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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
11 changed files with 1167 additions and 1350 deletions

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@@ -8,7 +8,6 @@ dependencies = [
"pydantic>=2.5,<3", "pydantic>=2.5,<3",
"pydantic-settings>=2.1,<3", "pydantic-settings>=2.1,<3",
"google-genai>=1.0,<2", "google-genai>=1.0,<2",
"scipy>=1.11,<2",
] ]
[project.optional-dependencies] [project.optional-dependencies]

8
src/analysis/__init__.py Normal file
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@@ -0,0 +1,8 @@
"""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"]

237
src/analysis/scanner.py Normal file
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@@ -0,0 +1,237 @@
"""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
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@@ -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
)

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@@ -1,19 +0,0 @@
"""Evolution engine for self-improving trading strategies."""
from src.evolution.ab_test import ABTester, ABTestResult, StrategyPerformance
from src.evolution.optimizer import EvolutionOptimizer
from src.evolution.performance_tracker import (
PerformanceDashboard,
PerformanceTracker,
StrategyMetrics,
)
__all__ = [
"EvolutionOptimizer",
"ABTester",
"ABTestResult",
"StrategyPerformance",
"PerformanceTracker",
"PerformanceDashboard",
"StrategyMetrics",
]

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@@ -1,220 +0,0 @@
"""A/B Testing framework for strategy comparison.
Runs multiple strategies in parallel, tracks their performance,
and uses statistical significance testing to determine winners.
"""
from __future__ import annotations
import logging
from dataclasses import dataclass
from typing import Any
import scipy.stats as stats
logger = logging.getLogger(__name__)
@dataclass
class StrategyPerformance:
"""Performance metrics for a single strategy."""
strategy_name: str
total_trades: int
wins: int
losses: int
total_pnl: float
avg_pnl: float
win_rate: float
sharpe_ratio: float | None = None
@dataclass
class ABTestResult:
"""Result of an A/B test between two strategies."""
strategy_a: str
strategy_b: str
winner: str | None
p_value: float
confidence_level: float
is_significant: bool
performance_a: StrategyPerformance
performance_b: StrategyPerformance
class ABTester:
"""A/B testing framework for comparing trading strategies."""
def __init__(self, significance_level: float = 0.05) -> None:
"""Initialize A/B tester.
Args:
significance_level: P-value threshold for statistical significance (default 0.05)
"""
self._significance_level = significance_level
def calculate_performance(
self, trades: list[dict[str, Any]], strategy_name: str
) -> StrategyPerformance:
"""Calculate performance metrics for a strategy.
Args:
trades: List of trade records with pnl values
strategy_name: Name of the strategy
Returns:
StrategyPerformance object with calculated metrics
"""
if not trades:
return StrategyPerformance(
strategy_name=strategy_name,
total_trades=0,
wins=0,
losses=0,
total_pnl=0.0,
avg_pnl=0.0,
win_rate=0.0,
sharpe_ratio=None,
)
total_trades = len(trades)
wins = sum(1 for t in trades if t.get("pnl", 0) > 0)
losses = sum(1 for t in trades if t.get("pnl", 0) < 0)
pnls = [t.get("pnl", 0.0) for t in trades]
total_pnl = sum(pnls)
avg_pnl = total_pnl / total_trades if total_trades > 0 else 0.0
win_rate = (wins / total_trades * 100) if total_trades > 0 else 0.0
# Calculate Sharpe ratio (risk-adjusted return)
sharpe_ratio = None
if len(pnls) > 1:
mean_return = avg_pnl
std_return = (
sum((p - mean_return) ** 2 for p in pnls) / (len(pnls) - 1)
) ** 0.5
if std_return > 0:
sharpe_ratio = mean_return / std_return
return StrategyPerformance(
strategy_name=strategy_name,
total_trades=total_trades,
wins=wins,
losses=losses,
total_pnl=round(total_pnl, 2),
avg_pnl=round(avg_pnl, 2),
win_rate=round(win_rate, 2),
sharpe_ratio=round(sharpe_ratio, 4) if sharpe_ratio else None,
)
def compare_strategies(
self,
trades_a: list[dict[str, Any]],
trades_b: list[dict[str, Any]],
strategy_a_name: str = "Strategy A",
strategy_b_name: str = "Strategy B",
) -> ABTestResult:
"""Compare two strategies using statistical testing.
Uses a two-sample t-test to determine if performance difference is significant.
Args:
trades_a: List of trades from strategy A
trades_b: List of trades from strategy B
strategy_a_name: Name of strategy A
strategy_b_name: Name of strategy B
Returns:
ABTestResult with comparison details
"""
perf_a = self.calculate_performance(trades_a, strategy_a_name)
perf_b = self.calculate_performance(trades_b, strategy_b_name)
# Extract PnL arrays for statistical testing
pnls_a = [t.get("pnl", 0.0) for t in trades_a]
pnls_b = [t.get("pnl", 0.0) for t in trades_b]
# Perform two-sample t-test
if len(pnls_a) > 1 and len(pnls_b) > 1:
t_stat, p_value = stats.ttest_ind(pnls_a, pnls_b, equal_var=False)
is_significant = p_value < self._significance_level
confidence_level = (1 - p_value) * 100
else:
# Not enough data for statistical test
p_value = 1.0
is_significant = False
confidence_level = 0.0
# Determine winner based on average PnL
winner = None
if is_significant:
if perf_a.avg_pnl > perf_b.avg_pnl:
winner = strategy_a_name
elif perf_b.avg_pnl > perf_a.avg_pnl:
winner = strategy_b_name
return ABTestResult(
strategy_a=strategy_a_name,
strategy_b=strategy_b_name,
winner=winner,
p_value=round(p_value, 4),
confidence_level=round(confidence_level, 2),
is_significant=is_significant,
performance_a=perf_a,
performance_b=perf_b,
)
def should_deploy(
self,
result: ABTestResult,
min_win_rate: float = 60.0,
min_trades: int = 20,
) -> bool:
"""Determine if a winning strategy should be deployed.
