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PolyWeather/src/data_collection/polymarket_readonly.py
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"""
Polymarket read-only market layer.
P0 scope:
- Market discovery from Gamma REST
- Price / midpoint / spread / orderbook read from CLOB REST
- No signing, no order placement
"""
from __future__ import annotations
import json
import math
import os
import re
import threading
import time
import unicodedata
from datetime import datetime, timezone
from typing import Any, Dict, List, Optional, Tuple
import httpx
from loguru import logger
from src.data_collection.city_registry import ALIASES, CITY_REGISTRY
def _safe_float(value: Any) -> Optional[float]:
if value is None:
return None
try:
if isinstance(value, str):
value = value.strip()
if not value:
return None
numeric = float(value)
if math.isnan(numeric) or math.isinf(numeric):
return None
return numeric
except Exception:
return None
def _safe_int(value: Any, default: int) -> int:
try:
return int(value)
except Exception:
return default
def _safe_bool(value: Any) -> Optional[bool]:
if value is None:
return None
if isinstance(value, bool):
return value
if isinstance(value, (int, float)):
return bool(value)
if isinstance(value, str):
normalized = value.strip().lower()
if normalized in {"1", "true", "yes", "on"}:
return True
if normalized in {"0", "false", "no", "off"}:
return False
return bool(value)
def _normalize_text(value: Any) -> str:
text = str(value or "").strip().lower()
if not text:
return ""
text = unicodedata.normalize("NFKD", text)
text = "".join(ch for ch in text if not unicodedata.combining(ch))
text = text.replace("_", " ").replace("-", " ")
return " ".join(text.split())
def _normalize_city_key(city: Any) -> str:
raw = _normalize_text(city)
if not raw:
return ""
return ALIASES.get(raw, raw)
MARKET_CITY_ALIASES: Dict[str, str] = {
# Lau Fau Shan has its own HKO observation / settlement layer, but
# Polymarket lists this temperature market under nearby Shenzhen.
"lau fau shan": "shenzhen",
}
def _resolve_market_city_key(city_key: str) -> str:
return MARKET_CITY_ALIASES.get(city_key, city_key)
def _contains_token(haystack: str, token: str) -> bool:
token = _normalize_text(token)
if not token:
return False
pattern = r"\b" + re.escape(token) + r"\b"
try:
return re.search(pattern, haystack) is not None
except re.error:
return False
def _json_or_list(value: Any) -> List[Any]:
if value is None:
return []
if isinstance(value, list):
return value
if isinstance(value, tuple):
return list(value)
if isinstance(value, str):
text = value.strip()
if not text:
return []
try:
parsed = json.loads(text)
if isinstance(parsed, list):
return parsed
except Exception:
return []
return []
def _to_plain_dict(value: Any) -> Dict[str, Any]:
if isinstance(value, dict):
return value
if value is None:
return {}
if hasattr(value, "dict") and callable(value.dict):
try:
data = value.dict()
if isinstance(data, dict):
return data
except Exception:
pass
if hasattr(value, "__dict__"):
try:
data = dict(vars(value))
if isinstance(data, dict):
return data
except Exception:
pass
return {}
def _extract_price(value: Any) -> Optional[float]:
if value is None:
return None
direct = _safe_float(value)
if direct is not None:
return direct
if isinstance(value, dict):
for key in (
"price",
"mid",
"midpoint",
"value",
"last_trade_price",
"lastPrice",
):
numeric = _safe_float(value.get(key))
if numeric is not None:
return numeric
plain = _to_plain_dict(value)
if plain:
for key in (
"price",
"mid",
"midpoint",
"value",
"last_trade_price",
"lastPrice",
):
numeric = _safe_float(plain.get(key))
if numeric is not None:
return numeric
return None
def _clamp_probability(value: Optional[float]) -> Optional[float]:
if value is None:
return None
if value < 0.0:
return 0.0
if value > 1.0:
return 1.0
return value
def _clamp_float(value: Optional[float], lower: float, upper: float) -> Optional[float]:
if value is None:
return None
return max(lower, min(upper, float(value)))
def _parse_hhmm_to_minutes(value: Any) -> Optional[int]:
text = str(value or "").strip()
if not text or ":" not in text:
return None
try:
hh, mm = text.split(":", 1)
hour = int(hh)
minute = int(mm[:2])
except Exception:
return None
if hour < 0 or hour > 23 or minute < 0 or minute > 59:
return None
return hour * 60 + minute
def _extract_iso_date(value: Any) -> Optional[str]:
if not value:
return None
text = str(value).strip()
if not text:
return None
if len(text) >= 10 and text[4] == "-" and text[7] == "-":
return text[:10]
# Common API formats from Gamma/CLOB
candidates = (
text,
text.replace("Z", "+00:00"),
text.split(".")[0] + "Z" if "." in text and "T" in text else text,
)
for candidate in candidates:
try:
dt = datetime.fromisoformat(candidate.replace("Z", "+00:00"))
return dt.date().isoformat()
except Exception:
continue
return None
def _parse_iso_datetime_utc(value: Any) -> Optional[datetime]:
if not value:
return None
text = str(value).strip()
if not text:
return None
# Prefer timestamps that include a time component; plain dates are ambiguous.
if "T" not in text:
return None
try:
dt = datetime.fromisoformat(text.replace("Z", "+00:00"))
except Exception:
return None
if dt.tzinfo is None:
return dt.replace(tzinfo=timezone.utc)
return dt.astimezone(timezone.utc)
def _build_city_token_index() -> Dict[str, List[str]]:
result: Dict[str, List[str]] = {}
for key, info in CITY_REGISTRY.items():
normalized_key = _normalize_text(key)
tokens = {normalized_key, normalized_key.replace(" ", "")}
display_name = _normalize_text(info.get("name"))
if display_name:
tokens.add(display_name)
tokens.add(display_name.replace(" ", ""))
for alias, target in ALIASES.items():
if target != key:
continue
norm_alias = _normalize_text(alias)
if not norm_alias:
continue
# Ignore very short aliases to reduce false-positive matching.
if len(norm_alias) < 3 and norm_alias not in {"nyc"}:
continue
tokens.add(norm_alias)
if key == "new york":
tokens.update({"central park", "new yorks central park"})
if key == "sao paulo":
tokens.update({"sao paulo", "sao-paulo", "sao paulo"})
result[key] = sorted(tokens, key=len, reverse=True)
return result
CITY_TOKEN_INDEX = _build_city_token_index()
WEATHER_KEYWORDS = (
"temperature",
"temp",
"high",
"low",
"hotter",
"colder",
"above",
"below",
)
MONTH_TO_NUM = {
"jan": 1,
"january": 1,
"feb": 2,
"february": 2,
"mar": 3,
"march": 3,
"apr": 4,
"april": 4,
"may": 5,
"jun": 6,
"june": 6,
"jul": 7,
"july": 7,
"aug": 8,
"august": 8,
"sep": 9,
"sept": 9,
"september": 9,
"oct": 10,
"october": 10,
"nov": 11,
"november": 11,
"dec": 12,
"december": 12,
}
def _parse_target_date(value: str) -> Optional[datetime]:
try:
return datetime.fromisoformat(value)
except Exception:
return None
def _extract_dates_from_text(
text: str,
default_year: Optional[int],
) -> List[str]:
dates: List[str] = []
for year, month, day in re.findall(r"\b(20\d{2})[-/](\d{1,2})[-/](\d{1,2})\b", text):
try:
parsed = datetime(int(year), int(month), int(day)).date().isoformat()
dates.append(parsed)
except Exception:
continue
month_pattern = "|".join(sorted(MONTH_TO_NUM.keys(), key=len, reverse=True))
for month_name, day_raw, year_raw in re.findall(
rf"\b({month_pattern})\s+(\d{{1,2}})(?:st|nd|rd|th)?(?:\s*(20\d{{2}}))?\b",
text,
):
year = int(year_raw) if year_raw else default_year
if not year:
continue
try:
parsed = datetime(year, MONTH_TO_NUM[month_name], int(day_raw)).date().isoformat()
dates.append(parsed)
except Exception:
continue
for day_raw, month_name, year_raw in re.findall(
rf"\b(\d{{1,2}})(?:st|nd|rd|th)?\s+({month_pattern})(?:\s*(20\d{{2}}))?\b",
text,
):
year = int(year_raw) if year_raw else default_year
if not year:
continue
try:
parsed = datetime(year, MONTH_TO_NUM[month_name], int(day_raw)).date().isoformat()
dates.append(parsed)
except Exception:
continue
# Deduplicate while preserving order
unique: List[str] = []
seen = set()
for value in dates:
if value in seen:
continue
seen.add(value)
unique.append(value)
return unique
class PolymarketReadOnlyLayer:
def __init__(self) -> None:
self.enabled = (
str(os.getenv("POLYMARKET_MARKET_SCAN_ENABLED", "true")).strip().lower()
not in {"0", "false", "no", "off"}
)
self.gamma_url = (
str(os.getenv("POLYMARKET_GAMMA_URL", "https://gamma-api.polymarket.com"))
.strip()
.rstrip("/")
)
self.clob_url = (
str(os.getenv("POLYMARKET_CLOB_URL", "https://clob.polymarket.com"))
.strip()
.rstrip("/")
)
self.http_timeout = _safe_float(os.getenv("POLYMARKET_HTTP_TIMEOUT_SEC")) or 8.0
self.market_cache_ttl = _safe_int(
os.getenv("POLYMARKET_MARKET_CACHE_TTL_SEC", "60"),
60,
)
self.price_cache_ttl = _safe_int(
os.getenv("POLYMARKET_PRICE_CACHE_TTL_SEC", "30"),
30,
)
self.discovery_pages = _safe_int(
os.getenv("POLYMARKET_DISCOVERY_PAGES", "6"),
6,
)
self.discovery_limit = _safe_int(
os.getenv("POLYMARKET_DISCOVERY_LIMIT", "200"),
200,
)
self.min_liquidity_for_signal = (
_safe_float(os.getenv("POLYMARKET_SIGNAL_MIN_LIQUIDITY")) or 500.0
)
self.edge_threshold = _safe_float(os.getenv("POLYMARKET_SIGNAL_EDGE_PCT")) or 2.0
fast_price_only = _safe_bool(os.getenv("POLYMARKET_FAST_PRICE_ONLY", "true"))
self.fast_price_only = True if fast_price_only is None else bool(fast_price_only)
self._session = httpx.Client(
timeout=self.http_timeout,
follow_redirects=True,
)
self._markets_cache: Dict[str, Dict[str, Any]] = {}
self._active_markets_cache: Dict[str, Any] = {"data": [], "t": 0.0}
self._broad_markets_cache: Dict[str, Any] = {"data": [], "t": 0.0}
self._price_cache: Dict[str, Dict[str, Any]] = {}
self._lock = threading.Lock()
def _market_scan_debug_enabled(self) -> bool:
return (
str(os.getenv("POLYMARKET_MARKET_SCAN_DEBUG", "false")).strip().lower()
in {"1", "true", "yes", "on"}
)
def _debug_market_scan(self, message: str, **payload: Any) -> None:
if not self._market_scan_debug_enabled():
return
try:
details = json.dumps(payload, ensure_ascii=False, default=str)
except Exception:
details = str(payload)
logger.info(f"POLYMARKET_MARKET_SCAN_DEBUG {message} {details}")
def build_market_scan(
self,
city: Any,
target_date: Any,
temperature_bucket: Optional[Dict[str, Any]] = None,
model_probability: Optional[float] = None,
probability_distribution: Optional[List[Dict[str, Any]]] = None,
temp_symbol: Optional[str] = None,
fallback_sparkline: Optional[List[float]] = None,
forced_market_slug: Optional[str] = None,
include_related_buckets: bool = True,
scan_filters: Optional[Dict[str, Any]] = None,
scan_context: Optional[Dict[str, Any]] = None,
) -> Dict[str, Any]:
date_str = _extract_iso_date(target_date) or str(target_date or "")
city_key = _normalize_city_key(city)
market_city_key = _resolve_market_city_key(city_key)
requested_slug = str(forced_market_slug or "").strip().lower() or None
scan: Dict[str, Any] = {
"available": False,
"reason": None,
"city_key": city_key or None,
"market_city_key": market_city_key or None,
"primary_market": None,
"selected_date": date_str or None,
"selected_condition_id": None,
"selected_slug": requested_slug,
"temperature_bucket": temperature_bucket,
"model_probability": model_probability,
"market_price": None,
"midpoint": None,
"spread": None,
"edge_percent": None,
"signal_label": "MONITOR",
"confidence": "low",
"yes_token": None,
"no_token": None,
"yes_buy": None,
"yes_sell": None,
"yes_midpoint": None,
"yes_spread": None,
"no_buy": None,
"no_sell": None,
"no_midpoint": None,
"no_spread": None,
"last_trade_price": None,
"liquidity": None,
"volume": None,
"quote_source": None,
"quote_age_ms": None,
"price_analysis": None,
"sparkline": fallback_sparkline or [],
"top_buckets": [],
"all_buckets": [],
"recent_trades": [],
"scan_scope": "full" if include_related_buckets else "lite",
"distribution_bias": None,
"window_phase": None,
"window_score": None,
"primary_signal": None,
"signal_status": "no_market",
"candidate_count": 0,
"scan_rows": [],
"resolved_market_type": "maxtemp",
"websocket": {
"enabled": False,
"status": "disabled_rest_only",
},
}
if not self.enabled:
scan["reason"] = "Market scan disabled by POLYMARKET_MARKET_SCAN_ENABLED."
