -> None:
"""Test volume surge ratio calculation."""
# 2x surge
surge = volatility_analyzer.calculate_volume_surge(2000.0, 1000.0)
assert surge == pytest.approx(2.0)
# Below average
surge = volatility_analyzer.calculate_volume_surge(500.0, 1000.0)
assert surge == pytest.approx(0.5)
# Zero average
surge = volatility_analyzer.calculate_volume_surge(1000.0, 0.0)
assert surge == 1.0
def test_calculate_pv_divergence_bullish(
self, volatility_analyzer: VolatilityAnalyzer
) -> None:
"""Test bullish price-volume divergence."""
# Price up + Volume up = bullish
divergence = volatility_analyzer.calculate_pv_divergence(5.0, 2.0)
assert divergence > 0.0
def test_calculate_pv_divergence_bearish(
self, volatility_analyzer: VolatilityAnalyzer
) -> None:
"""Test bearish price-volume divergence."""
# Price up + Volume down = bearish divergence
divergence = volatility_analyzer.calculate_pv_divergence(5.0, 0.5)
assert divergence < 0.0
def test_calculate_pv_divergence_selling_pressure(
self, volatility_analyzer: VolatilityAnalyzer
) -> None:
"""Test selling pressure detection."""
# Price down + Volume up = selling pressure
divergence = volatility_analyzer.calculate_pv_divergence(-5.0, 2.0)
assert divergence < 0.0
def test_calculate_momentum_score(
self, volatility_analyzer: VolatilityAnalyzer
) -> None:
"""Test momentum score calculation."""
score = volatility_analyzer.calculate_momentum_score(
price_change_1m=5.0,
price_change_5m=3.0,
price_change_15m=2.0,
volume_surge=2.5,
atr=1.5,
current_price=100.0,
)
assert 0.0 <= score <= 100.0
assert score > 50.0 # Should be high for strong positive momentum
def test_calculate_momentum_score_negative(
self, volatility_analyzer: VolatilityAnalyzer
) -> None:
"""Test momentum score with negative price changes."""
score = volatility_analyzer.calculate_momentum_score(
price_change_1m=-5.0,
price_change_5m=-3.0,
price_change_15m=-2.0,
volume_surge=1.0,
atr=1.0,
current_price=100.0,
)
assert 0.0 <= score <= 100.0
assert score < 50.0 # Should be low for negative momentum
def test_analyze(self, volatility_analyzer: VolatilityAnalyzer) -> None:
"""Test full analysis of a stock."""
orderbook_data = {
"output1": {
"stck_prpr": "50000",
"acml_vol": "1000000",
}
}
price_history = {
"high": [51000.0] * 20,
"low": [49000.0] * 20,
"close": [48000.0] + [50000.0] * 19,
"volume": [500000.0] * 20,
}
metrics = volatility_analyzer.analyze("005930", orderbook_data, price_history)
assert metrics.stock_code == "005930"
assert metrics.current_price == 50000.0
assert metrics.atr > 0.0
assert metrics.volume_surge == pytest.approx(2.0) # 1M / 500K
assert 0.0 <= metrics.momentum_score <= 100.0
def test_is_breakout(self, volatility_analyzer: VolatilityAnalyzer) -> None:
"""Test breakout detection."""
# Strong breakout
metrics = VolatilityMetrics(
stock_code="005930",
current_price=50000.0,
atr=500.0,
price_change_1m=2.5,
price_change_5m=3.0,
price_change_15m=4.0,
volume_surge=3.0,
pv_divergence=50.0,
momentum_score=85.0,
)
assert volatility_analyzer.is_breakout(metrics) is True
def test_is_breakout_no_volume(self, volatility_analyzer: VolatilityAnalyzer) -> None:
"""Test that breakout requires volume confirmation."""
# Price up but no volume = not a real breakout
metrics = VolatilityMetrics(
stock_code="005930",
current_price=50000.0,
atr=500.0,
price_change_1m=2.5,
price_change_5m=3.0,
price_change_15m=4.0,
volume_surge=1.2, # Below threshold
pv_divergence=10.0,
momentum_score=70.0,
)
assert volatility_analyzer.is_breakout(metrics) is False
def test_is_breakdown(self, volatility_analyzer: VolatilityAnalyzer) -> None:
"""Test breakdown detection."""