Args:
result: A/B test result
min_win_rate: Minimum win rate percentage for deployment (default 60%)
min_trades: Minimum number of trades required (default 20)
Returns:
True if the winning strategy meets deployment criteria
"""
if not result.is_significant or result.winner is None:
return False
# Get performance of winning strategy
if result.winner == result.strategy_a:
winning_perf = result.performance_a
else:
winning_perf = result.performance_b
# Check deployment criteria
has_enough_trades = winning_perf.total_trades >= min_trades
has_good_win_rate = winning_perf.win_rate >= min_win_rate
is_profitable = winning_perf.avg_pnl > 0
meets_criteria = has_enough_trades and has_good_win_rate and is_profitable
if meets_criteria:
logger.info(
"Strategy '%s' meets deployment criteria: "
"win_rate=%.2f%%, trades=%d, avg_pnl=%.2f",
result.winner,
winning_perf.win_rate,
winning_perf.total_trades,
winning_perf.avg_pnl,
)
else:
logger.info(
"Strategy '%s' does NOT meet deployment criteria: "
"win_rate=%.2f%% (min %.2f%%), trades=%d (min %d), avg_pnl=%.2f",
result.winner if result.winner else "unknown",
winning_perf.win_rate if result.winner else 0.0,
min_win_rate,
winning_perf.total_trades if result.winner else 0,
min_trades,
winning_perf.avg_pnl if result.winner else 0.0,
)
return meets_criteria

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@@ -1,10 +1,10 @@
"""Evolution Engine — analyzes trade logs and generates new strategies. """Evolution Engine — analyzes trade logs and generates new strategies.
This module: This module:
1. Uses DecisionLogger.get_losing_decisions() to identify failing patterns 1. Reads trade_logs.db to identify failing patterns
2. Analyzes failure patterns by time, market conditions, stock characteristics 2. Asks Gemini to generate a new strategy class
3. Asks Gemini to generate improved strategy recommendations 3. Runs pytest on the generated file
4. Generates new strategy classes with enhanced decision-making logic 4. Creates a simulated PR if tests pass
""" """
from __future__ import annotations from __future__ import annotations
@@ -14,7 +14,6 @@ import logging
import sqlite3 import sqlite3
import subprocess import subprocess
import textwrap import textwrap
from collections import Counter
from datetime import UTC, datetime from datetime import UTC, datetime
from pathlib import Path from pathlib import Path
from typing import Any from typing import Any
@@ -22,8 +21,6 @@ from typing import Any
from google import genai from google import genai
from src.config import Settings from src.config import Settings
from src.db import init_db
from src.logging.decision_logger import DecisionLog, DecisionLogger
logger = logging.getLogger(__name__) logger = logging.getLogger(__name__)
@@ -56,105 +53,29 @@ class EvolutionOptimizer:
self._db_path = settings.DB_PATH self._db_path = settings.DB_PATH
self._client = genai.Client(api_key=settings.GEMINI_API_KEY) self._client = genai.Client(api_key=settings.GEMINI_API_KEY)
self._model_name = settings.GEMINI_MODEL self._model_name = settings.GEMINI_MODEL
self._conn = init_db(self._db_path)
self._decision_logger = DecisionLogger(self._conn)
# ------------------------------------------------------------------ # ------------------------------------------------------------------
# Analysis # Analysis
# ------------------------------------------------------------------ # ------------------------------------------------------------------
def analyze_failures(self, limit: int = 50) -> list[dict[str, Any]]: def analyze_failures(self, limit: int = 50) -> list[dict[str, Any]]:
"""Find high-confidence decisions that resulted in losses. """Find trades where high confidence led to losses."""
conn = sqlite3.connect(self._db_path)
Uses DecisionLogger.get_losing_decisions() to retrieve failures. conn.row_factory = sqlite3.Row
""" try:
losing_decisions = self._decision_logger.get_losing_decisions( rows = conn.execute(
min_confidence=80, min_loss=-100.0 """
) SELECT stock_code, action, confidence, pnl, rationale, timestamp
FROM trades
# Limit results WHERE confidence >= 80 AND pnl < 0
if len(losing_decisions) > limit: ORDER BY pnl ASC
losing_decisions = losing_decisions[:limit] LIMIT ?
""",
# Convert to dict format for analysis (limit,),
failures = [] ).fetchall()
for decision in losing_decisions: return [dict(r) for r in rows]
failures.append({ finally:
"decision_id": decision.decision_id, conn.close()
"timestamp": decision.timestamp,
"stock_code": decision.stock_code,
"market": decision.market,
"exchange_code": decision.exchange_code,
"action": decision.action,
"confidence": decision.confidence,
"rationale": decision.rationale,
"outcome_pnl": decision.outcome_pnl,
"outcome_accuracy": decision.outcome_accuracy,
"context_snapshot": decision.context_snapshot,
"input_data": decision.input_data,
})
return failures
def identify_failure_patterns(
self, failures: list[dict[str, Any]]
) -> dict[str, Any]:
"""Identify patterns in losing decisions.
Analyzes:
- Time patterns (hour of day, day of week)
- Market conditions (volatility, volume)
- Stock characteristics (price range, market)
- Common failure modes in rationale
"""
if not failures:
return {"pattern_count": 0, "patterns": {}}
patterns = {
"markets": Counter(),
"actions": Counter(),
"hours": Counter(),
"avg_confidence": 0.0,
"avg_loss": 0.0,
"total_failures": len(failures),
}
total_confidence = 0
total_loss = 0.0
for failure in failures:
# Market distribution
patterns["markets"][failure.get("market", "UNKNOWN")] += 1
# Action distribution
patterns["actions"][failure.get("action", "UNKNOWN")] += 1
# Time pattern (extract hour from ISO timestamp)
timestamp = failure.get("timestamp", "")
if timestamp:
try:
dt = datetime.fromisoformat(timestamp)
patterns["hours"][dt.hour] += 1
except (ValueError, AttributeError):
pass
# Aggregate metrics
total_confidence += failure.get("confidence", 0)
total_loss += failure.get("outcome_pnl", 0.0)
patterns["avg_confidence"] = (
round(total_confidence / len(failures), 2) if failures else 0.0
)
patterns["avg_loss"] = (
round(total_loss / len(failures), 2) if failures else 0.0
)
# Convert Counters to regular dicts for JSON serialization
patterns["markets"] = dict(patterns["markets"])
patterns["actions"] = dict(patterns["actions"])
patterns["hours"] = dict(patterns["hours"])
return patterns
def get_performance_summary(self) -> dict[str, Any]: def get_performance_summary(self) -> dict[str, Any]:
"""Return aggregate performance metrics from trade logs.""" """Return aggregate performance metrics from trade logs."""
