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Update bot_v2.py

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alteregoeth-ai
2026-03-09 02:24:37 -05:00
committed by GitHub
parent f42ac8d22b
commit e17fb756f5
1 changed files with 111 additions and 97 deletions
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@@ -4,10 +4,11 @@ Weather Trading Bot v2 — Polymarket
Kelly Criterion + Expected Value simulation. Kelly Criterion + Expected Value simulation.
Usage: Usage:
python weather_bot_v2.py # Paper mode with $1000 virtual balance python bot_v2.py # Paper mode with $1000 virtual balance
python weather_bot_v2.py --live # Real trades python bot_v2.py --live # Simulate trades against real prices
python weather_bot_v2.py --positions python bot_v2.py --positions
python weather_bot_v2.py --reset # Reset simulation balance python bot_v2.py --reset # Reset simulation balance
python bot_v2.py --monitor # Live price monitor, updates dashboard every 10s
""" """
import re import re
@@ -31,22 +32,40 @@ PRICE_DROP_SIGNAL = _cfg.get("price_drop_threshold", 0.10)
# Kelly + EV settings # Kelly + EV settings
NOAA_ACCURACY = 0.78 # NOAA forecast accuracy for 1-3 day predictions NOAA_ACCURACY = 0.78 # NOAA forecast accuracy for 1-3 day predictions
KELLY_FRACTION = 0.25 # Use 1/4 Kelly for safety (full Kelly is too aggressive) KELLY_FRACTION = 0.25 # Use 1/4 Kelly for safety
MAX_POSITION_PCT = 0.10 # Never bet more than 10% of balance on one trade MAX_POSITION_PCT = 0.10 # Never bet more than 10% of balance on one trade
MIN_EV = 0.05 # Minimum EV to enter (5 cents per dollar risked) MIN_EV = 0.05 # Minimum EV to enter
SIM_BALANCE = 1000.0 # Starting virtual balance SIM_BALANCE = 1000.0 # Starting virtual balance
# Airport coordinates — match the exact stations Polymarket resolves on
LOCATIONS = { LOCATIONS = {
"NYC": {"lat": 40.77, "lon": -73.87, "name": "New York City"}, "nyc": {"lat": 40.7772, "lon": -73.8726, "name": "New York City"}, # KLGA LaGuardia
"Chicago": {"lat": 41.97, "lon": -87.90, "name": "Chicago"}, "chicago": {"lat": 41.9742, "lon": -87.9073, "name": "Chicago"}, # KORD O'Hare
"Seattle": {"lat": 47.45, "lon": -122.30, "name": "Seattle"}, "miami": {"lat": 25.7959, "lon": -80.2870, "name": "Miami"}, # KMIA
"Atlanta": {"lat": 33.64, "lon": -84.43, "name": "Atlanta"}, "dallas": {"lat": 32.8471, "lon": -96.8518, "name": "Dallas"}, # KDAL Love Field
"Dallas": {"lat": 32.90, "lon": -97.04, "name": "Dallas"}, "seattle": {"lat": 47.4502, "lon": -122.3088, "name": "Seattle"}, # KSEA Sea-Tac
"Miami": {"lat": 25.80, "lon": -80.29, "name": "Miami"}, "atlanta": {"lat": 33.6407, "lon": -84.4277, "name": "Atlanta"}, # KATL Hartsfield
} }
ACTIVE_LOCATIONS = _cfg.get("locations", "NYC,Chicago,Seattle,Atlanta,Dallas,Miami").split(",") # NWS hourly endpoints per city
ACTIVE_LOCATIONS = [l.strip() for l in ACTIVE_LOCATIONS] NWS_ENDPOINTS = {
"nyc": "https://api.weather.gov/gridpoints/OKX/37,39/forecast/hourly",
"chicago": "https://api.weather.gov/gridpoints/LOT/66,77/forecast/hourly",