self._debug_market_scan("disabled", city=city_key, date=date_str)
return scan
if not city_key or city_key not in CITY_REGISTRY:
scan["reason"] = "City is not supported by the Polymarket market layer."
self._debug_market_scan("unsupported_city", city=city, normalized=city_key)
return scan
if not market_city_key or market_city_key not in CITY_REGISTRY:
scan["reason"] = "Mapped market city is not supported by the Polymarket market layer."
self._debug_market_scan(
"unsupported_market_city",
city=city_key,
market_city=market_city_key,
)
return scan
if not date_str:
scan["reason"] = "Missing target date for market discovery."
self._debug_market_scan("missing_date", city=city_key, market_city=market_city_key)
return scan
try:
preferred_temp = None
if isinstance(temperature_bucket, dict):
preferred_temp = _safe_float(temperature_bucket.get("temp"))
market, reason = self._find_primary_market(
market_city_key,
date_str,
forced_market_slug=requested_slug,
preferred_temp=preferred_temp,
)
except Exception as exc:
logger.warning(
f"Polymarket market discovery failed ({city_key}->{market_city_key}): {exc}"
)
scan["reason"] = "Market discovery failed."
self._debug_market_scan(
"discovery_exception",
city=city_key,
market_city=market_city_key,
error=str(exc),
)
return scan
if not market:
scan["reason"] = reason or "No active Polymarket market matched city/date."
self._debug_market_scan(
"no_market",
city=city_key,
market_city=market_city_key,
date=date_str,
forced_slug=requested_slug,
reason=scan["reason"],
)
return scan
market_date = self._extract_market_date(market)
condition_id = str(
market.get("conditionId")
or market.get("condition_id")
or market.get("conditionID")
or ""
).strip() or None
market_slug = str(market.get("slug") or "").strip() or None
liquidity = _extract_price(
market.get("liquidityNum")
or market.get("liquidity")
or market.get("liquidityClob")
)
volume = _extract_price(
market.get("volumeNum")
or market.get("volume")
or market.get("volume24hr")
)
trade_state = self._market_trade_state(market)
primary_market_payload = {
"id": market.get("id"),
"question": market.get("question") or market.get("title"),
"slug": market_slug,
"condition_id": condition_id,
"end_date": market_date,
"active": trade_state.get("active"),
"closed": trade_state.get("closed"),
"accepting_orders": trade_state.get("accepting_orders"),
"ended_at_utc": trade_state.get("ended_at_utc"),
"tradable": trade_state.get("tradable"),
"tradable_reason": trade_state.get("reason"),
"liquidity": liquidity,
"volume": volume,
}
if not trade_state.get("tradable"):
scan["reason"] = (
"Matched market is not tradable."
+ (
f" reason={trade_state.get('reason')}"
if trade_state.get("reason")
else ""
)
)
scan["primary_market"] = primary_market_payload
scan["selected_condition_id"] = condition_id
scan["selected_slug"] = market_slug
scan["liquidity"] = liquidity
scan["volume"] = volume
self._debug_market_scan(
"not_tradable",
city=city_key,
market_city=market_city_key,
date=date_str,
slug=market_slug,
trade_state=trade_state,
)
return scan
tokens = self._extract_market_tokens(market)
yes_token, no_token = self._resolve_yes_no_tokens(tokens)
if not yes_token or not no_token:
scan["reason"] = "Matched market has no resolvable YES/NO token pair."
scan["primary_market"] = primary_market_payload
scan["selected_condition_id"] = condition_id
scan["selected_slug"] = market_slug
scan["liquidity"] = liquidity
scan["volume"] = volume
self._debug_market_scan(
"missing_tokens",
city=city_key,
market_city=market_city_key,
date=date_str,
slug=market_slug,
token_count=len(tokens),
)
return scan
yes_prices = self._get_token_market_data(str(yes_token.get("token_id")))
no_prices = self._get_token_market_data(str(no_token.get("token_id")))
if liquidity is None:
liquidity = _extract_price(yes_prices.get("book_liquidity"))
last_trade_price = _extract_price(yes_prices.get("last_trade_price"))
market_price = (
_extract_price(yes_prices.get("midpoint"))
or _extract_price(yes_prices.get("buy"))
or _extract_price(yes_token.get("implied_probability"))
)
distribution_model_probability = self._aggregate_distribution_probability_for_market(
market=market,
probability_distribution=probability_distribution,
temp_symbol=temp_symbol,
)
if distribution_model_probability is not None:
model_probability = distribution_model_probability
edge_percent = None
if model_probability is not None and market_price is not None:
edge_percent = (model_probability - market_price) * 100.0
signal_label, confidence = self._derive_signal(edge_percent, liquidity)
top_buckets: List[Dict[str, Any]] = []
all_buckets: List[Dict[str, Any]] = []
if include_related_buckets:
top_bucket_limit = max(
1,
_safe_int(os.getenv("POLYMARKET_TOP_BUCKET_LIMIT", "4"), 4),
)
all_bucket_limit = max(
top_bucket_limit,
_safe_int(os.getenv("POLYMARKET_ALL_BUCKET_LIMIT", "8"), 8),
)
all_buckets = self._build_top_temperature_buckets(
city_key=market_city_key,
target_date=date_str,
primary_market=market,
probability_distribution=probability_distribution,
temp_symbol=temp_symbol,
limit=all_bucket_limit,
)
top_buckets = list(all_buckets[:top_bucket_limit])
yes_payload = {
"outcome": yes_token.get("outcome") or "Yes",
"token_id": yes_token.get("token_id"),
"implied_probability": _extract_price(yes_token.get("implied_probability")),
"buy_price": _extract_price(yes_prices.get("buy")),
"sell_price": _extract_price(yes_prices.get("sell")),
"midpoint": _extract_price(yes_prices.get("midpoint")),
"last_trade_price": _extract_price(yes_prices.get("last_trade_price")),
"quote_source": yes_prices.get("quote_source"),
"quote_age_ms": _safe_int(yes_prices.get("quote_age_ms"), 0),
"book": yes_prices.get("book"),
}
no_payload = {
"outcome": no_token.get("outcome") or "No",
"token_id": no_token.get("token_id"),
"implied_probability": _extract_price(no_token.get("implied_probability")),
"buy_price": _extract_price(no_prices.get("buy")),
"sell_price": _extract_price(no_prices.get("sell")),
"midpoint": _extract_price(no_prices.get("midpoint")),
"last_trade_price": _extract_price(no_prices.get("last_trade_price")),
"quote_source": no_prices.get("quote_source"),
"quote_age_ms": _safe_int(no_prices.get("quote_age_ms"), 0),
"book": no_prices.get("book"),
}
yes_midpoint = _extract_price(yes_payload.get("midpoint"))
no_midpoint = _extract_price(no_payload.get("midpoint"))
yes_buy = _extract_price(yes_payload.get("buy_price"))
yes_sell = _extract_price(yes_payload.get("sell_price"))
no_buy = _extract_price(no_payload.get("buy_price"))
no_sell = _extract_price(no_payload.get("sell_price"))
yes_spread = (
max(0.0, float(yes_buy) - float(yes_sell))
if yes_buy is not None and yes_sell is not None
else None
)
no_spread = (
max(0.0, float(no_buy) - float(no_sell))
if no_buy is not None and no_sell is not None
else None
)
price_analysis = self._build_price_analysis(
model_probability=model_probability,
yes_buy=yes_buy,
yes_sell=yes_sell,
no_buy=no_buy,
no_sell=no_sell,
)
distribution_scan = self._build_distribution_scan_pack(
city_key=market_city_key,
target_date=date_str,
primary_market=market,
probability_distribution=probability_distribution,
temp_symbol=temp_symbol,
scan_context=scan_context,
scan_filters=scan_filters,
)
primary_signal = distribution_scan.get("primary_signal")
if isinstance(primary_signal, dict):
signal_label = str(primary_signal.get("action") or signal_label or "").strip() or signal_label
signal_score = _safe_float(primary_signal.get("final_score"))
if signal_score is not None and signal_score >= 85.0:
confidence = "high"
elif signal_score is not None and signal_score >= 70.0:
confidence = "medium"
elif signal_score is not None:
confidence = "low"
signal_edge = _safe_float(primary_signal.get("edge_percent"))
if signal_edge is not None:
edge_percent = signal_edge
sparkline_values: List[float] = []
for candidate in (
_extract_price(yes_payload.get("sell_price")),
_extract_price(yes_payload.get("buy_price")),
market_price,
model_probability,
):
if candidate is None:
continue
sparkline_values.append(round(candidate * 100.0, 2))
if not sparkline_values:
sparkline_values = fallback_sparkline or []
market_url = self._build_market_url(market)
scan.update(
{
"available": True,
"reason": None,
"primary_market": primary_market_payload,
"selected_condition_id": condition_id,
"selected_slug": market_slug,
"model_probability": model_probability,
"market_price": market_price,
"midpoint": yes_midpoint if yes_midpoint is not None else market_price,
"spread": yes_spread,
"edge_percent": edge_percent,
"signal_label": signal_label,
"confidence": confidence,
"yes_token": yes_payload,