@@ -188,25 +109,14 @@ class EvolutionOptimizer:
async def generate_strategy(self, failures: list[dict[str, Any]]) -> Path | None: async def generate_strategy(self, failures: list[dict[str, Any]]) -> Path | None:
"""Ask Gemini to generate a new strategy based on failure analysis. """Ask Gemini to generate a new strategy based on failure analysis.
Integrates failure patterns and market conditions to create improved strategies.
Returns the path to the generated strategy file, or None on failure. Returns the path to the generated strategy file, or None on failure.
""" """
# Identify failure patterns first
patterns = self.identify_failure_patterns(failures)
prompt = ( prompt = (
"You are a quantitative trading strategy developer.\n" "You are a quantitative trading strategy developer.\n"
"Analyze these failed trades and their patterns, then generate an improved strategy.\n\n" "Analyze these failed trades and generate an improved strategy.\n\n"
f"Failure Patterns:\n{json.dumps(patterns, indent=2)}\n\n" f"Failed trades:\n{json.dumps(failures, indent=2, default=str)}\n\n"
f"Sample Failed Trades (first 5):\n" "Generate a Python class that inherits from BaseStrategy.\n"
f"{json.dumps(failures[:5], indent=2, default=str)}\n\n" "The class must have an `evaluate(self, market_data: dict) -> dict` method.\n"
"Based on these patterns, generate an improved trading strategy.\n"
"The strategy should:\n"
"1. Avoid the identified failure patterns\n"
"2. Consider market-specific conditions\n"
"3. Adjust confidence based on historical performance\n\n"
"Generate a Python method body that inherits from BaseStrategy.\n"
"The method signature is: evaluate(self, market_data: dict) -> dict\n"
"The method must return a dict with keys: action, confidence, rationale.\n" "The method must return a dict with keys: action, confidence, rationale.\n"
"Respond with ONLY the method body (Python code), no class definition.\n" "Respond with ONLY the method body (Python code), no class definition.\n"
) )
@@ -237,15 +147,10 @@ class EvolutionOptimizer:
# Indent the body for the class method # Indent the body for the class method
indented_body = textwrap.indent(body, " ") indented_body = textwrap.indent(body, " ")
# Generate rationale from patterns
rationale = f"Auto-evolved from {len(failures)} failures. "
rationale += f"Primary failure markets: {list(patterns.get('markets', {}).keys())}. "
rationale += f"Average loss: {patterns.get('avg_loss', 0.0)}"
content = STRATEGY_TEMPLATE.format( content = STRATEGY_TEMPLATE.format(
name=version, name=version,
timestamp=datetime.now(UTC).isoformat(), timestamp=datetime.now(UTC).isoformat(),
rationale=rationale, rationale="Auto-evolved from failure analysis",
class_name=class_name, class_name=class_name,
body=indented_body.strip(), body=indented_body.strip(),
) )

View File

@@ -1,303 +0,0 @@
"""Performance tracking system for strategy monitoring.
Tracks win rates, monitors improvement over time,
and provides performance metrics dashboard.
"""
from __future__ import annotations
import json
import logging
import sqlite3
from dataclasses import asdict, dataclass
from datetime import UTC, datetime, timedelta
from typing import Any
logger = logging.getLogger(__name__)
@dataclass
class StrategyMetrics:
"""Performance metrics for a strategy over a time period."""
strategy_name: str
period_start: str
period_end: str
total_trades: int
wins: int
losses: int
holds: int
win_rate: float
avg_pnl: float
total_pnl: float
best_trade: float
worst_trade: float
avg_confidence: float
@dataclass
class PerformanceDashboard:
"""Comprehensive performance dashboard."""
generated_at: str
overall_metrics: StrategyMetrics
daily_metrics: list[StrategyMetrics]
weekly_metrics: list[StrategyMetrics]
improvement_trend: dict[str, Any]
class PerformanceTracker:
"""Tracks and monitors strategy performance over time."""
def __init__(self, db_path: str) -> None:
"""Initialize performance tracker.
Args:
db_path: Path to the trade logs database
"""
self._db_path = db_path
def get_strategy_metrics(
self,
strategy_name: str | None = None,
start_date: str | None = None,
end_date: str | None = None,
) -> StrategyMetrics:
"""Get performance metrics for a strategy over a time period.
Args:
strategy_name: Name of the strategy (None = all strategies)
start_date: Start date in ISO format (None = beginning of time)
end_date: End date in ISO format (None = now)
Returns:
StrategyMetrics object with performance data
"""
conn = sqlite3.connect(self._db_path)
conn.row_factory = sqlite3.Row
try:
# Build query with optional filters
query = """
SELECT
COUNT(*) as total_trades,
SUM(CASE WHEN pnl > 0 THEN 1 ELSE 0 END) as wins,
SUM(CASE WHEN pnl < 0 THEN 1 ELSE 0 END) as losses,
SUM(CASE WHEN action = 'HOLD' THEN 1 ELSE 0 END) as holds,
COALESCE(AVG(CASE WHEN pnl IS NOT NULL THEN pnl END), 0) as avg_pnl,
COALESCE(SUM(CASE WHEN pnl IS NOT NULL THEN pnl ELSE 0 END), 0) as total_pnl,
COALESCE(MAX(pnl), 0) as best_trade,
COALESCE(MIN(pnl), 0) as worst_trade,
COALESCE(AVG(confidence), 0) as avg_confidence,
MIN(timestamp) as period_start,
MAX(timestamp) as period_end
FROM trades
WHERE 1=1
"""
params: list[Any] = []
if start_date:
query += " AND timestamp >= ?"