"miami": "https://api.weather.gov/gridpoints/MFL/106,51/forecast/hourly",
"dallas": "https://api.weather.gov/gridpoints/FWD/87,107/forecast/hourly",
"seattle": "https://api.weather.gov/gridpoints/SEW/124,61/forecast/hourly",
"atlanta": "https://api.weather.gov/gridpoints/FFC/50,82/forecast/hourly",
}
# Station IDs for real observations
STATION_IDS = {
"nyc": "KLGA", "chicago": "KORD", "miami": "KMIA",
"dallas": "KDAL", "seattle": "KSEA", "atlanta": "KATL",
}
ACTIVE_LOCATIONS = _cfg.get("locations", "nyc,chicago,miami,dallas,seattle,atlanta").split(",")
ACTIVE_LOCATIONS = [l.strip().lower() for l in ACTIVE_LOCATIONS]
MONTHS = ["january","february","march","april","may","june", MONTHS = ["january","february","march","april","may","june",
"july","august","september","october","november","december"] "july","august","september","october","november","december"]
@@ -75,12 +94,12 @@ def skip(msg): print(f"{C.GRAY} ⏸️ {msg}{C.RESET}")
def calculate_ev(our_prob: float, market_price: float) -> float: def calculate_ev(our_prob: float, market_price: float) -> float:
""" """
Expected Value per $1 risked. Expected Value per $1 risked.
EV = (our_prob * payout) - (1 - our_prob) * 1 EV = (our_prob * payout) - (1 - our_prob)
payout = (1 / market_price) - 1 (net profit per $1 if we win) payout = (1 / market_price) - 1
Example: our_prob=0.75, price=0.08 Example: our_prob=0.75, price=0.08
payout = 1/0.08 - 1 = 11.5x payout = 1/0.08 - 1 = 11.5x
EV = 0.75 * 11.5 - 0.25 = 8.375 - 0.25 = +$8.12 per $1 risked EV = 0.75 * 11.5 - 0.25 = +$8.12 per $1 risked
""" """
if market_price <= 0 or market_price >= 1: if market_price <= 0 or market_price >= 1:
return 0.0 return 0.0
@@ -93,28 +112,23 @@ def calculate_kelly(our_prob: float, market_price: float) -> float:
""" """
Kelly Criterion: optimal fraction of bankroll to bet. Kelly Criterion: optimal fraction of bankroll to bet.
f* = (p * b - q) / b f* = (p * b - q) / b
where:
p = our probability of winning
q = 1 - p (probability of losing)
b = net odds (payout per $1 bet)
We apply KELLY_FRACTION (0.25) for safety — fractional Kelly. We apply KELLY_FRACTION (0.25) for safety — fractional Kelly.
Result is capped at MAX_POSITION_PCT (10% of balance). Result is capped at MAX_POSITION_PCT (10% of balance).
""" """
if market_price <= 0 or market_price >= 1: if market_price <= 0 or market_price >= 1:
return 0.0 return 0.0
b = (1.0 / market_price) - 1.0 # net odds b = (1.0 / market_price) - 1.0
p = our_prob p = our_prob
q = 1.0 - p q = 1.0 - p
kelly = (p * b - q) / b kelly = (p * b - q) / b
kelly = max(0.0, kelly) # never negative kelly = max(0.0, kelly)
kelly = kelly * KELLY_FRACTION # fractional Kelly kelly = kelly * KELLY_FRACTION
kelly = min(kelly, MAX_POSITION_PCT) # cap at max position kelly = min(kelly, MAX_POSITION_PCT)
return round(kelly, 4) return round(kelly, 4)
def calculate_position_size(kelly_fraction: float, balance: float) -> float: def calculate_position_size(kelly_fraction: float, balance: float) -> float:
"""Convert Kelly fraction to dollar amount."""