# Strong breakdown
metrics = VolatilityMetrics(
stock_code="005930",
current_price=50000.0,
atr=500.0,
price_change_1m=-2.5,
price_change_5m=-3.0,
price_change_15m=-4.0,
volume_surge=3.0,
pv_divergence=-50.0,
momentum_score=15.0,
)
assert volatility_analyzer.is_breakdown(metrics) is True
def test_volatility_metrics_repr(self) -> None:
"""Test VolatilityMetrics string representation."""
metrics = VolatilityMetrics(
stock_code="005930",
current_price=50000.0,
atr=500.0,
price_change_1m=2.5,
price_change_5m=3.0,
price_change_15m=4.0,
volume_surge=3.0,
pv_divergence=50.0,
momentum_score=85.0,
)
repr_str = repr(metrics)
assert "005930" in repr_str
assert "50000.00" in repr_str
assert "2.50%" in repr_str
class TestMarketScanner:
"""Test suite for MarketScanner."""
@pytest.fixture
def scanner(
self,
mock_broker: KISBroker,
mock_overseas_broker: OverseasBroker,
volatility_analyzer: VolatilityAnalyzer,
context_store: ContextStore,
) -> MarketScanner:
"""Provide a MarketScanner instance."""
return MarketScanner(
broker=mock_broker,
overseas_broker=mock_overseas_broker,
volatility_analyzer=volatility_analyzer,
context_store=context_store,
top_n=5,
)
@pytest.mark.asyncio
async def test_scan_stock_domestic(
self,
scanner: MarketScanner,
mock_broker: KISBroker,
context_store: ContextStore,
) -> None:
"""Test scanning a domestic stock."""
mock_broker.get_orderbook.return_value = {
"output1": {
"stck_prpr": "50000",
"acml_vol": "1000000",
}
}
market = MARKETS["KR"]
metrics = await scanner.scan_stock("005930", market)
assert metrics is not None
assert metrics.stock_code == "005930"
assert metrics.current_price == 50000.0
# Verify L7 context was stored
latest_timeframe = context_store.get_latest_timeframe(ContextLayer.L7_REALTIME)
assert latest_timeframe is not None
@pytest.mark.asyncio
async def test_scan_stock_overseas(
self,
scanner: MarketScanner,
mock_overseas_broker: OverseasBroker,
context_store: ContextStore,
) -> None:
"""Test scanning an overseas stock."""
mock_overseas_broker.get_overseas_price.return_value = {
"output": {
"last": "150.50",
"tvol": "5000000",
}
}
market = MARKETS["US_NASDAQ"]
metrics = await scanner.scan_stock("AAPL", market)
assert metrics is not None
assert metrics.stock_code == "AAPL"
assert metrics.current_price == 150.50
@pytest.mark.asyncio
async def test_scan_stock_error_handling(
self,
scanner: MarketScanner,
mock_broker: KISBroker,
) -> None:
"""Test that scan_stock handles errors gracefully."""
mock_broker.get_orderbook.side_effect = Exception("Network error")
market = MARKETS["KR"]
metrics = await scanner.scan_stock("005930", market)
assert metrics is None # Should return None on error, not crash
@pytest.mark.asyncio
async def test_scan_market(
self,
scanner: MarketScanner,
mock_broker: KISBroker,
context_store: ContextStore,
) -> None:
"""Test scanning a full market."""
def mock_orderbook(stock_code: str) -> dict[str, Any]:
"""Generate mock orderbook with varying prices."""
base_price = int(stock_code) if stock_code.isdigit() else 50000
return {
"output1": {
"stck_prpr": str(base_price),
"acml_vol": str(base_price * 20), # Volume proportional to price
}
}
mock_broker.get_orderbook.side_effect = mock_orderbook
market = MARKETS["KR"]
stock_codes = ["005930", "000660", "035420"]
result = await scanner.scan_market(market, stock_codes)
assert result.market_code == "KR"
assert result.total_scanned == 3
assert len(result.top_movers) <= 5
assert all(isinstance(m, VolatilityMetrics) for m in result.top_movers)
# Verify scan result was stored in L7
latest_timeframe = context_store.get_latest_timeframe(ContextLayer.L7_REALTIME)
assert latest_timeframe is not None
scan_result = context_store.get_context(
ContextLayer.L7_REALTIME,
latest_timeframe,
"KR_scan_result",
)
assert scan_result is not None
assert scan_result["total_scanned"] == 3
@pytest.mark.asyncio
async def test_scan_market_with_breakouts(
self,
scanner: MarketScanner,
mock_broker: KISBroker,
) -> None:
"""Test that scan detects breakouts."""