params.append(start_date)
if end_date:
query += " AND timestamp <= ?"
params.append(end_date)
# Note: Currently trades table doesn't have strategy_name column
# This is a placeholder for future extension
row = conn.execute(query, params).fetchone()
total_trades = row["total_trades"] or 0
wins = row["wins"] or 0
win_rate = (wins / total_trades * 100) if total_trades > 0 else 0.0
return StrategyMetrics(
strategy_name=strategy_name or "default",
period_start=row["period_start"] or "",
period_end=row["period_end"] or "",
total_trades=total_trades,
wins=wins,
losses=row["losses"] or 0,
holds=row["holds"] or 0,
win_rate=round(win_rate, 2),
avg_pnl=round(row["avg_pnl"], 2),
total_pnl=round(row["total_pnl"], 2),
best_trade=round(row["best_trade"], 2),
worst_trade=round(row["worst_trade"], 2),
avg_confidence=round(row["avg_confidence"], 2),
)
finally:
conn.close()
def get_daily_metrics(
self, days: int = 7, strategy_name: str | None = None
) -> list[StrategyMetrics]:
"""Get daily performance metrics for the last N days.
Args:
days: Number of days to retrieve (default 7)
strategy_name: Name of the strategy (None = all strategies)
Returns:
List of StrategyMetrics, one per day
"""
metrics = []
end_date = datetime.now(UTC)
for i in range(days):
day_end = end_date - timedelta(days=i)
day_start = day_end - timedelta(days=1)
day_metrics = self.get_strategy_metrics(
strategy_name=strategy_name,
start_date=day_start.isoformat(),
end_date=day_end.isoformat(),
)
metrics.append(day_metrics)
return metrics
def get_weekly_metrics(
self, weeks: int = 4, strategy_name: str | None = None
) -> list[StrategyMetrics]:
"""Get weekly performance metrics for the last N weeks.
Args:
weeks: Number of weeks to retrieve (default 4)
strategy_name: Name of the strategy (None = all strategies)
Returns:
List of StrategyMetrics, one per week
"""
metrics = []
end_date = datetime.now(UTC)
for i in range(weeks):
week_end = end_date - timedelta(weeks=i)
week_start = week_end - timedelta(weeks=1)
week_metrics = self.get_strategy_metrics(
strategy_name=strategy_name,
start_date=week_start.isoformat(),
end_date=week_end.isoformat(),
)
metrics.append(week_metrics)
return metrics
def calculate_improvement_trend(
self, metrics_history: list[StrategyMetrics]
) -> dict[str, Any]:
"""Calculate improvement trend from historical metrics.
Args:
metrics_history: List of StrategyMetrics ordered from oldest to newest
Returns:
Dictionary with trend analysis
"""
if len(metrics_history) < 2:
return {
"trend": "insufficient_data",
"win_rate_change": 0.0,
"pnl_change": 0.0,
"confidence_change": 0.0,
}
oldest = metrics_history[0]
newest = metrics_history[-1]
win_rate_change = newest.win_rate - oldest.win_rate
pnl_change = newest.avg_pnl - oldest.avg_pnl
confidence_change = newest.avg_confidence - oldest.avg_confidence
# Determine overall trend
if win_rate_change > 5.0 and pnl_change > 0:
trend = "improving"
elif win_rate_change < -5.0 or pnl_change < 0:
trend = "declining"
else:
trend = "stable"
return {
"trend": trend,
"win_rate_change": round(win_rate_change, 2),
"pnl_change": round(pnl_change, 2),
"confidence_change": round(confidence_change, 2),
"period_count": len(metrics_history),
}
def generate_dashboard(
self, strategy_name: str | None = None
) -> PerformanceDashboard:
"""Generate a comprehensive performance dashboard.
Args:
strategy_name: Name of the strategy (None = all strategies)
Returns:
PerformanceDashboard with all metrics
"""
# Get overall metrics
overall_metrics = self.get_strategy_metrics(strategy_name=strategy_name)
# Get daily metrics (last 7 days)
daily_metrics = self.get_daily_metrics(days=7, strategy_name=strategy_name)
# Get weekly metrics (last 4 weeks)
weekly_metrics = self.get_weekly_metrics(weeks=4, strategy_name=strategy_name)
# Calculate improvement trend
improvement_trend = self.calculate_improvement_trend(weekly_metrics[::-1])
return PerformanceDashboard(
generated_at=datetime.now(UTC).isoformat(),
overall_metrics=overall_metrics,
daily_metrics=daily_metrics,
weekly_metrics=weekly_metrics,
improvement_trend=improvement_trend,
)
def export_dashboard_json(
self, dashboard: PerformanceDashboard
) -> str:
"""Export dashboard as JSON string.
Args:
dashboard: PerformanceDashboard object
Returns:
JSON string representation
"""
data = {
"generated_at": dashboard.generated_at,
"overall_metrics": asdict(dashboard.overall_metrics),
"daily_metrics": [asdict(m) for m in dashboard.daily_metrics],
"weekly_metrics": [asdict(m) for m in dashboard.weekly_metrics],
"improvement_trend": dashboard.improvement_trend,
}
return json.dumps(data, indent=2)
def log_dashboard(self, dashboard: PerformanceDashboard) -> None:
"""Log dashboard summary to logger.