return round(kelly_fraction * balance, 2) return round(kelly_fraction * balance, 2)
# ============================================================================= # =============================================================================
@@ -147,38 +161,60 @@ def reset_sim():
import os import os
if os.path.exists(SIM_FILE): if os.path.exists(SIM_FILE):
os.remove(SIM_FILE) os.remove(SIM_FILE)
if os.path.exists("positions.json"):
os.remove("positions.json")
print(f"{C.GREEN} ✅ Simulation reset — balance back to ${SIM_BALANCE:.2f}{C.RESET}") print(f"{C.GREEN} ✅ Simulation reset — balance back to ${SIM_BALANCE:.2f}{C.RESET}")
# ============================================================================= # =============================================================================
# OPEN-METEO FORECAST # NWS FORECAST
# ============================================================================= # =============================================================================
def get_forecast(location: str) -> dict: def get_forecast(city_slug: str) -> dict:
loc = LOCATIONS[location] """
url = ( Fetch daily max temperature from NWS.
f"https://api.open-meteo.com/v1/forecast" Combines real station observations (past hours today) with
f"?latitude={loc['lat']}&longitude={loc['lon']}" hourly forecast (upcoming hours) to get the true daily maximum.
f"&daily=temperature_2m_max&temperature_unit=fahrenheit&forecast_days=4" """
) forecast_url = NWS_ENDPOINTS.get(city_slug)
station_id = STATION_IDS.get(city_slug)
daily_max = {}
headers = {"User-Agent": "weatherbot/1.0"}
# Real observations — what already happened today
try: try:
r = requests.get(url, timeout=10) obs_url = f"https://api.weather.gov/stations/{station_id}/observations?limit=48"
data = r.json() r = requests.get(obs_url, timeout=10, headers=headers)
result = {} for obs in r.json().get("features", []):
for date, temp in zip(data["daily"]["time"], data["daily"]["temperature_2m_max"]): props = obs["properties"]
result[date] = round(temp, 1) time_str = props.get("timestamp", "")[:10]
return result temp_c = props.get("temperature", {}).get("value")
if temp_c is not None:
temp_f = round(temp_c * 9/5 + 32)
if time_str not in daily_max or temp_f > daily_max[time_str]:
daily_max[time_str] = temp_f
except Exception as e: except Exception as e:
warn(f"Forecast error for {location}: {e}") warn(f"Observations error for {city_slug}: {e}")
return {}
# Hourly forecast — upcoming hours
try:
r = requests.get(forecast_url, timeout=10, headers=headers)
periods = r.json()["properties"]["periods"]
for p in periods:
date = p["startTime"][:10]
temp = p["temperature"]
if p.get("temperatureUnit") == "C":
temp = round(temp * 9/5 + 32)
if date not in daily_max or temp > daily_max[date]:
daily_max[date] = temp
except Exception as e:
warn(f"Forecast error for {city_slug}: {e}")
return daily_max
# ============================================================================= # =============================================================================
# POLYMARKET API # POLYMARKET API
# ============================================================================= # =============================================================================
def get_polymarket_event(location_slug: str, month: str, day: int, year: int) -> dict: def get_polymarket_event(city_slug: str, month: str, day: int, year: int) -> dict:
slug = f"highest-temperature-in-{location_slug}-on-{month}-{day}-{year}" slug = f"highest-temperature-in-{city_slug}-on-{month}-{day}-{year}"
url = f"https://gamma-api.polymarket.com/events?slug={slug}" url = f"https://gamma-api.polymarket.com/events?slug={slug}"
try: try:
r = requests.get(url, timeout=10) r = requests.get(url, timeout=10)
@@ -214,9 +250,6 @@ def parse_temp_range(question: str) -> tuple:
if m: return (int(m.group(1)), int(m.group(2))) if m: return (int(m.group(1)), int(m.group(2)))
return None return None
def temp_in_range(temp: float, rng: tuple) -> bool:
return rng[0] <= temp <= rng[1]
def hours_until_resolution(event: dict) -> float: def hours_until_resolution(event: dict) -> float:
try: try:
end_date = event.get("endDate") or event.get("end_date_iso") end_date = event.get("endDate") or event.get("end_date_iso")
@@ -254,7 +287,8 @@ def show_positions():
try: try:
url = f"https://gamma-api.polymarket.com/markets/{mid}" url = f"https://gamma-api.polymarket.com/markets/{mid}"
r = requests.get(url, timeout=5) r = requests.get(url, timeout=5)
current_price = float(r.json().get("outcomePrices", ["0.5"])[0]) prices = json.loads(r.json().get("outcomePrices", "[0.5,0.5]"))
current_price = float(prices[0])
except Exception: except Exception:
current_price = pos["entry_price"] current_price = pos["entry_price"]
@@ -264,12 +298,11 @@ def show_positions():
print(f"\n • {pos['question'][:65]}...") print(f"\n • {pos['question'][:65]}...")