"no_token": no_payload,
"yes_buy": yes_buy,
"yes_sell": yes_sell,
"yes_midpoint": yes_midpoint,
"yes_spread": yes_spread,
"no_buy": no_buy,
"no_sell": no_sell,
"no_midpoint": no_midpoint,
"no_spread": no_spread,
"last_trade_price": last_trade_price,
"liquidity": liquidity,
"volume": volume,
"quote_source": yes_prices.get("quote_source"),
"quote_age_ms": _safe_int(yes_prices.get("quote_age_ms"), 0),
"price_analysis": price_analysis,
"sparkline": sparkline_values,
"top_buckets": top_buckets,
"all_buckets": all_buckets,
"distribution_bias": distribution_scan.get("distribution_bias"),
"window_phase": distribution_scan.get("window_phase"),
"window_score": distribution_scan.get("window_score"),
"primary_signal": primary_signal,
"signal_status": distribution_scan.get("signal_status"),
"candidate_count": distribution_scan.get("candidate_count"),
"scan_rows": distribution_scan.get("rows") or [],
"resolved_market_type": distribution_scan.get("resolved_market_type") or "maxtemp",
"websocket": {
"enabled": False,
"status": "disabled_rest_only",
"market_url": market_url,
"asset_ids": [
token
for token in [
yes_payload.get("token_id"),
no_payload.get("token_id"),
]
if token
],
"condition_ids": [condition_id] if condition_id else [],
},
}
)
self._debug_market_scan(
"scan_ready",
city=city_key,
market_city=market_city_key,
date=date_str,
selected_slug=market_slug,
market_price=scan.get("market_price"),
yes_buy=scan.get("yes_buy"),
yes_sell=scan.get("yes_sell"),
no_buy=scan.get("no_buy"),
no_sell=scan.get("no_sell"),
price_analysis_available=bool(price_analysis and price_analysis.get("available")),
all_buckets_count=len(all_buckets),
top_buckets=[
{
"temp": row.get("temp"),
"yes_buy": row.get("yes_buy"),
"market_price": row.get("market_price"),
"quote_source": row.get("quote_source"),
"slug": row.get("slug"),
}
for row in all_buckets[:6]
if isinstance(row, dict)
],
websocket=scan.get("websocket"),
)
return scan
def _hydrate_bucket_prices(self, buckets: List[Dict[str, Any]]) -> None:
for bucket in buckets:
if not isinstance(bucket, dict):
continue
yes_token_id = str(bucket.get("yes_token_id") or "").strip()
no_token_id = str(bucket.get("no_token_id") or "").strip()
if not yes_token_id:
continue
yes_prices = self._get_token_market_data(yes_token_id)
no_prices = self._get_token_market_data(no_token_id) if no_token_id else {}
yes_buy = _extract_price(yes_prices.get("buy"))
yes_sell = _extract_price(yes_prices.get("sell"))
no_buy = _extract_price(no_prices.get("buy"))
no_sell = _extract_price(no_prices.get("sell"))
yes_midpoint = _extract_price(yes_prices.get("midpoint"))
if yes_buy is not None:
bucket["yes_buy"] = yes_buy
if yes_sell is not None:
bucket["yes_sell"] = yes_sell
if no_buy is not None:
bucket["no_buy"] = no_buy
if no_sell is not None:
bucket["no_sell"] = no_sell
reference_price = yes_midpoint
if reference_price is None and yes_buy is not None and yes_sell is not None:
reference_price = (yes_buy + yes_sell) / 2.0
if reference_price is None:
reference_price = yes_buy if yes_buy is not None else yes_sell
if reference_price is not None:
reference_price = max(0.0, min(1.0, float(reference_price)))
bucket["market_price"] = reference_price
if bucket.get("probability") is None:
bucket["probability"] = reference_price
# Keep model probability separate from market-implied price.
# Older code overwrote ``probability`` with the quote, which made
# downstream UI compare a market price against itself or display
# stale bucket probabilities as weather probabilities.
bucket.setdefault("model_probability", bucket.get("probability"))
if yes_prices.get("quote_source"):
bucket["quote_source"] = yes_prices.get("quote_source")
if yes_prices.get("quote_age_ms") is not None:
bucket["quote_age_ms"] = _safe_int(yes_prices.get("quote_age_ms"), 0)
def _build_price_analysis(
self,
*,
model_probability: Optional[float],
yes_buy: Optional[float],
yes_sell: Optional[float],
no_buy: Optional[float],
no_sell: Optional[float],
) -> Dict[str, Any]:
"""Build read-only market price diagnostics.
Polymarket CLOB naming is from the user's perspective:
BUY is the executable ask to buy that outcome, SELL is the executable bid.
Kelly here is a sizing reference only; no order execution is performed.
"""
p_yes = _clamp_probability(_safe_float(model_probability))
p_no = _clamp_probability(1.0 - p_yes if p_yes is not None else None)
yes_ask = _clamp_probability(_safe_float(yes_buy))
no_ask = _clamp_probability(_safe_float(no_buy))
yes_bid = _clamp_probability(_safe_float(yes_sell))
no_bid = _clamp_probability(_safe_float(no_sell))
yes = self._build_side_price_analysis("yes", p_yes, yes_ask, yes_bid)
no = self._build_side_price_analysis("no", p_no, no_ask, no_bid)
ask_sum = None
lock_edge = None
lock_available = False
if yes_ask is not None and no_ask is not None:
ask_sum = yes_ask + no_ask
lock_edge = 1.0 - ask_sum
lock_available = lock_edge > 0
bid_sum = None
sell_side_edge = None
if yes_bid is not None and no_bid is not None:
bid_sum = yes_bid + no_bid
sell_side_edge = bid_sum - 1.0
best_side = None
side_rows = [
row
for row in [yes, no]
if isinstance(row.get("edge"), (int, float))
and isinstance(row.get("kelly_fraction"), (int, float))
and row.get("kelly_fraction") > 0
]
if side_rows:
best_side = max(
side_rows,
key=lambda row: (
float(row.get("edge") or 0.0),
float(row.get("kelly_fraction") or 0.0),
),
).get("side")
return {
"available": any(
value is not None
for value in (yes_ask, no_ask, yes_bid, no_bid, p_yes)
),
"source": "polymarket_clob_orderbook",
"model_probability": p_yes,
"yes": yes,
"no": no,
"best_side": best_side,
"lock": {
"available": lock_available,
"ask_sum": ask_sum,
"edge": lock_edge,
},
"sell_side": {
"bid_sum": bid_sum,
"edge": sell_side_edge,
},
}
def _build_side_price_analysis(
self,
side: str,
probability: Optional[float],
ask: Optional[float],
bid: Optional[float],
) -> Dict[str, Any]:
edge = None
kelly_fraction = None
if probability is not None and ask is not None:
edge = probability - ask
if 0.0 < ask < 1.0:
kelly_fraction = edge / (1.0 - ask)
return {
"side": side,
"model_probability": probability,
"ask": ask,
"bid": bid,
"edge": edge,
"edge_percent": edge * 100.0 if edge is not None else None,
"kelly_fraction": kelly_fraction,
"quarter_kelly": (
max(0.0, kelly_fraction) / 4.0
if kelly_fraction is not None
else None
),
}
def _market_trade_state(self, market: Dict[str, Any]) -> Dict[str, Any]:
active = _safe_bool(market.get("active"))
closed_raw = _safe_bool(market.get("closed"))
closed = bool(closed_raw) if closed_raw is not None else False
accepting_orders = _safe_bool(
market.get("acceptingOrders", market.get("accepting_orders"))
)
ended_at = None
for key in ("endDate", "resolutionDate", "closedTime", "gameStartTime"):
parsed = _parse_iso_datetime_utc(market.get(key))
if parsed is not None:
ended_at = parsed
break
tradable = True
reason = None
if closed:
tradable = False
reason = "closed"
elif active is False:
tradable = False
reason = "inactive"
elif accepting_orders is False:
tradable = False
reason = "not_accepting_orders"
return {
"active": active,
"closed": closed,
"accepting_orders": accepting_orders,
"ended_at_utc": ended_at.isoformat() if ended_at is not None else None,
"tradable": tradable,
"reason": reason,
}
def _derive_signal(
self,
edge_percent: Optional[float],
liquidity: Optional[float],
) -> Tuple[str, str]:
if edge_percent is None:
return "MONITOR", "low"
if liquidity is not None and liquidity < self.min_liquidity_for_signal:
return "MONITOR", "low"
absolute_edge = abs(edge_percent)
if absolute_edge >= 8:
confidence = "high"
elif absolute_edge >= 4:
confidence = "medium"
else:
confidence = "low"
if edge_percent >= self.edge_threshold:
return "BUY YES", confidence
if edge_percent <= -self.edge_threshold:
return "BUY NO", confidence
return "MONITOR", confidence
def _find_primary_market(
self,
city_key: str,
target_date: str,
forced_market_slug: Optional[str] = None,
preferred_temp: Optional[float] = None,
) -> Tuple[Optional[Dict[str, Any]], Optional[str]]:
if forced_market_slug:
return self._find_market_by_slug(
forced_market_slug,
preferred_temp=preferred_temp,
)
preferred_temp_key = (
f"{float(preferred_temp):.2f}"
if preferred_temp is not None
else "none"
)
cache_key = f"{city_key}|{target_date}|{preferred_temp_key}"
now = time.time()
with self._lock:
cached = self._markets_cache.get(cache_key)
if cached and now - cached.get("t", 0) < self.market_cache_ttl:
return cached.get("market"), cached.get("reason")
markets = self._load_markets(active_only=True)
if not markets:
return None, "No active markets returned by Gamma API."