Args:
dashboard: PerformanceDashboard object
"""
logger.info("=" * 60)
logger.info("PERFORMANCE DASHBOARD")
logger.info("=" * 60)
logger.info("Generated: %s", dashboard.generated_at)
logger.info("")
logger.info("Overall Performance:")
logger.info(" Total Trades: %d", dashboard.overall_metrics.total_trades)
logger.info(" Win Rate: %.2f%%", dashboard.overall_metrics.win_rate)
logger.info(" Average P&L: %.2f", dashboard.overall_metrics.avg_pnl)
logger.info(" Total P&L: %.2f", dashboard.overall_metrics.total_pnl)
logger.info("")
logger.info("Improvement Trend (%s):", dashboard.improvement_trend["trend"])
logger.info(" Win Rate Change: %+.2f%%", dashboard.improvement_trend["win_rate_change"])
logger.info(" P&L Change: %+.2f", dashboard.improvement_trend["pnl_change"])
logger.info("=" * 60)

View File

@@ -13,10 +13,13 @@ import signal
from datetime import UTC, datetime 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.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.decision_logger import DecisionLogger
@@ -34,8 +37,18 @@ WATCHLISTS = {
} }
TRADE_INTERVAL_SECONDS = 60 TRADE_INTERVAL_SECONDS = 60
SCAN_INTERVAL_SECONDS = 60 # Scan markets every 60 seconds
MAX_CONNECTION_RETRIES = 3 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,
@@ -187,6 +200,20 @@ async def run(settings: Settings) -> None:
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) 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()
@@ -232,6 +259,39 @@ async def run(settings: Settings) -> None:
if shutdown.is_set(): if shutdown.is_set():
break break
# Volatility Hunter: Scan market periodically to update watchlist
now_timestamp = asyncio.get_event_loop().time()
last_scan = last_scan_time.get(market.code, 0.0)
if now_timestamp - last_scan >= SCAN_INTERVAL_SECONDS:
try:
# Scan all stocks in the universe
stock_universe = STOCK_UNIVERSE.get(market.code, [])
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 # Get watchlist for this market
watchlist = WATCHLISTS.get(market.code, []) watchlist = WATCHLISTS.get(market.code, [])
if not watchlist: if not watchlist:

View File

@@ -1,686 +0,0 @@
"""Tests for the Evolution Engine components.
Tests cover:
- EvolutionOptimizer: failure analysis and strategy generation
- ABTester: A/B testing and statistical comparison
- PerformanceTracker: metrics tracking and dashboard
"""
from __future__ import annotations
import json
import sqlite3
import tempfile
from datetime import UTC, datetime, timedelta
from pathlib import Path
from unittest.mock import AsyncMock, MagicMock, Mock, patch
import pytest
from src.config import Settings
from src.db import init_db, log_trade
from src.evolution.ab_test import ABTester, ABTestResult, StrategyPerformance
from src.evolution.optimizer import EvolutionOptimizer
from src.evolution.performance_tracker import (
PerformanceDashboard,
PerformanceTracker,
StrategyMetrics,
)
from src.logging.decision_logger import DecisionLogger
# ------------------------------------------------------------------
# Fixtures
# ------------------------------------------------------------------
@pytest.fixture
def db_conn() -> sqlite3.Connection:
"""Provide an in-memory database with initialized schema."""
return init_db(":memory:")
@pytest.fixture
def settings() -> Settings:
"""Provide test settings."""
return Settings(
KIS_APP_KEY="test_key",
KIS_APP_SECRET="test_secret",
KIS_ACCOUNT_NO="12345678-01",
GEMINI_API_KEY="test_gemini_key",
GEMINI_MODEL="gemini-pro",
DB_PATH=":memory:",
)
@pytest.fixture
def optimizer(settings: Settings) -> EvolutionOptimizer:
"""Provide an EvolutionOptimizer instance."""
return EvolutionOptimizer(settings)
@pytest.fixture
def decision_logger(db_conn: sqlite3.Connection) -> DecisionLogger:
"""Provide a DecisionLogger instance."""
return DecisionLogger(db_conn)
@pytest.fixture
def ab_tester() -> ABTester:
"""Provide an ABTester instance."""
return ABTester(significance_level=0.05)
@pytest.fixture
def performance_tracker(settings: Settings) -> PerformanceTracker:
"""Provide a PerformanceTracker instance."""
return PerformanceTracker(db_path=":memory:")
# ------------------------------------------------------------------
# EvolutionOptimizer Tests
# ------------------------------------------------------------------
def test_analyze_failures_uses_decision_logger(optimizer: EvolutionOptimizer) -> None:
"""Test that analyze_failures uses DecisionLogger.get_losing_decisions()."""
# Add some losing decisions to the database
logger = optimizer._decision_logger
# High-confidence loss
id1 = logger.log_decision(
stock_code="005930",
market="KR",
exchange_code="KRX",
action="BUY",
confidence=85,
rationale="Expected growth",
context_snapshot={"L1": {"price": 70000}},
input_data={"price": 70000, "volume": 1000},
)
logger.update_outcome(id1, pnl=-2000.0, accuracy=0)
# Another high-confidence loss
id2 = logger.log_decision(
stock_code="000660",
market="KR",
exchange_code="KRX",
action="SELL",
confidence=90,
rationale="Expected drop",
context_snapshot={"L1": {"price": 100000}},
input_data={"price": 100000, "volume": 500},
)
logger.update_outcome(id2, pnl=-1500.0, accuracy=0)
# Low-confidence loss (should be ignored)
id3 = logger.log_decision(
stock_code="035420",
market="KR",
exchange_code="KRX",
action="HOLD",
confidence=70,
rationale="Uncertain",
context_snapshot={},
input_data={},
)
logger.update_outcome(id3, pnl=-500.0, accuracy=0)
# Analyze failures
failures = optimizer.analyze_failures(limit=10)
# Should get 2 failures (confidence >= 80)
assert len(failures) == 2
assert all(f["confidence"] >= 80 for f in failures)
assert all(f["outcome_pnl"] <= -100.0 for f in failures)
def test_analyze_failures_empty_database(optimizer: EvolutionOptimizer) -> None:
"""Test analyze_failures with no losing decisions."""
failures = optimizer.analyze_failures()
assert failures == []
def test_identify_failure_patterns(optimizer: EvolutionOptimizer) -> None:
"""Test identification of failure patterns."""