print(f" Entry: ${pos['entry_price']:.3f} | Now: ${current_price:.3f} | " print(f" Entry: ${pos['entry_price']:.3f} | Now: ${current_price:.3f} | "
f"Shares: {pos['shares']:.1f} | PnL: {pnl_str}") f"Shares: {pos['shares']:.1f} | PnL: {pnl_str}")
print(f" Kelly used: {pos['kelly_pct']:.1%} | EV: {pos['ev']:.2f} | Cost: ${pos['cost']:.2f}") print(f" Kelly used: {pos.get('kelly_pct', 0):.1%} | EV: {pos.get('ev', 0):.2f} | Cost: ${pos['cost']:.2f}")
balance_str = f"${sim['balance']:.2f}" print(f"\n Balance: ${sim['balance']:.2f}")
pnl_color = C.GREEN if total_pnl >= 0 else C.RED pnl_color = C.GREEN if total_pnl >= 0 else C.RED
print(f"\n Balance: {balance_str}") print(f" Open PnL: {pnl_color}{'+'if total_pnl>=0 else ''}{total_pnl:.2f}{C.RESET}")
print(f" Open PnL: {pnl_color}{'+'if total_pnl>=0 else ''}{total_pnl:.2f}{C.RESET}")
print(f" Total trades: {sim['total_trades']} | W/L: {sim['wins']}/{sim['losses']}") print(f" Total trades: {sim['total_trades']} | W/L: {sim['wins']}/{sim['losses']}")
# ============================================================================= # =============================================================================
@@ -284,7 +317,7 @@ def run(dry_run: bool = True):
balance = sim["balance"] balance = sim["balance"]
positions = sim["positions"] positions = sim["positions"]
mode = f"{C.YELLOW}PAPER MODE{C.RESET}" if dry_run else f"{C.RED}LIVE MODE{C.RESET}" mode = f"{C.YELLOW}PAPER MODE{C.RESET}" if dry_run else f"{C.GREEN}LIVE MODE{C.RESET}"
starting = sim["starting_balance"] starting = sim["starting_balance"]
total_return = (balance - starting) / starting * 100 total_return = (balance - starting) / starting * 100
return_str = f"{C.GREEN}+{total_return:.1f}%{C.RESET}" if total_return >= 0 else f"{C.RED}{total_return:.1f}%{C.RESET}" return_str = f"{C.GREEN}+{total_return:.1f}%{C.RESET}" if total_return >= 0 else f"{C.RED}{total_return:.1f}%{C.RESET}"
@@ -308,7 +341,8 @@ def run(dry_run: bool = True):
try: try:
url = f"https://gamma-api.polymarket.com/markets/{mid}" url = f"https://gamma-api.polymarket.com/markets/{mid}"
r = requests.get(url, timeout=5) r = requests.get(url, timeout=5)
current_price = float(r.json().get("outcomePrices", ["0.5"])[0]) prices = json.loads(r.json().get("outcomePrices", "[0.5,0.5]"))
current_price = float(prices[0])
except Exception: except Exception:
continue continue
@@ -329,7 +363,7 @@ def run(dry_run: bool = True):
"closed_at": datetime.now().isoformat(), "closed_at": datetime.now().isoformat(),
}) })
del positions[mid] del positions[mid]
ok(f"Closed position — PnL: {'+'if pnl>=0 else ''}{pnl:.2f}") ok(f"Closed — PnL: {'+'if pnl>=0 else ''}{pnl:.2f}")
else: else:
skip("Paper mode — not selling") skip("Paper mode — not selling")