scored: List[Tuple[float, Dict[str, Any]]] = []
for market in markets:
score = self._score_market(
city_key,
target_date,
market,
preferred_temp=preferred_temp,
)
if score <= 0:
continue
scored.append((score, market))
# Fallback to broader active universe when strict filters miss.
if not scored:
broader = self._load_markets(active_only=False)
for market in broader:
score = self._score_market(
city_key,
target_date,
market,
preferred_temp=preferred_temp,
)
if score <= 0:
continue
scored.append((score, market))
# Deterministic weather event fallback:
# If Gamma /markets discovery misses, resolve by canonical weather event slug.
if not scored:
event_slug = self._build_weather_event_slug(city_key, target_date)
if event_slug:
fallback_market, _ = self._find_market_by_slug(
event_slug,
preferred_temp=preferred_temp,
)
if fallback_market:
with self._lock:
self._markets_cache[cache_key] = {
"market": fallback_market,
"reason": None,
"t": now,
}
return fallback_market, None
scored.sort(
key=lambda item: (
item[0],
_extract_price(
item[1].get("volumeNum")
or item[1].get("volume")
or item[1].get("volume24hr")
)
or 0.0,
),
reverse=True,
)
market = scored[0][1] if scored else None
reason = None if market else "No market matched city/date with weather filters."
with self._lock:
self._markets_cache[cache_key] = {"market": market, "reason": reason, "t": now}
return market, reason
def _find_market_by_slug(
self,
market_slug: str,
preferred_temp: Optional[float] = None,
) -> Tuple[Optional[Dict[str, Any]], Optional[str]]:
normalized_slug = str(market_slug or "").strip().lower()
if not normalized_slug:
return None, "market_slug is empty."
# 0) Event slug path (Polymarket weather pages are often event slugs).
try:
resp = self._session.get(
f"{self.gamma_url}/events",
params={"slug": normalized_slug, "limit": 5},
timeout=self.http_timeout,
)
resp.raise_for_status()
payload = resp.json()
events = payload if isinstance(payload, list) else []
for event in events:
if not isinstance(event, dict):
continue
event_slug = str(event.get("slug") or "").strip().lower()
markets = event.get("markets") if isinstance(event.get("markets"), list) else []
market_candidates = [m for m in markets if isinstance(m, dict)]
# Try exact market slug match first.
for market in market_candidates:
item_slug = str(market.get("slug") or "").strip().lower()
if item_slug == normalized_slug:
market["eventSlug"] = market.get("eventSlug") or event_slug
market["eventTitle"] = market.get("eventTitle") or event.get("title")
return market, None
# If input is event slug, pick the most liquid active/ready market.
if event_slug == normalized_slug and market_candidates:
def _event_market_rank(m: Dict[str, Any]) -> Tuple[float, bool, bool, float]:
market_temp = self._extract_market_bucket_temp(m)
temp_score = 0.0
if preferred_temp is not None and market_temp is not None:
temp_score = max(0.0, 100.0 - abs(market_temp - preferred_temp) * 10.0)
liquidity_score = (
_extract_price(
m.get("volumeNum")
or m.get("volume")
or m.get("liquidityNum")
or m.get("liquidity")
)
or 0.0
)
return (
temp_score,
bool(m.get("active", False)),
not bool(m.get("closed", False)),
liquidity_score,
)
market_candidates.sort(
key=_event_market_rank,
reverse=True,
)
best = market_candidates[0]
best["eventSlug"] = best.get("eventSlug") or event_slug
best["eventTitle"] = best.get("eventTitle") or event.get("title")
return best, None
except Exception:
pass
# 1) Direct Gamma query by slug (fast-path for debug and deterministic checks).
query_params = [
{"slug": normalized_slug, "limit": 20, "offset": 0, "archived": "false"},
{"search": normalized_slug, "limit": 50, "offset": 0, "archived": "false"},
]
for params in query_params:
try:
resp = self._session.get(
f"{self.gamma_url}/markets",
params=params,
timeout=self.http_timeout,
)
resp.raise_for_status()
payload = resp.json()
if isinstance(payload, dict):
candidates = payload.get("markets")
if not isinstance(candidates, list):
candidates = []
elif isinstance(payload, list):
candidates = payload
else:
candidates = []
for item in candidates:
if not isinstance(item, dict):
continue
item_slug = str(item.get("slug") or "").strip().lower()
if item_slug == normalized_slug:
return item, None
except Exception:
continue
# 2) Fallback to cached discovery lists.
for active_only in (True, False):
for item in self._load_markets(active_only=active_only):
item_slug = str(item.get("slug") or "").strip().lower()
if item_slug == normalized_slug:
return item, None
return None, f"Specified market_slug not found: {normalized_slug}"
def _score_market(
self,
city_key: str,
target_date: str,
market: Dict[str, Any],
preferred_temp: Optional[float] = None,
) -> float:
city_tokens = CITY_TOKEN_INDEX.get(city_key, [city_key])
text_parts = [
market.get("question"),
market.get("title"),
market.get("slug"),
market.get("eventSlug"),
market.get("description"),
]
haystack = _normalize_text(" ".join(str(part or "") for part in text_parts))
if not haystack:
return 0.0
city_hit = any(_contains_token(haystack, token) for token in city_tokens)
if not city_hit:
return 0.0
if not self._is_temperature_market(market):
return 0.0
score = 40.0
score += 18.0
d_target = _parse_target_date(target_date)
text_dates = _extract_dates_from_text(haystack, d_target.year if d_target else None)
if d_target and text_dates:
diffs: List[int] = []
for date_str in text_dates:
try:
diffs.append(abs((datetime.fromisoformat(date_str).date() - d_target.date()).days))
except Exception:
continue
if diffs:
best = min(diffs)
if best == 0:
score += 45.0
elif best == 1:
score += 20.0
elif best == 2:
score += 10.0
else:
score -= 6.0
else:
market_date = self._extract_market_date(market)
if market_date and d_target:
try:
d_market = datetime.fromisoformat(market_date).date()
diff = abs((d_market - d_target.date()).days)
if diff == 0:
score += 18.0
elif diff == 1:
score += 8.0
elif diff == 2:
score += 3.0
else:
score -= 2.0
except Exception:
pass
if bool(market.get("active", False)):
score += 5.0
if not bool(market.get("closed", False)):
score += 5.0
if bool(market.get("enableOrderBook", market.get("enable_order_book", False))):
score += 4.0
volume = (
_extract_price(
market.get("volumeNum")
or market.get("volume")
or market.get("volume24hr")
)
or 0.0
)
score += min(volume / 50000.0, 8.0)
if preferred_temp is not None:
market_temp = self._extract_market_bucket_temp(market)
bucket_range = self._extract_market_bucket_range(market)
direction = self._extract_market_bucket_direction(market)
if market_temp is not None:
diff = abs(float(market_temp) - float(preferred_temp))
score += max(-40.0, 60.0 - diff * 15.0)
if bucket_range is not None:
lower, upper, _unit = bucket_range
contains_preferred = False
if upper is not None:
contains_preferred = lower <= float(preferred_temp) <= upper
elif direction == "above":
contains_preferred = float(preferred_temp) >= lower
elif direction == "below":
contains_preferred = float(preferred_temp) <= lower
else:
contains_preferred = abs(float(preferred_temp) - lower) <= 0.51
if contains_preferred:
if upper is not None or direction == "exact":
score += 28.0
else:
score += 18.0
return score
def _is_temperature_market(self, market: Dict[str, Any]) -> bool:
text_parts = [
market.get("question"),
market.get("title"),
market.get("slug"),
market.get("eventSlug"),
market.get("description"),
]
raw_text = " ".join(str(part or "") for part in text_parts)
if not raw_text:
return False
# Hard signal: contains explicit Celsius bucket text like "10C" / "10°C"
if re.search(r"(-?\d+(?:\.\d+)?)\s*[°º]?\s*c\b", raw_text, re.IGNORECASE):
return True
text = _normalize_text(raw_text)
if not text:
return False
# Weather temperature event patterns.
if "highest temperature" in text:
return True
if "temperature in" in text:
return True
if "high temperature" in text:
return True
# Conservative fallback: must explicitly mention temperature and boundary wording.
if "temperature" in text and any(
key in text for key in ("or higher", "or above", "or lower", "or below", "and above", "and below")
):
return True
return False
def _extract_market_date(self, market: Dict[str, Any]) -> Optional[str]:
for key in (
"endDate",
"endDateIso",
"endDateISO",
"resolutionDate",
"gameStartTime",
"closedTime",
):
date_str = _extract_iso_date(market.get(key))
if date_str:
return date_str
return None
def _extract_market_bucket_temp(self, market: Dict[str, Any]) -> Optional[float]:
parsed = self._extract_market_bucket_range(market)
if parsed:
lower, upper, _unit = parsed
if upper is not None:
return (lower + upper) / 2.0
return lower
return None
def _extract_market_bucket_range(
self,
market: Dict[str, Any],
) -> Optional[Tuple[float, Optional[float], str]]:
slug = str(market.get("slug") or "").strip().lower()
slug_range = re.search(
r"-(\d+(?:\.\d+)?)-(\d+(?:\.\d+)?)([cf])(?:$|-or-higher|-or-lower|orhigher|orlower)",
slug,
re.IGNORECASE,
)
if slug_range:
lower = _safe_float(slug_range.group(1))
upper = _safe_float(slug_range.group(2))
unit = slug_range.group(3).upper()
if lower is not None and upper is not None and abs(upper - lower) <= 20:
return min(lower, upper), max(lower, upper), unit
text = " ".join(
str(part or "")
for part in (
market.get("question"),
market.get("title"),
)
)
# Match range buckets such as "80-81°F" and "80 to 81F".
range_match = re.search(
r"(-?\d+(?:\.\d+)?)\s*(?:-||—|\bto\b)\s*(-?\d+(?:\.\d+)?)\s*°?\s*([cf])\b",
text,
re.IGNORECASE,
)
if range_match:
lower = _safe_float(range_match.group(1))
upper = _safe_float(range_match.group(2))
unit = range_match.group(3).upper()
if lower is not None and upper is not None and abs(upper - lower) <= 20:
return min(lower, upper), max(lower, upper), unit
slug_exact = re.search(
r"-(\d+(?:\.\d+)?)([cf])(?:$|-or-higher|-or-lower|orhigher|orlower)",
slug,
re.IGNORECASE,
)
if slug_exact:
value = _safe_float(slug_exact.group(1))
unit = slug_exact.group(2).upper()
if value is not None:
return value, None, unit
# Match "... 9°C ..." / "... 9F ..." / "... -2 C ..."
match = re.search(r"(-?\d+(?:\.\d+)?)\s*°?\s*([cf])\b", text, re.IGNORECASE)
if match:
value = _safe_float(match.group(1))
unit = match.group(2).upper()
if value is not None:
return value, None, unit
return None
def _build_weather_event_slug(self, city_key: str, target_date: str) -> Optional[str]:
try:
dt = datetime.fromisoformat(str(target_date))
except Exception:
return None
city_slug = str(city_key or "").strip().lower().replace(" ", "-")
if not city_slug:
return None
month_name = dt.strftime("%B").lower()
return f"highest-temperature-in-{city_slug}-on-{month_name}-{dt.day}-{dt.year}"
def _is_fahrenheit_symbol(self, symbol: Optional[str]) -> bool:
return "F" in str(symbol or "").upper()
def _convert_temp_to_market_unit(
self,
value: Optional[float],
source_symbol: Optional[str],
market_unit: Optional[str],
) -> Optional[float]:
numeric = _safe_float(value)
if numeric is None:
return None
normalized_unit = str(market_unit or "").upper()
source_is_f = self._is_fahrenheit_symbol(source_symbol)
if normalized_unit == "F":
return numeric if source_is_f else (numeric * 9.0 / 5.0) + 32.0
return ((numeric - 32.0) * 5.0 / 9.0) if source_is_f else numeric
def _market_bucket_contains_distribution_temp(
self,
market: Dict[str, Any],
distribution_temp: Optional[float],
temp_symbol: Optional[str],
) -> bool:
compare_temp = self._convert_temp_to_market_unit(
distribution_temp,
source_symbol=temp_symbol,
market_unit=(self._extract_market_bucket_range(market) or (None, None, "C"))[2],
)
if compare_temp is None:
return False
bucket_range = self._extract_market_bucket_range(market)
lower = bucket_range[0] if bucket_range else None
upper = bucket_range[1] if bucket_range else None
unit = bucket_range[2] if bucket_range else "C"
direction = self._extract_market_bucket_direction(market)
if lower is not None and upper is not None:
return compare_temp >= lower - 0.01 and compare_temp <= upper + 0.01
if lower is not None and direction == "above":
return compare_temp >= lower - 0.01
if lower is not None and direction == "below":
return compare_temp <= lower + 0.01
reference = self._extract_market_bucket_temp(market)
if reference is None:
return False
tolerance = 0.56 if str(unit or "").upper() == "F" else 0.26
return abs(compare_temp - reference) <= tolerance
def _aggregate_distribution_probability_for_market(
self,
market: Dict[str, Any],
probability_distribution: Optional[List[Dict[str, Any]]],
temp_symbol: Optional[str],
) -> Optional[float]:
if not isinstance(probability_distribution, list) or not probability_distribution:
return None
total = 0.0
matched = 0
for row in probability_distribution:
if not isinstance(row, dict):
continue
distribution_temp = _safe_float(row.get("value"))
if distribution_temp is None:
continue
if not self._market_bucket_contains_distribution_temp(
market,
distribution_temp,
temp_symbol,
):
continue
raw_probability = _safe_float(row.get("probability"))
if raw_probability is None:
continue
probability = raw_probability / 100.0 if raw_probability > 1.0 else raw_probability
probability = max(0.0, min(1.0, probability))
total += probability
matched += 1
if matched <= 0:
return None
return max(0.0, min(1.0, total))
def _load_markets(self, active_only: bool = True) -> List[Dict[str, Any]]:
now = time.time()
with self._lock:
cached = self._active_markets_cache if active_only else self._broad_markets_cache
if now - float(cached.get("t", 0)) < self.market_cache_ttl:
data = cached.get("data")
if isinstance(data, list):
return data
all_markets: List[Dict[str, Any]] = []
offset = 0
for _ in range(max(self.discovery_pages, 1)):
params = {"archived": "false", "limit": self.discovery_limit, "offset": offset}
if active_only:
params.update({"active": "true", "closed": "false"})
else:
params.update({"active": "true"})
url = f"{self.gamma_url}/markets"
try:
resp = self._session.get(url, params=params, timeout=self.http_timeout)
resp.raise_for_status()
payload = resp.json()
except Exception as exc:
logger.warning(f"Gamma markets fetch failed (offset={offset}): {exc}")
break
if isinstance(payload, dict):
batch = payload.get("markets")
if not isinstance(batch, list):
# Gamma can also return object arrays directly.
batch = []
elif isinstance(payload, list):
batch = payload
else:
batch = []
if not batch:
break
all_markets.extend(item for item in batch if isinstance(item, dict))
if len(batch) < self.discovery_limit:
break
offset += self.discovery_limit
with self._lock:
if active_only:
self._active_markets_cache = {"data": all_markets, "t": now}
else:
self._broad_markets_cache = {"data": all_markets, "t": now}
return all_markets
def _extract_market_tokens(self, market: Dict[str, Any]) -> List[Dict[str, Any]]:
result: List[Dict[str, Any]] = []
direct_tokens = market.get("tokens")
if isinstance(direct_tokens, list):
for token in direct_tokens:
token_obj = _to_plain_dict(token)
if not token_obj:
continue
token_id = str(
token_obj.get("token_id")
or token_obj.get("tokenId")
or token_obj.get("id")
or token_obj.get("clobTokenId")
or ""
).strip()
if not token_id:
continue
result.append(
{
"outcome": token_obj.get("outcome") or token_obj.get("name"),
"token_id": token_id,
"implied_probability": _extract_price(
token_obj.get("price")
or token_obj.get("probability")
or token_obj.get("lastPrice")
),
}
)
if result:
return result
outcomes = _json_or_list(market.get("outcomes"))
prices = _json_or_list(market.get("outcomePrices"))
token_ids = _json_or_list(market.get("clobTokenIds"))
if not token_ids:
token_ids = _json_or_list(market.get("tokenIds"))
for index, outcome in enumerate(outcomes):
token_id = str(token_ids[index]).strip() if index < len(token_ids) else ""
if not token_id:
continue
implied_probability = (
_extract_price(prices[index]) if index < len(prices) else None
)
result.append(
{
"outcome": str(outcome),
"token_id": token_id,
"implied_probability": implied_probability,
}
)
return result
def _resolve_yes_no_tokens(
self,
tokens: List[Dict[str, Any]],
) -> Tuple[Optional[Dict[str, Any]], Optional[Dict[str, Any]]]:
if not tokens:
return None, None
yes_token = None
no_token = None
for token in tokens:
label = _normalize_text(token.get("outcome"))
if label in {"yes", "true", "above", "over"}:
yes_token = token
elif label in {"no", "false", "below", "under"}:
no_token = token
if yes_token and no_token:
return yes_token, no_token
if len(tokens) == 2:
# Fallback for markets with unnamed binary outcomes.
return tokens[0], tokens[1]
return None, None
def _get_token_market_data(self, token_id: str) -> Dict[str, Any]:
token_id = str(token_id or "").strip()
if not token_id:
return {}
now = time.time()
with self._lock:
cached = self._price_cache.get(token_id)
if cached and now - cached.get("t", 0) < self.price_cache_ttl:
return cached.get("data", {})
data = self._fetch_token_market_data(token_id)
with self._lock:
self._price_cache[token_id] = {"data": data, "t": now}
return data
def _fetch_token_market_data(self, token_id: str) -> Dict[str, Any]:
# REST-only path: CLOB public endpoints.
# Polymarket CLOB semantics:
# - side=BUY returns the executable ask, i.e. the price paid to buy.
# - side=SELL returns the executable bid, i.e. the price received to sell.
buy_price = _extract_price(self._clob_get("/price", {"token_id": token_id, "side": "BUY"}))
sell_price = _extract_price(
self._clob_get("/price", {"token_id": token_id, "side": "SELL"})
)
if self.fast_price_only:
buy, sell = self._resolve_trade_prices(
buy=buy_price,
sell=sell_price,
book=None,
)
midpoint = (buy + sell) / 2.0 if buy is not None and sell is not None else (buy or sell)
spread = max(0.0, float(buy) - float(sell)) if buy is not None and sell is not None else None
return {
"buy": buy,
"sell": sell,
"midpoint": _clamp_probability(midpoint),
"spread": spread,
"last_trade_price": None,
"quote_source": "polymarket_clob_fast_price",
"quote_age_ms": 0,
"book": None,
"book_liquidity": None,
}
midpoint = _extract_price(self._clob_get("/midpoint", {"token_id": token_id}))
last_trade = _extract_price(
self._clob_get("/last-trade-price", {"token_id": token_id})
)
orderbook_raw = self._clob_get("/book", {"token_id": token_id})
book, book_liquidity = self._normalize_orderbook(orderbook_raw)
buy, sell = self._resolve_trade_prices(
buy=buy_price,
sell=sell_price,
book=book,
)
if midpoint is None and buy is not None and sell is not None:
midpoint = (buy + sell) / 2.0
spread = max(0.0, float(buy) - float(sell)) if buy is not None and sell is not None else None
return {
"buy": buy,
"sell": sell,
"midpoint": midpoint,
"spread": spread,
"last_trade_price": last_trade,
"quote_source": "polymarket_clob_rest",
"quote_age_ms": 0,
"book": book,
"book_liquidity": book_liquidity,
}
def _clob_get(self, path: str, params: Dict[str, Any]) -> Any:
url = f"{self.clob_url}{path}"
try:
resp = self._session.get(url, params=params, timeout=self.http_timeout)
resp.raise_for_status()
return resp.json()
except Exception:
return None
def _resolve_trade_prices(
self,
buy: Optional[float],
sell: Optional[float],
book: Optional[Dict[str, Any]],
) -> Tuple[Optional[float], Optional[float]]:
payload = book if isinstance(book, dict) else {}
best_bid = _extract_price(payload.get("best_bid"))
best_ask = _extract_price(payload.get("best_ask"))
resolved_buy = best_ask if best_ask is not None else buy
resolved_sell = best_bid if best_bid is not None else sell
if (
best_ask is None
and best_bid is None
and buy is not None
and sell is not None
and buy < sell
):