failures = [
{
"decision_id": "1",
"timestamp": "2024-01-15T09:30:00+00:00",
"stock_code": "005930",
"market": "KR",
"exchange_code": "KRX",
"action": "BUY",
"confidence": 85,
"rationale": "Test",
"outcome_pnl": -1000.0,
"outcome_accuracy": 0,
"context_snapshot": {},
"input_data": {},
},
{
"decision_id": "2",
"timestamp": "2024-01-15T14:30:00+00:00",
"stock_code": "000660",
"market": "KR",
"exchange_code": "KRX",
"action": "SELL",
"confidence": 90,
"rationale": "Test",
"outcome_pnl": -2000.0,
"outcome_accuracy": 0,
"context_snapshot": {},
"input_data": {},
},
{
"decision_id": "3",
"timestamp": "2024-01-15T09:45:00+00:00",
"stock_code": "035420",
"market": "US_NASDAQ",
"exchange_code": "NASDAQ",
"action": "BUY",
"confidence": 80,
"rationale": "Test",
"outcome_pnl": -500.0,
"outcome_accuracy": 0,
"context_snapshot": {},
"input_data": {},
},
]
patterns = optimizer.identify_failure_patterns(failures)
assert patterns["total_failures"] == 3
assert patterns["markets"]["KR"] == 2
assert patterns["markets"]["US_NASDAQ"] == 1
assert patterns["actions"]["BUY"] == 2
assert patterns["actions"]["SELL"] == 1
assert 9 in patterns["hours"] # 09:30 and 09:45
assert 14 in patterns["hours"] # 14:30
assert patterns["avg_confidence"] == 85.0
assert patterns["avg_loss"] == -1166.67
def test_identify_failure_patterns_empty(optimizer: EvolutionOptimizer) -> None:
"""Test pattern identification with no failures."""
patterns = optimizer.identify_failure_patterns([])
assert patterns["pattern_count"] == 0
assert patterns["patterns"] == {}
@pytest.mark.asyncio
async def test_generate_strategy_creates_file(optimizer: EvolutionOptimizer, tmp_path: Path) -> None:
"""Test that generate_strategy creates a strategy file."""
failures = [
{
"decision_id": "1",
"timestamp": "2024-01-15T09:30:00+00:00",
"stock_code": "005930",
"market": "KR",
"action": "BUY",
"confidence": 85,
"outcome_pnl": -1000.0,
"context_snapshot": {},
"input_data": {},
}
]
# Mock Gemini response
mock_response = Mock()
mock_response.text = """
# Simple strategy
price = market_data.get("current_price", 0)
if price > 50000:
return {"action": "BUY", "confidence": 70, "rationale": "Price above threshold"}
return {"action": "HOLD", "confidence": 50, "rationale": "Waiting"}
"""
with patch.object(optimizer._client.aio.models, "generate_content", new=AsyncMock(return_value=mock_response)):
with patch("src.evolution.optimizer.STRATEGIES_DIR", tmp_path):
strategy_path = await optimizer.generate_strategy(failures)
assert strategy_path is not None
assert strategy_path.exists()
assert strategy_path.suffix == ".py"
assert "class Strategy_" in strategy_path.read_text()
assert "def evaluate" in strategy_path.read_text()
@pytest.mark.asyncio
async def test_generate_strategy_handles_api_error(optimizer: EvolutionOptimizer) -> None:
"""Test that generate_strategy handles Gemini API errors gracefully."""
failures = [{"decision_id": "1", "timestamp": "2024-01-15T09:30:00+00:00"}]
with patch.object(
optimizer._client.aio.models,
"generate_content",
side_effect=Exception("API Error"),
):
strategy_path = await optimizer.generate_strategy(failures)
assert strategy_path is None
def test_get_performance_summary() -> None:
"""Test getting performance summary from trades table."""
# Create a temporary database with trades
import tempfile
with tempfile.NamedTemporaryFile(suffix=".db", delete=False) as tmp:
tmp_path = tmp.name
conn = init_db(tmp_path)
log_trade(conn, "005930", "BUY", 85, "Test win", quantity=10, price=70000, pnl=1000.0)
log_trade(conn, "000660", "SELL", 90, "Test loss", quantity=5, price=100000, pnl=-500.0)
log_trade(conn, "035420", "BUY", 80, "Test win", quantity=8, price=50000, pnl=800.0)
conn.close()
# Create settings with temp database path
settings = Settings(
KIS_APP_KEY="test_key",
KIS_APP_SECRET="test_secret",
KIS_ACCOUNT_NO="12345678-01",
GEMINI_API_KEY="test_gemini_key",
GEMINI_MODEL="gemini-pro",
DB_PATH=tmp_path,
)
optimizer = EvolutionOptimizer(settings)
summary = optimizer.get_performance_summary()
assert summary["total_trades"] == 3
assert summary["wins"] == 2
assert summary["losses"] == 1
assert summary["total_pnl"] == 1300.0
assert summary["avg_pnl"] == 433.33
# Clean up
Path(tmp_path).unlink()
def test_validate_strategy_success(optimizer: EvolutionOptimizer, tmp_path: Path) -> None:
"""Test strategy validation when tests pass."""
strategy_file = tmp_path / "test_strategy.py"
strategy_file.write_text("# Valid strategy file")
with patch("subprocess.run") as mock_run:
mock_run.return_value = Mock(returncode=0, stdout="", stderr="")
result = optimizer.validate_strategy(strategy_file)
assert result is True
assert strategy_file.exists()
def test_validate_strategy_failure(optimizer: EvolutionOptimizer, tmp_path: Path) -> None:
"""Test strategy validation when tests fail."""
strategy_file = tmp_path / "test_strategy.py"
strategy_file.write_text("# Invalid strategy file")
with patch("subprocess.run") as mock_run:
mock_run.return_value = Mock(returncode=1, stdout="FAILED", stderr="")
result = optimizer.validate_strategy(strategy_file)
assert result is False
# File should be deleted on failure
assert not strategy_file.exists()
# ------------------------------------------------------------------
# ABTester Tests
# ------------------------------------------------------------------
def test_calculate_performance_basic(ab_tester: ABTester) -> None:
"""Test basic performance calculation."""