# Mock strong price increase with volume
mock_broker.get_orderbook.return_value = {
"output1": {
"stck_prpr": "55000", # High price
"acml_vol": "5000000", # High volume
}
}
market = MARKETS["KR"]
stock_codes = ["005930"]
result = await scanner.scan_market(market, stock_codes)
# With high volume and price, might detect breakouts
# (depends on price history which is empty in this test)
assert isinstance(result.breakouts, list)
assert isinstance(result.breakdowns, list)
def test_get_updated_watchlist(self, scanner: MarketScanner) -> None:
"""Test watchlist update logic."""
current_watchlist = ["005930", "000660", "035420"]
# Create scan result with new leaders
top_movers = [
VolatilityMetrics("005930", 50000, 500, 2.0, 3.0, 4.0, 3.0, 50.0, 90.0),
VolatilityMetrics("005380", 48000, 480, 1.8, 2.5, 3.0, 2.8, 45.0, 85.0),
VolatilityMetrics("005490", 46000, 460, 1.5, 2.0, 2.5, 2.5, 40.0, 80.0),
]
scan_result = ScanResult(
market_code="KR",
timestamp="2026-02-04T10:00:00",
total_scanned=10,
top_movers=top_movers,
breakouts=["005380"],
breakdowns=[],
)
updated = scanner.get_updated_watchlist(
current_watchlist,
scan_result,
max_replacements=2,
)
assert "005930" in updated # Should keep existing top mover
assert "005380" in updated # Should add new leader
assert len(updated) == len(current_watchlist) # Should maintain size
def test_get_updated_watchlist_all_keepers(self, scanner: MarketScanner) -> None:
"""Test watchlist when all current stocks are still top movers."""
current_watchlist = ["005930", "000660", "035420"]
top_movers = [
VolatilityMetrics("005930", 50000, 500, 2.0, 3.0, 4.0, 3.0, 50.0, 90.0),
VolatilityMetrics("000660", 48000, 480, 1.8, 2.5, 3.0, 2.8, 45.0, 85.0),
VolatilityMetrics("035420", 46000, 460, 1.5, 2.0, 2.5, 2.5, 40.0, 80.0),
]
scan_result = ScanResult(
market_code="KR",
timestamp="2026-02-04T10:00:00",
total_scanned=10,
top_movers=top_movers,
breakouts=[],
breakdowns=[],
)
updated = scanner.get_updated_watchlist(
current_watchlist,
scan_result,
max_replacements=2,
)
# Should keep all current stocks since they're all in top movers
assert set(updated) == set(current_watchlist)
def test_get_updated_watchlist_max_replacements(
self, scanner: MarketScanner
) -> None:
"""Test that max_replacements limit is respected."""
current_watchlist = ["000660", "035420", "005490"]
# All new leaders (none in current watchlist)
top_movers = [
VolatilityMetrics("005930", 50000, 500, 2.0, 3.0, 4.0, 3.0, 50.0, 90.0),
VolatilityMetrics("005380", 48000, 480, 1.8, 2.5, 3.0, 2.8, 45.0, 85.0),
VolatilityMetrics("035720", 46000, 460, 1.5, 2.0, 2.5, 2.5, 40.0, 80.0),
]
scan_result = ScanResult(
market_code="KR",
timestamp="2026-02-04T10:00:00",
total_scanned=10,
top_movers=top_movers,
breakouts=[],
breakdowns=[],
)
updated = scanner.get_updated_watchlist(
current_watchlist,
scan_result,
max_replacements=1, # Only allow 1 replacement
)
# Should add at most 1 new leader
new_additions = [code for code in updated if code not in current_watchlist]
assert len(new_additions) <= 1
assert len(updated) == len(current_watchlist)