@@ -339,23 +373,21 @@ def run(dry_run: bool = True):
# Scan entries # Scan entries
print(f"\n{C.BOLD}🔍 Scanning for entry signals...{C.RESET}") print(f"\n{C.BOLD}🔍 Scanning for entry signals...{C.RESET}")
for loc_key in ACTIVE_LOCATIONS: for city_slug in ACTIVE_LOCATIONS:
loc_key = loc_key.strip() if city_slug not in LOCATIONS:
if loc_key not in LOCATIONS: warn(f"Unknown location: {city_slug}")
warn(f"Unknown location: {loc_key}")
continue continue
loc_data = LOCATIONS[loc_key] loc_data = LOCATIONS[city_slug]
loc_slug = loc_key.lower().replace(" ", "-")
if loc_key not in forecast_cache: if city_slug not in forecast_cache:
forecast_cache[loc_key] = get_forecast(loc_key) forecast_cache[city_slug] = get_forecast(city_slug)
forecast = forecast_cache[loc_key] forecast = forecast_cache[city_slug]
if not forecast: if not forecast:
continue continue
for i in range(0, 3): for i in range(0, 4):
date = datetime.now() + timedelta(days=i) date = datetime.now() + timedelta(days=i)
date_str = date.strftime("%Y-%m-%d") date_str = date.strftime("%Y-%m-%d")
month = MONTHS[date.month - 1] month = MONTHS[date.month - 1]
@@ -366,7 +398,7 @@ def run(dry_run: bool = True):
if forecast_temp is None: if forecast_temp is None:
continue continue
event = get_polymarket_event(loc_slug, month, day, year) event = get_polymarket_event(city_slug, month, day, year)
if not event: if not event:
continue continue
@@ -379,12 +411,11 @@ def run(dry_run: bool = True):
skip(f"Resolves in {hours_left:.0f}h — too soon") skip(f"Resolves in {hours_left:.0f}h — too soon")
continue continue
# Find matching bucket
matched = None matched = None
for market in event.get("markets", []): for market in event.get("markets", []):
question = market.get("question", "") question = market.get("question", "")
rng = parse_temp_range(question) rng = parse_temp_range(question)
if rng and temp_in_range(forecast_temp, rng): if rng and rng[0] <= forecast_temp <= rng[1]:
try: try:
prices = json.loads(market.get("outcomePrices", "[0.5,0.5]")) prices = json.loads(market.get("outcomePrices", "[0.5,0.5]"))
yes_price = float(prices[0]) yes_price = float(prices[0])
@@ -411,10 +442,8 @@ def run(dry_run: bool = True):
if trend["dropped"]: if trend["dropped"]:
info(f"📉 Price dropped {abs(trend['change']):.0%} in 24h — stronger signal") info(f"📉 Price dropped {abs(trend['change']):.0%} in 24h — stronger signal")
# ── KELLY + EV CALCULATION ── # Kelly + EV
our_prob = NOAA_ACCURACY # base accuracy our_prob = NOAA_ACCURACY
# Boost if strong trend signal
if trend["dropped"] and abs(trend["change"]) > 0.20: if trend["dropped"] and abs(trend["change"]) > 0.20:
our_prob = min(0.90, our_prob + 0.05) our_prob = min(0.90, our_prob + 0.05)