trades = [
{"pnl": 1000.0},
{"pnl": -500.0},
{"pnl": 800.0},
{"pnl": 200.0},
]
perf = ab_tester.calculate_performance(trades, "TestStrategy")
assert perf.strategy_name == "TestStrategy"
assert perf.total_trades == 4
assert perf.wins == 3
assert perf.losses == 1
assert perf.total_pnl == 1500.0
assert perf.avg_pnl == 375.0
assert perf.win_rate == 75.0
assert perf.sharpe_ratio is not None
def test_calculate_performance_empty(ab_tester: ABTester) -> None:
"""Test performance calculation with no trades."""
perf = ab_tester.calculate_performance([], "EmptyStrategy")
assert perf.total_trades == 0
assert perf.wins == 0
assert perf.losses == 0
assert perf.total_pnl == 0.0
assert perf.avg_pnl == 0.0
assert perf.win_rate == 0.0
assert perf.sharpe_ratio is None
def test_compare_strategies_significant_difference(ab_tester: ABTester) -> None:
"""Test strategy comparison with significant performance difference."""
# Strategy A: consistently profitable
trades_a = [{"pnl": 1000.0} for _ in range(30)]
# Strategy B: consistently losing
trades_b = [{"pnl": -500.0} for _ in range(30)]
result = ab_tester.compare_strategies(trades_a, trades_b, "Strategy A", "Strategy B")
# scipy returns np.True_ instead of Python bool
assert bool(result.is_significant) is True
assert result.winner == "Strategy A"
assert result.p_value < 0.05
assert result.performance_a.avg_pnl > result.performance_b.avg_pnl
def test_compare_strategies_no_difference(ab_tester: ABTester) -> None:
"""Test strategy comparison with no significant difference."""
# Both strategies have similar performance
trades_a = [{"pnl": 100.0}, {"pnl": -50.0}, {"pnl": 80.0}]
trades_b = [{"pnl": 90.0}, {"pnl": -60.0}, {"pnl": 85.0}]
result = ab_tester.compare_strategies(trades_a, trades_b, "Strategy A", "Strategy B")
# With small samples and similar performance, likely not significant
assert result.winner is None or not result.is_significant
def test_should_deploy_meets_criteria(ab_tester: ABTester) -> None:
"""Test deployment decision when criteria are met."""
# Create a winning result that meets criteria
trades_a = [{"pnl": 1000.0} for _ in range(25)] # 100% win rate
trades_b = [{"pnl": -500.0} for _ in range(25)]
result = ab_tester.compare_strategies(trades_a, trades_b, "Winner", "Loser")
should_deploy = ab_tester.should_deploy(result, min_win_rate=60.0, min_trades=20)
assert should_deploy is True
def test_should_deploy_insufficient_trades(ab_tester: ABTester) -> None:
"""Test deployment decision with insufficient trades."""
trades_a = [{"pnl": 1000.0} for _ in range(10)] # Only 10 trades
trades_b = [{"pnl": -500.0} for _ in range(10)]
result = ab_tester.compare_strategies(trades_a, trades_b, "Winner", "Loser")
should_deploy = ab_tester.should_deploy(result, min_win_rate=60.0, min_trades=20)
assert should_deploy is False
def test_should_deploy_low_win_rate(ab_tester: ABTester) -> None:
"""Test deployment decision with low win rate."""
# Mix of wins and losses, below 60% win rate
trades_a = [{"pnl": 100.0}] * 10 + [{"pnl": -100.0}] * 15 # 40% win rate
trades_b = [{"pnl": -500.0} for _ in range(25)]
result = ab_tester.compare_strategies(trades_a, trades_b, "LowWinner", "Loser")
should_deploy = ab_tester.should_deploy(result, min_win_rate=60.0, min_trades=20)
assert should_deploy is False
def test_should_deploy_not_significant(ab_tester: ABTester) -> None:
"""Test deployment decision when difference is not significant."""
# Use more varied data to ensure statistical insignificance
trades_a = [{"pnl": 100.0}, {"pnl": -50.0}] * 12 + [{"pnl": 100.0}]
trades_b = [{"pnl": 95.0}, {"pnl": -45.0}] * 12 + [{"pnl": 95.0}]
result = ab_tester.compare_strategies(trades_a, trades_b, "A", "B")
should_deploy = ab_tester.should_deploy(result, min_win_rate=60.0, min_trades=20)
# Not significant or not profitable enough
# Even if significant, win rate is 50% which is below 60% threshold
assert should_deploy is False
# ------------------------------------------------------------------
# PerformanceTracker Tests
# ------------------------------------------------------------------
def test_get_strategy_metrics(db_conn: sqlite3.Connection) -> None:
"""Test getting strategy metrics."""
# Add some trades
log_trade(db_conn, "005930", "BUY", 85, "Win 1", quantity=10, price=70000, pnl=1000.0)
log_trade(db_conn, "000660", "SELL", 90, "Loss 1", quantity=5, price=100000, pnl=-500.0)
log_trade(db_conn, "035420", "BUY", 80, "Win 2", quantity=8, price=50000, pnl=800.0)
log_trade(db_conn, "005930", "HOLD", 75, "Hold", quantity=0, price=70000, pnl=0.0)
tracker = PerformanceTracker(db_path=":memory:")
# Manually set connection for testing
tracker._db_path = db_conn
# Need to use the same connection
with patch("sqlite3.connect", return_value=db_conn):
metrics = tracker.get_strategy_metrics()
assert metrics.total_trades == 4
assert metrics.wins == 2
assert metrics.losses == 1
assert metrics.holds == 1
assert metrics.win_rate == 50.0
assert metrics.total_pnl == 1300.0
def test_calculate_improvement_trend_improving(performance_tracker: PerformanceTracker) -> None:
"""Test improvement trend calculation for improving strategy."""