# When no order book is available, normalize raw CLOB /price
# snapshots into executable semantics used by the rest of this
# module: buy = ask-to-buy, sell = bid-to-sell.
resolved_buy, resolved_sell = sell, buy
return resolved_buy, resolved_sell
def _normalize_orderbook(self, orderbook_raw: Any) -> Tuple[Optional[Dict[str, Any]], Optional[float]]:
payload = _to_plain_dict(orderbook_raw)
if not payload and isinstance(orderbook_raw, dict):
payload = orderbook_raw
if not payload:
return None, None
bids_raw = payload.get("bids") or []
asks_raw = payload.get("asks") or []
bid_levels: List[List[float]] = []
ask_levels: List[List[float]] = []
book_liquidity = 0.0
def _parse_side(items: Any, sink: List[List[float]]) -> None:
nonlocal book_liquidity
if not isinstance(items, list):
return
for item in items:
item_dict = _to_plain_dict(item)
if item_dict:
price = _extract_price(item_dict.get("price"))
size = _extract_price(item_dict.get("size") or item_dict.get("quantity"))
elif isinstance(item, (list, tuple)) and len(item) >= 2:
price = _extract_price(item[0])
size = _extract_price(item[1])
else:
continue
if price is None or size is None:
continue
sink.append([price, size])
book_liquidity += max(0.0, price * size)
_parse_side(bids_raw, bid_levels)
_parse_side(asks_raw, ask_levels)
bid_levels.sort(key=lambda level: level[0], reverse=True)
ask_levels.sort(key=lambda level: level[0])
best_bid = bid_levels[0][0] if bid_levels else None
best_ask = ask_levels[0][0] if ask_levels else None
normalized = {
"best_bid": best_bid,
"best_ask": best_ask,
"bid_levels": bid_levels[:10],
"ask_levels": ask_levels[:10],
}
return normalized, (book_liquidity if book_liquidity > 0 else None)
def _build_market_url(self, market: Dict[str, Any]) -> Optional[str]:
slug = str(market.get("slug") or "").strip()
event_slug = str(market.get("eventSlug") or "").strip()
if event_slug:
return f"https://polymarket.com/event/{event_slug}"
if slug:
return f"https://polymarket.com/market/{slug}"
return None
def _build_top_temperature_buckets(
self,
city_key: str,
target_date: str,
primary_market: Dict[str, Any],
probability_distribution: Optional[List[Dict[str, Any]]] = None,
temp_symbol: Optional[str] = None,
limit: int = 4,
) -> List[Dict[str, Any]]:
candidate_markets = self._collect_related_temperature_markets(
city_key=city_key,
target_date=target_date,
primary_market=primary_market,
)
if not candidate_markets:
return []
ranked: List[
Tuple[
float,
float,
float,
float,
Dict[str, Any],
Dict[str, Any],
Dict[str, Any],
Dict[str, Any],
Dict[str, Any],
Optional[Tuple[float, Optional[float], str]],
]
] = []
for market in candidate_markets:
if not self._market_trade_state(market).get("tradable"):
continue
bucket_temp = self._extract_market_bucket_temp(market)
bucket_range = self._extract_market_bucket_range(market)
if bucket_temp is None:
continue
tokens = self._extract_market_tokens(market)
yes_token, no_token = self._resolve_yes_no_tokens(tokens)
if not yes_token or not no_token:
continue
yes_token_id = str(yes_token.get("token_id") or "").strip()
no_token_id = str(no_token.get("token_id") or "").strip()
yes_prices = self._get_token_market_data(yes_token_id) if yes_token_id else {}
no_prices = self._get_token_market_data(no_token_id) if no_token_id else {}
yes_midpoint = _extract_price(yes_prices.get("midpoint"))
yes_implied = _extract_price(yes_token.get("implied_probability"))
no_implied = _extract_price(no_token.get("implied_probability"))
market_prob = (
yes_midpoint
if yes_midpoint is not None
else (
yes_implied
if yes_implied is not None
else (1.0 - no_implied if no_implied is not None else None)
)
)
if market_prob is None:
continue
market_prob = max(0.0, min(1.0, float(market_prob)))
model_prob = self._aggregate_distribution_probability_for_market(
market=market,
probability_distribution=probability_distribution,
temp_symbol=temp_symbol,
)
volume = (
_extract_price(
market.get("volumeNum")
or market.get("volume")
or market.get("volume24hr")
)
or 0.0
)
ranked.append(
(
model_prob if model_prob is not None else market_prob,
volume,
bucket_temp,
market_prob,
market,
yes_token,
no_token,
yes_prices,
no_prices,
bucket_range,
)
)
if not ranked:
return []
ranked.sort(key=lambda item: (item[0], item[1]), reverse=True)
top_rows: List[Dict[str, Any]] = []
max_items = max(1, int(limit or 4))
primary_slug = str(primary_market.get("slug") or "").strip().lower()
primary_direction = self._extract_market_bucket_direction(primary_market)
seen_temp_keys: set = set()
def _append_rows(enforce_primary_direction: bool) -> None:
for (
model_prob,
_volume,
bucket_temp,
market_prob,
market,
yes_token,
no_token,
yes_prices,
no_prices,
bucket_range,
) in ranked:
row_direction = self._extract_market_bucket_direction(market)
if (
enforce_primary_direction
and primary_direction in {"above", "below"}
and row_direction != primary_direction
):
continue
temp_key = f"{round(float(bucket_temp), 2):.2f}"
if temp_key in seen_temp_keys:
continue
yes_buy = _extract_price(yes_prices.get("buy"))
yes_sell = _extract_price(yes_prices.get("sell"))
yes_midpoint = _extract_price(yes_prices.get("midpoint")) or market_prob
no_buy = _extract_price(no_prices.get("buy"))
no_sell = _extract_price(no_prices.get("sell"))
if no_buy is None and yes_buy is not None:
no_buy = max(0.0, min(1.0, 1.0 - yes_buy))
if no_sell is None and yes_sell is not None:
no_sell = max(0.0, min(1.0, 1.0 - yes_sell))
market_slug = str(market.get("slug") or "").strip()
row_yes_token_id = str(yes_token.get("token_id") or "").strip()
row_no_token_id = str(no_token.get("token_id") or "").strip()
top_rows.append(
{
"label": self._extract_market_bucket_label(market, bucket_temp),
"value": bucket_temp,
"temp": bucket_temp,
"lower": bucket_range[0] if bucket_range else None,
"upper": bucket_range[1] if bucket_range else None,
"unit": bucket_range[2] if bucket_range else None,
"probability": model_prob,
"model_probability": model_prob,
"market_price": yes_midpoint,
"edge_percent": (
(model_prob - yes_midpoint) * 100.0
if model_prob is not None and yes_midpoint is not None
else None
),
"yes_buy": yes_buy,
"yes_sell": yes_sell,
"no_buy": no_buy,
"no_sell": no_sell,
"yes_token_id": row_yes_token_id or None,
"no_token_id": row_no_token_id or None,
"quote_source": yes_prices.get("quote_source"),
"quote_age_ms": _safe_int(yes_prices.get("quote_age_ms"), 0),
"slug": market_slug or None,
"question": market.get("question") or market.get("title"),
"is_primary": bool(
primary_slug
and market_slug
and primary_slug == market_slug.strip().lower()
),
}
)
seen_temp_keys.add(temp_key)
if len(top_rows) >= max_items:
break
if primary_direction in {"above", "below"}:
_append_rows(enforce_primary_direction=True)
if len(top_rows) < max_items:
_append_rows(enforce_primary_direction=False)
return top_rows
def _collect_related_temperature_markets(
self,
city_key: str,
target_date: str,
primary_market: Dict[str, Any],
) -> List[Dict[str, Any]]:
related: List[Dict[str, Any]] = []
canonical_event_slug = self._build_weather_event_slug(city_key, target_date)
if canonical_event_slug:
related.extend(self._load_event_markets(canonical_event_slug))
event_slug = self._extract_event_slug(primary_market)
if event_slug and event_slug != canonical_event_slug:
related.extend(self._load_event_markets(event_slug))
if not related:
for market in self._load_markets(active_only=True):
if self._score_market(city_key, target_date, market) <= 0:
continue
if self._extract_market_bucket_temp(market) is None:
continue
related.append(market)
related.append(primary_market)
unique: List[Dict[str, Any]] = []
seen = set()
for market in related:
if not isinstance(market, dict):
continue
dedupe_key = str(
market.get("id")
or market.get("slug")
or market.get("conditionId")
or ""
).strip()
if not dedupe_key:
continue
if dedupe_key in seen:
continue
seen.add(dedupe_key)
unique.append(market)
return unique
def _extract_event_slug(self, market: Dict[str, Any]) -> Optional[str]:
event_slug = str(market.get("eventSlug") or "").strip().lower()
if event_slug:
return event_slug
slug = str(market.get("slug") or "").strip().lower()
if not slug:
return None
trimmed = re.sub(
r"-(?:m)?\d+(?:-\d+)?c(?:-or-(?:higher|lower|above|below))?$",
"",
slug,
)
trimmed = trimmed.strip("-")
return trimmed or None
def _load_event_markets(self, event_slug: str) -> List[Dict[str, Any]]:
normalized_slug = str(event_slug or "").strip().lower()
if not normalized_slug:
return []
try:
resp = self._session.get(
f"{self.gamma_url}/events",
params={"slug": normalized_slug, "limit": 5},
timeout=self.http_timeout,
)
resp.raise_for_status()
payload = resp.json()
except Exception:
return []
events = payload if isinstance(payload, list) else []
out: List[Dict[str, Any]] = []
for event in events:
if not isinstance(event, dict):
continue
event_item_slug = str(event.get("slug") or "").strip().lower()
if event_item_slug and event_item_slug != normalized_slug:
continue
for market in event.get("markets") or []:
if not isinstance(market, dict):
continue
market["eventSlug"] = market.get("eventSlug") or event_item_slug
market["eventTitle"] = market.get("eventTitle") or event.get("title")
out.append(market)
return out
def _extract_market_bucket_label(
self,
market: Dict[str, Any],
bucket_temp: Optional[float],
) -> str:
question = str(market.get("question") or market.get("title") or "").strip()
direction = self._extract_market_bucket_direction(market)
bucket_range = self._extract_market_bucket_range(market)
raw_unit = bucket_range[2] if bucket_range else "C"
unit = "F" if str(raw_unit).upper().endswith("F") else "°C"
if bucket_range and bucket_range[1] is not None:
return f"{bucket_range[0]:g}-{bucket_range[1]:g}{unit}"
if bucket_temp is not None:
if direction == "above":
return f"{bucket_temp:g}{unit}+"
if direction == "below":
return f"<={bucket_temp:g}{unit}"
return f"{bucket_temp:g}{unit}"
return question or str(market.get("slug") or "")
def _extract_market_bucket_direction(self, market: Dict[str, Any]) -> str:
text = " ".join(
str(part or "")
for part in (
market.get("question"),