@@ -432,7 +461,6 @@ def run(dry_run: bool = True):
print(f" {C.CYAN} Kelly fraction: {kelly_pct:.1%} of balance{C.RESET}") print(f" {C.CYAN} Kelly fraction: {kelly_pct:.1%} of balance{C.RESET}")
print(f" {C.CYAN} Position size: ${position_size:.2f}{C.RESET}") print(f" {C.CYAN} Position size: ${position_size:.2f}{C.RESET}")
# Entry checks
if price >= ENTRY_THRESHOLD: if price >= ENTRY_THRESHOLD:
skip(f"Price ${price:.3f} above threshold ${ENTRY_THRESHOLD:.2f}") skip(f"Price ${price:.3f} above threshold ${ENTRY_THRESHOLD:.2f}")
continue continue
@@ -474,7 +502,7 @@ def run(dry_run: bool = True):
"ev": ev, "ev": ev,
"our_prob": our_prob, "our_prob": our_prob,
"date": date_str, "date": date_str,
"location": loc_key, "location": city_slug,
"forecast_temp": forecast_temp, "forecast_temp": forecast_temp,
"opened_at": datetime.now().isoformat(), "opened_at": datetime.now().isoformat(),
} }
@@ -492,14 +520,12 @@ def run(dry_run: bool = True):
skip("Paper mode — not buying") skip("Paper mode — not buying")
trades_executed += 1 trades_executed += 1
# Save simulation state
if not dry_run: if not dry_run:
sim["balance"] = round(balance, 2) sim["balance"] = round(balance, 2)
sim["positions"] = positions sim["positions"] = positions
sim["peak_balance"] = max(sim["peak_balance"], balance) sim["peak_balance"] = max(sim["peak_balance"], balance)
save_sim(sim) save_sim(sim)
# Summary
print(f"\n{'=' * 55}") print(f"\n{'=' * 55}")
print(f"{C.BOLD}📊 Summary:{C.RESET}") print(f"{C.BOLD}📊 Summary:{C.RESET}")
info(f"Opportunities found: {opportunities}") info(f"Opportunities found: {opportunities}")
@@ -511,22 +537,18 @@ def run(dry_run: bool = True):
print(f"\n {C.YELLOW}[PAPER MODE — use --live to simulate trades against real prices]{C.RESET}") print(f"\n {C.YELLOW}[PAPER MODE — use --live to simulate trades against real prices]{C.RESET}")
# ============================================================================= # =============================================================================
# LIVE MONITOR — updates prices every N seconds, auto-exits on threshold # LIVE MONITOR
# ============================================================================= # =============================================================================
import time as _time import time as _time
def monitor(interval: int = 10): def monitor(interval: int = 10):
""" """
Background monitor — fetches live prices from Polymarket every N seconds, Background monitor — fetches live prices every N seconds,
updates PnL in simulation.json so the dashboard stays current. updates simulation.json so the dashboard stays current.
Auto-exits positions when price hits EXIT_THRESHOLD. Auto-exits positions when price hits EXIT_THRESHOLD.