metrics = [
StrategyMetrics(
strategy_name="test",
period_start="2024-01-01",
period_end="2024-01-07",
total_trades=10,
wins=5,
losses=5,
holds=0,
win_rate=50.0,
avg_pnl=100.0,
total_pnl=1000.0,
best_trade=500.0,
worst_trade=-300.0,
avg_confidence=75.0,
),
StrategyMetrics(
strategy_name="test",
period_start="2024-01-08",
period_end="2024-01-14",
total_trades=10,
wins=7,
losses=3,
holds=0,
win_rate=70.0,
avg_pnl=200.0,
total_pnl=2000.0,
best_trade=600.0,
worst_trade=-200.0,
avg_confidence=80.0,
),
]
trend = performance_tracker.calculate_improvement_trend(metrics)
assert trend["trend"] == "improving"
assert trend["win_rate_change"] == 20.0
assert trend["pnl_change"] == 100.0
assert trend["confidence_change"] == 5.0
def test_calculate_improvement_trend_declining(performance_tracker: PerformanceTracker) -> None:
"""Test improvement trend calculation for declining strategy."""
metrics = [
StrategyMetrics(
strategy_name="test",
period_start="2024-01-01",
period_end="2024-01-07",
total_trades=10,
wins=7,
losses=3,
holds=0,
win_rate=70.0,
avg_pnl=200.0,
total_pnl=2000.0,
best_trade=600.0,
worst_trade=-200.0,
avg_confidence=80.0,
),
StrategyMetrics(
strategy_name="test",
period_start="2024-01-08",
period_end="2024-01-14",
total_trades=10,
wins=4,
losses=6,
holds=0,
win_rate=40.0,
avg_pnl=-50.0,
total_pnl=-500.0,
best_trade=300.0,
worst_trade=-400.0,
avg_confidence=70.0,
),
]
trend = performance_tracker.calculate_improvement_trend(metrics)
assert trend["trend"] == "declining"
assert trend["win_rate_change"] == -30.0
assert trend["pnl_change"] == -250.0
def test_calculate_improvement_trend_insufficient_data(performance_tracker: PerformanceTracker) -> None:
"""Test improvement trend with insufficient data."""
metrics = [
StrategyMetrics(
strategy_name="test",
period_start="2024-01-01",
period_end="2024-01-07",
total_trades=10,
wins=5,
losses=5,
holds=0,
win_rate=50.0,
avg_pnl=100.0,
total_pnl=1000.0,
best_trade=500.0,
worst_trade=-300.0,
avg_confidence=75.0,
)
]
trend = performance_tracker.calculate_improvement_trend(metrics)
assert trend["trend"] == "insufficient_data"
assert trend["win_rate_change"] == 0.0
assert trend["pnl_change"] == 0.0
def test_export_dashboard_json(performance_tracker: PerformanceTracker) -> None:
"""Test exporting dashboard as JSON."""
overall_metrics = StrategyMetrics(
strategy_name="test",
period_start="2024-01-01",
period_end="2024-01-31",
total_trades=100,
wins=60,
losses=40,
holds=10,
win_rate=60.0,
avg_pnl=150.0,
total_pnl=15000.0,
best_trade=1000.0,
worst_trade=-500.0,
avg_confidence=80.0,
)
dashboard = PerformanceDashboard(
generated_at=datetime.now(UTC).isoformat(),
overall_metrics=overall_metrics,
daily_metrics=[],
weekly_metrics=[],
improvement_trend={"trend": "improving", "win_rate_change": 10.0},
)
json_output = performance_tracker.export_dashboard_json(dashboard)
# Verify it's valid JSON
data = json.loads(json_output)
assert "generated_at" in data
assert "overall_metrics" in data
assert data["overall_metrics"]["total_trades"] == 100
assert data["overall_metrics"]["win_rate"] == 60.0
def test_generate_dashboard() -> None:
"""Test generating a complete dashboard."""
# Create tracker with temp database
with tempfile.NamedTemporaryFile(suffix=".db", delete=False) as tmp:
tmp_path = tmp.name
# Initialize with data
conn = init_db(tmp_path)
log_trade(conn, "005930", "BUY", 85, "Win", quantity=10, price=70000, pnl=1000.0)
log_trade(conn, "000660", "SELL", 90, "Loss", quantity=5, price=100000, pnl=-500.0)
conn.close()
tracker = PerformanceTracker(db_path=tmp_path)
dashboard = tracker.generate_dashboard()
assert isinstance(dashboard, PerformanceDashboard)
assert dashboard.overall_metrics.total_trades == 2
assert len(dashboard.daily_metrics) == 7
assert len(dashboard.weekly_metrics) == 4
assert "trend" in dashboard.improvement_trend
# Clean up
Path(tmp_path).unlink()
# ------------------------------------------------------------------
# Integration Tests
# ------------------------------------------------------------------
@pytest.mark.asyncio
async def test_full_evolution_pipeline(optimizer: EvolutionOptimizer, tmp_path: Path) -> None:
"""Test the complete evolution pipeline."""
# Add losing decisions
logger = optimizer._decision_logger
id1 = logger.log_decision(
stock_code="005930",
market="KR",
exchange_code="KRX",
action="BUY",
confidence=85,
rationale="Expected growth",
context_snapshot={},
input_data={},
)
logger.update_outcome(id1, pnl=-2000.0, accuracy=0)
# Mock Gemini and subprocess
mock_response = Mock()
mock_response.text = 'return {"action": "HOLD", "confidence": 50, "rationale": "Test"}'
with patch.object(optimizer._client.aio.models, "generate_content", new=AsyncMock(return_value=mock_response)):
with patch("src.evolution.optimizer.STRATEGIES_DIR", tmp_path):
with patch("subprocess.run") as mock_run:
mock_run.return_value = Mock(returncode=0, stdout="", stderr="")
result = await optimizer.evolve()
assert result is not None
assert "title" in result
assert "branch" in result
assert "status" in result

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tests/test_volatility.py Normal file
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"""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)