market.get("title"),
market.get("slug"),
)
).lower()
if not text:
return "exact"
if any(
token in text
for token in (
"or higher",
"or above",
"and above",
"forhigher",
"forabove",
"or-higher",
"or-above",
)
):
return "above"
if any(
token in text
for token in (
"or lower",
"or below",
"and below",
"forlower",
"forbelow",
"or-lower",
"or-below",
)
):
return "below"
return "exact"
def _clob_post(self, path: str, payload: Any) -> Any:
url = f"{self.clob_url}{path}"
try:
resp = self._session.post(url, json=payload, timeout=self.http_timeout)
resp.raise_for_status()
return resp.json()
except Exception:
return None
def _batch_chunks(self, values: List[str], size: int = 200) -> List[List[str]]:
if not values:
return []
chunk_size = max(1, min(int(size or 200), 500))
return [values[index : index + chunk_size] for index in range(0, len(values), chunk_size)]
def _extract_payload_token_id(self, payload: Any) -> Optional[str]:
item = _to_plain_dict(payload)
if not item and isinstance(payload, dict):
item = payload
if not item:
return None
token_id = str(
item.get("asset_id")
or item.get("assetId")
or item.get("token_id")
or item.get("tokenId")
or item.get("id")
or ""
).strip()
return token_id or None
def _extract_batch_scalar_map(self, payload: Any) -> Dict[str, float]:
if not payload:
return {}
data = payload
if isinstance(data, dict):
for key in ("data", "midpoints", "spreads", "items", "results"):
nested = data.get(key)
if isinstance(nested, (dict, list)):
data = nested
break
result: Dict[str, float] = {}
if isinstance(data, dict):
for key, value in data.items():
numeric = _extract_price(value)
if numeric is None:
continue
result[str(key).strip()] = numeric
return result
if isinstance(data, list):
for item in data:
token_id = self._extract_payload_token_id(item)
if not token_id:
continue
item_dict = _to_plain_dict(item)
numeric = _extract_price(
item_dict.get("midpoint")
or item_dict.get("mid_price")
or item_dict.get("spread")
or item_dict.get("price")
or item_dict.get("last_trade_price")
or item_dict.get("value")
)
if numeric is None:
continue
result[token_id] = numeric
return result
def _extract_batch_price_map(self, payload: Any, side: str) -> Dict[str, float]:
if not payload:
return {}
data = payload.get("data") if isinstance(payload, dict) and isinstance(payload.get("data"), dict) else payload
result: Dict[str, float] = {}
if not isinstance(data, dict):
return result
for token_id, side_map in data.items():
token_key = str(token_id).strip()
if not token_key:
continue
item = _to_plain_dict(side_map)
if not item and isinstance(side_map, dict):
item = side_map
numeric = _extract_price(item.get(side) if item else side_map)
if numeric is None:
continue
result[token_key] = numeric
return result
def _extract_batch_book_map(self, payload: Any) -> Dict[str, Dict[str, Any]]:
if not payload:
return {}
data = payload
if isinstance(data, dict):
for key in ("data", "books", "items", "results"):
nested = data.get(key)
if isinstance(nested, (dict, list)):
data = nested
break
result: Dict[str, Dict[str, Any]] = {}
if isinstance(data, dict):
for token_id, book in data.items():
token_key = str(token_id).strip()
book_dict = _to_plain_dict(book)
if not token_key or not book_dict:
continue
result[token_key] = book_dict
return result
if isinstance(data, list):
for item in data:
token_id = self._extract_payload_token_id(item)
book_dict = _to_plain_dict(item)
if not token_id or not book_dict:
continue
result[token_id] = book_dict
return result
def _batch_get_token_market_data(
self,
token_ids: List[str],
*,
include_books: bool = False,
) -> Dict[str, Dict[str, Any]]:
unique_tokens = []
seen = set()
for token_id in token_ids:
normalized = str(token_id or "").strip()
if not normalized or normalized in seen:
continue
seen.add(normalized)
unique_tokens.append(normalized)
if not unique_tokens:
return {}
now = time.time()
results: Dict[str, Dict[str, Any]] = {}
missing: List[str] = []
with self._lock:
for token_id in unique_tokens:
cached = self._price_cache.get(token_id)
if not cached or now - cached.get("t", 0) >= self.price_cache_ttl:
missing.append(token_id)
continue
cached_data = cached.get("data", {}) or {}
if (
include_books
and not self.fast_price_only
and not cached_data.get("book")
and cached_data.get("book_liquidity") is None
):
missing.append(token_id)
continue
results[token_id] = dict(cached_data)
if not missing:
return results
buy_map: Dict[str, float] = {}
sell_map: Dict[str, float] = {}
midpoint_map: Dict[str, float] = {}
spread_map: Dict[str, float] = {}
last_trade_map: Dict[str, float] = {}
book_map: Dict[str, Dict[str, Any]] = {}
for chunk in self._batch_chunks(missing):
buy_payload = self._clob_post(
"/prices",
[{"token_id": token_id, "side": "BUY"} for token_id in chunk],
)
sell_payload = self._clob_post(
"/prices",
[{"token_id": token_id, "side": "SELL"} for token_id in chunk],
)
midpoint_payload = (
self._clob_post(
"/midpoints",
[{"token_id": token_id} for token_id in chunk],
)
if not self.fast_price_only
else None
)
spread_payload = (
self._clob_post(
"/spreads",
[{"token_id": token_id} for token_id in chunk],
)
if not self.fast_price_only
else None
)
last_trade_payload = (
self._clob_post(
"/last-trade-prices",
[{"token_id": token_id} for token_id in chunk],
)
if not self.fast_price_only
else None
)
books_payload = (
self._clob_post(
"/books",
[{"token_id": token_id} for token_id in chunk],
)
if include_books and not self.fast_price_only
else None
)
buy_map.update(self._extract_batch_price_map(buy_payload, "BUY"))
sell_map.update(self._extract_batch_price_map(sell_payload, "SELL"))
midpoint_map.update(self._extract_batch_scalar_map(midpoint_payload))
spread_map.update(self._extract_batch_scalar_map(spread_payload))
last_trade_map.update(self._extract_batch_scalar_map(last_trade_payload))
if include_books:
book_map.update(self._extract_batch_book_map(books_payload))
fetched: Dict[str, Dict[str, Any]] = {}
unresolved: List[str] = []
for token_id in missing:
raw_book = book_map.get(token_id)
book, book_liquidity = self._normalize_orderbook(raw_book)
buy_price = _extract_price(buy_map.get(token_id))
sell_price = _extract_price(sell_map.get(token_id))
midpoint = _extract_price(midpoint_map.get(token_id))
spread = _extract_price(spread_map.get(token_id))
last_trade = _extract_price(last_trade_map.get(token_id))
buy, sell = self._resolve_trade_prices(
buy=buy_price,
sell=sell_price,
book=book,
)
if midpoint is None and buy is not None and sell is not None:
midpoint = (buy + sell) / 2.0
if midpoint is None:
midpoint = _extract_price(raw_book.get("last_trade_price") if isinstance(raw_book, dict) else None)
if spread is None and buy is not None and sell is not None:
spread = max(0.0, float(buy) - float(sell))
if spread is not None and midpoint is not None:
midpoint = _clamp_probability(midpoint)
if buy is None and midpoint is not None and spread is not None:
buy = _clamp_probability(midpoint + spread / 2.0)
if sell is None and midpoint is not None and spread is not None:
sell = _clamp_probability(midpoint - spread / 2.0)
if (
buy is None
and sell is None
and midpoint is None
and last_trade is None
and book is None
):
unresolved.append(token_id)
continue
fetched[token_id] = {
"buy": buy,
"sell": sell,
"midpoint": midpoint,
"spread": spread,
"last_trade_price": last_trade,
"quote_source": (
"polymarket_clob_fast_batch"
if self.fast_price_only
else "polymarket_clob_rest_batch"
),
"quote_age_ms": 0,
"book": book,
"book_liquidity": book_liquidity,
}
for token_id in unresolved:
fetched[token_id] = self._fetch_token_market_data(token_id)
with self._lock:
for token_id, data in fetched.items():
self._price_cache[token_id] = {"data": data, "t": now}
results.update(fetched)
return results
def _normalize_scan_filters(self, scan_filters: Optional[Dict[str, Any]] = None) -> Dict[str, Any]:
raw = scan_filters if isinstance(scan_filters, dict) else {}
min_price = _clamp_float(_safe_float(raw.get("min_price")), 0.0, 1.0)
max_price = _clamp_float(_safe_float(raw.get("max_price")), 0.0, 1.0)
if min_price is None:
min_price = 0.05
if max_price is None:
max_price = 0.95
if min_price > max_price:
min_price, max_price = max_price, min_price
high_liquidity_only = bool(_safe_bool(raw.get("high_liquidity_only")))
min_liquidity = _safe_float(raw.get("min_liquidity"))
if min_liquidity is None:
min_liquidity = 5000.0 if high_liquidity_only else float(self.min_liquidity_for_signal or 500.0)
if high_liquidity_only:
min_liquidity = max(min_liquidity, 5000.0)
return {
"scan_mode": str(raw.get("scan_mode") or "tradable").strip().lower() or "tradable",
"min_price": float(min_price),
"max_price": float(max_price),
"min_edge_pct": max(0.0, _safe_float(raw.get("min_edge_pct")) or float(self.edge_threshold or 2.0)),
"min_liquidity": max(0.0, float(min_liquidity)),
"high_liquidity_only": high_liquidity_only,
"market_type": str(raw.get("market_type") or "maxtemp").strip().lower() or "maxtemp",
"time_range": str(raw.get("time_range") or "today").strip().lower() or "today",
"limit": max(1, _safe_int(raw.get("limit"), 60)),
"max_spread": max(0.0, _safe_float(raw.get("max_spread")) or 0.03),
}
def _build_window_meta(
self,
target_date: str,
scan_context: Optional[Dict[str, Any]] = None,
) -> Dict[str, Any]:
context = scan_context if isinstance(scan_context, dict) else {}
local_date = _extract_iso_date(context.get("local_date")) or _extract_iso_date(target_date)
local_time = context.get("local_time")
peak = context.get("peak") if isinstance(context.get("peak"), dict) else {}
first_h = int(_safe_float(peak.get("first_h")) or 13)
last_h = int(_safe_float(peak.get("last_h")) or 15)
first_minutes = max(0, first_h * 60)
last_minutes = min(23 * 60 + 59, last_h * 60)
display_last_minutes = min(23 * 60 + 59, last_h * 60 + 59)
peak_fields: Dict[str, Any] = {
"peak_window_start": f"{first_h:02d}:00",
"peak_window_end": f"{last_h:02d}:59",
"peak_window_label": f"{first_h:02d}:00-{last_h:02d}:59",
"minutes_until_peak_start": None,
"minutes_until_peak_end": None,
"peak_start_minutes": first_minutes,