Run: python polymarket_weather_bot.py --monitor
Stop: Ctrl+C
""" """
print(f"\n{C.BOLD}{C.CYAN}📡 Live Monitor — refreshing every {interval}s{C.RESET}") print(f"\n{C.BOLD}{C.CYAN}📡 Live Monitor — refreshing every {interval}s{C.RESET}")
print(f" Dashboard will update automatically")
print(f" Auto-exit threshold: ${EXIT_THRESHOLD:.2f}") print(f" Auto-exit threshold: ${EXIT_THRESHOLD:.2f}")
print(f" Press Ctrl+C to stop\n") print(f" Press Ctrl+C to stop\n")
@@ -543,7 +565,6 @@ def monitor(interval: int = 10):
total_pnl = 0 total_pnl = 0
for mid, pos in list(positions.items()): for mid, pos in list(positions.items()):
# Fetch current price from Polymarket
try: try:
url = f"https://gamma-api.polymarket.com/markets/{mid}" url = f"https://gamma-api.polymarket.com/markets/{mid}"
r = requests.get(url, timeout=5) r = requests.get(url, timeout=5)
@@ -563,7 +584,6 @@ def monitor(interval: int = 10):
f"{pos['question'][:45]}... " f"{pos['question'][:45]}... "
f"${current_price:.3f} {pnl_str}") f"${current_price:.3f} {pnl_str}")
# Auto-exit if price hit threshold
if current_price >= EXIT_THRESHOLD: if current_price >= EXIT_THRESHOLD:
ok(f"AUTO EXIT: {pos['question'][:50]}... PnL: +${pnl:.2f}") ok(f"AUTO EXIT: {pos['question'][:50]}... PnL: +${pnl:.2f}")
sim["balance"] = round(sim["balance"] + pos["cost"] + pnl, 2) sim["balance"] = round(sim["balance"] + pos["cost"] + pnl, 2)
@@ -578,14 +598,10 @@ def monitor(interval: int = 10):
"cost": pos["cost"], "cost": pos["cost"],
"kelly_pct": pos.get("kelly_pct", 0), "kelly_pct": pos.get("kelly_pct", 0),
"ev": pos.get("ev", 0), "ev": pos.get("ev", 0),
"location": pos.get("location", ""),
"date": pos.get("date", ""),
"our_prob": pos.get("our_prob", 0),
"closed_at": datetime.now().isoformat(), "closed_at": datetime.now().isoformat(),
}) })
del sim["positions"][mid] del sim["positions"][mid]
sim["positions"] = {k: v for k, v in sim["positions"].items()}
sim["peak_balance"] = max(sim.get("peak_balance", sim["balance"]), sim["balance"]) sim["peak_balance"] = max(sim.get("peak_balance", sim["balance"]), sim["balance"])
total_str = f"{C.GREEN}+${total_pnl:.2f}{C.RESET}" if total_pnl >= 0 else f"{C.RED}-${abs(total_pnl):.2f}{C.RESET}" total_str = f"{C.GREEN}+${total_pnl:.2f}{C.RESET}" if total_pnl >= 0 else f"{C.RED}-${abs(total_pnl):.2f}{C.RESET}"
@@ -603,7 +619,6 @@ def monitor(interval: int = 10):
_time.sleep(interval) _time.sleep(interval)
# ============================================================================= # =============================================================================
# CLI # CLI
# ============================================================================= # =============================================================================
@@ -613,8 +628,8 @@ if __name__ == "__main__":
parser.add_argument("--live", action="store_true", help="Execute trades (updates simulation balance)") parser.add_argument("--live", action="store_true", help="Execute trades (updates simulation balance)")
parser.add_argument("--positions", action="store_true", help="Show open positions") parser.add_argument("--positions", action="store_true", help="Show open positions")
parser.add_argument("--reset", action="store_true", help="Reset simulation to $1000") parser.add_argument("--reset", action="store_true", help="Reset simulation to $1000")
parser.add_argument("--monitor", action="store_true", help="Live price monitor — updates dashboard every 10s") parser.add_argument("--monitor", action="store_true", help="Live price monitor")
parser.add_argument("--interval", type=int, default=10, help="Monitor refresh interval in seconds (default: 10)") parser.add_argument("--interval", type=int, default=10, help="Monitor refresh interval in seconds")
args = parser.parse_args() args = parser.parse_args()
if args.reset: if args.reset:
@@ -624,5 +639,4 @@ if __name__ == "__main__":
elif args.monitor: elif args.monitor:
monitor(interval=args.interval) monitor(interval=args.interval)
else: else:
run(dry_run=not args.live) run(dry_run=not args.live)