"peak_end_minutes": display_last_minutes,
}
target_iso = _extract_iso_date(target_date)
if not local_date or not target_iso:
return {
"phase": "today_default",
"score": 0.65,
"remaining_minutes": None,
"same_day": True,
**peak_fields,
}
try:
diff_days = (
datetime.fromisoformat(target_iso).date()
- datetime.fromisoformat(local_date).date()
).days
except Exception:
diff_days = 0
now_minutes = _parse_hhmm_to_minutes(local_time)
if now_minutes is not None:
peak_fields["minutes_until_peak_start"] = diff_days * 1440 + first_minutes - now_minutes
peak_fields["minutes_until_peak_end"] = diff_days * 1440 + display_last_minutes - now_minutes
if diff_days >= 2:
return {
"phase": "week_ahead",
"score": 0.45,
"remaining_minutes": peak_fields["minutes_until_peak_start"],
"same_day": False,
**peak_fields,
}
if diff_days == 1:
return {
"phase": "tomorrow",
"score": 0.60,
"remaining_minutes": peak_fields["minutes_until_peak_start"],
"same_day": False,
**peak_fields,
}
if diff_days < 0:
return {
"phase": "past",
"score": 0.0,
"remaining_minutes": None,
"same_day": False,
**peak_fields,
}
if now_minutes is None:
return {
"phase": "today_default",
"score": 0.65,
"remaining_minutes": None,
"same_day": True,
**peak_fields,
}
if now_minutes > last_minutes + 120:
return {
"phase": "post_peak",
"score": 0.50,
"remaining_minutes": 0,
"same_day": True,
**peak_fields,
}
if first_minutes <= now_minutes <= last_minutes + 120:
return {
"phase": "active_peak",
"score": 1.00,
"remaining_minutes": max(0, last_minutes + 120 - now_minutes),
"same_day": True,
**peak_fields,
}
if first_minutes - 180 <= now_minutes < first_minutes:
return {
"phase": "setup_today",
"score": 0.85,
"remaining_minutes": max(0, last_minutes + 120 - now_minutes),
"same_day": True,
**peak_fields,
}
return {
"phase": "early_today",
"score": 0.70,
"remaining_minutes": max(0, first_minutes - now_minutes),
"same_day": True,
**peak_fields,
}
def _resolve_market_target_threshold(
self,
market_direction: str,
bucket_range: Optional[Tuple[float, Optional[float], str]],
bucket_temp: Optional[float],
) -> Optional[float]:
if not bucket_range:
return bucket_temp
lower, upper, _unit = bucket_range
if market_direction in {"above", "below"}:
return lower
if upper is not None:
return (lower + upper) / 2.0
return lower
def _resolve_temperature_direction(
self,
*,
side: str,
market_direction: str,
target_threshold: Optional[float],
current_reference: Optional[float],
) -> str:
if market_direction == "above":
return "hotter" if side == "yes" else "colder"
if market_direction == "below":
return "colder" if side == "yes" else "hotter"
hotter_bias = True
if target_threshold is not None and current_reference is not None:
hotter_bias = target_threshold >= current_reference
if side == "yes":
return "hotter" if hotter_bias else "colder"
return "colder" if hotter_bias else "hotter"
def _is_trend_aligned(
self,
*,
temperature_direction: str,
trend_info: Optional[Dict[str, Any]],
network_lead_signal: Optional[Dict[str, Any]],
) -> bool:
trend = trend_info if isinstance(trend_info, dict) else {}
network = network_lead_signal if isinstance(network_lead_signal, dict) else {}
trend_direction = _normalize_text(trend.get("direction"))
if temperature_direction == "hotter" and trend_direction == "rising":
return True
if temperature_direction == "colder" and trend_direction in {"falling", "stagnant"}:
return True
lead_delta = _safe_float(network.get("delta"))
if lead_delta is None:
return False
if temperature_direction == "hotter":
return lead_delta > 0
return lead_delta < 0
def _build_distribution_scan_pack(
self,
*,
city_key: str,
target_date: str,
primary_market: Dict[str, Any],
probability_distribution: Optional[List[Dict[str, Any]]] = None,
temp_symbol: Optional[str] = None,
scan_context: Optional[Dict[str, Any]] = None,
scan_filters: Optional[Dict[str, Any]] = None,
) -> Dict[str, Any]:
filters = self._normalize_scan_filters(scan_filters)
window_meta = self._build_window_meta(target_date, scan_context)
related_markets = self._collect_related_temperature_markets(
city_key=city_key,
target_date=target_date,
primary_market=primary_market,
)
if not related_markets:
return {
"rows": [],
"distribution_bias": {
"available": False,
"value": None,
"direction": "balanced",
"score": 0.0,
"valid_markets": 0,
},
"primary_signal": None,
"signal_status": "no_market",
"candidate_count": 0,
"window_phase": window_meta.get("phase"),
"window_score": window_meta.get("score"),
"resolved_market_type": "maxtemp",
}
market_entries: List[Dict[str, Any]] = []
token_ids: List[str] = []
for market in related_markets:
tokens = self._extract_market_tokens(market)
yes_token, no_token = self._resolve_yes_no_tokens(tokens)
if not yes_token or not no_token:
continue
yes_token_id = str(yes_token.get("token_id") or "").strip()
no_token_id = str(no_token.get("token_id") or "").strip()
if not yes_token_id or not no_token_id:
continue
bucket_range = self._extract_market_bucket_range(market)
bucket_temp = self._extract_market_bucket_temp(market)
raw_direction = self._extract_market_bucket_direction(market)
market_direction = "range" if bucket_range and bucket_range[1] is not None else raw_direction
model_event_probability = self._aggregate_distribution_probability_for_market(
market=market,
probability_distribution=probability_distribution,
temp_symbol=temp_symbol,
)
token_ids.extend([yes_token_id, no_token_id])
market_entries.append(
{
"market": market,
"yes_token": yes_token,
"no_token": no_token,
"yes_token_id": yes_token_id,
"no_token_id": no_token_id,
"bucket_range": bucket_range,
"bucket_temp": bucket_temp,
"market_direction": market_direction,
"target_threshold": self._resolve_market_target_threshold(
market_direction,
bucket_range,
bucket_temp,
),
"target_label": self._extract_market_bucket_label(market, bucket_temp),
"model_event_probability": model_event_probability,
"market_liquidity": _extract_price(
market.get("liquidityNum")
or market.get("liquidity")
or market.get("liquidityClob")
),
"volume": _extract_price(
market.get("volumeNum")
or market.get("volume")
or market.get("volume24hr")
),
"trade_state": self._market_trade_state(market),
"enable_order_book": bool(
market.get("enableOrderBook", market.get("enable_order_book", False))
),
}
)
broad_quotes = self._batch_get_token_market_data(token_ids, include_books=False)
bias_inputs: List[Tuple[float, float]] = []
for entry in market_entries:
yes_quote = broad_quotes.get(entry["yes_token_id"], {})
no_quote = broad_quotes.get(entry["no_token_id"], {})
market_event_probability = (
_extract_price(yes_quote.get("midpoint"))
or _extract_price(yes_quote.get("buy"))
or _extract_price(yes_quote.get("sell"))
or _extract_price(entry["yes_token"].get("implied_probability"))
)
if market_event_probability is not None:
market_event_probability = _clamp_probability(market_event_probability)
yes_ask = _extract_price(yes_quote.get("buy"))
yes_bid = _extract_price(yes_quote.get("sell"))
no_ask = _extract_price(no_quote.get("buy"))
no_bid = _extract_price(no_quote.get("sell"))
if no_ask is None and yes_ask is not None:
no_ask = _clamp_probability(1.0 - yes_bid) if yes_bid is not None else None
if no_bid is None and yes_bid is not None:
no_bid = _clamp_probability(1.0 - yes_ask) if yes_ask is not None else None
spread = _extract_price(yes_quote.get("spread"))
if spread is None and yes_ask is not None and yes_bid is not None:
spread = max(0.0, yes_ask - yes_bid)
entry["market_event_probability"] = market_event_probability
entry["yes_ask"] = yes_ask
entry["yes_bid"] = yes_bid
entry["no_ask"] = no_ask
entry["no_bid"] = no_bid
entry["midpoint"] = _extract_price(yes_quote.get("midpoint")) or market_event_probability
entry["spread"] = spread
entry["yes_book_liquidity"] = _extract_price(yes_quote.get("book_liquidity"))
entry["no_book_liquidity"] = _extract_price(no_quote.get("book_liquidity"))
entry["quote_source"] = yes_quote.get("quote_source") or no_quote.get("quote_source")
entry["quote_age_ms"] = _safe_int(
yes_quote.get("quote_age_ms") if yes_quote.get("quote_age_ms") is not None else no_quote.get("quote_age_ms"),
0,
)
model_event_probability = _clamp_probability(_safe_float(entry.get("model_event_probability")))
if (
model_event_probability is not None
and market_event_probability is not None
and entry["market_direction"] in {"above", "below"}
):
gap = model_event_probability - market_event_probability
signed_gap = -gap if entry["market_direction"] == "below" else gap
bias_inputs.append((max(model_event_probability, 0.08), signed_gap))
distribution_bias_value = None
distribution_bias_score = 0.0
distribution_bias_direction = "balanced"
if len(bias_inputs) >= 3:
total_weight = sum(weight for weight, _signed_gap in bias_inputs)
if total_weight > 0:
distribution_bias_value = sum(weight * signed_gap for weight, signed_gap in bias_inputs) / total_weight
distribution_bias_score = max(0.0, min(abs(distribution_bias_value) / 0.08, 1.0)) * 100.0
if distribution_bias_value >= 0.015:
distribution_bias_direction = "hotter"
elif distribution_bias_value <= -0.015:
distribution_bias_direction = "colder"
distribution_bias = {
"available": len(bias_inputs) >= 3 and distribution_bias_value is not None,
"value": distribution_bias_value,
"direction": distribution_bias_direction,
"score": distribution_bias_score,
"valid_markets": len(bias_inputs),
}
distribution_preview: List[Dict[str, Any]] = []
for entry in market_entries:
label = str(entry.get("target_label") or "").strip()
if not label:
continue
preview_item = {
"label": label,
"value": _safe_float(entry.get("bucket_temp")),
"unit": (
entry.get("bucket_range")[2]
if isinstance(entry.get("bucket_range"), tuple)
and len(entry.get("bucket_range")) >= 3
else ("F" if self._is_fahrenheit_symbol(temp_symbol) else "C")
),
"model_probability": _clamp_probability(
_safe_float(entry.get("model_event_probability"))
),
"market_probability": _clamp_probability(
_safe_float(entry.get("market_event_probability"))
),
"highlighted": False,
}
distribution_preview.append(preview_item)
distribution_preview.sort(
key=lambda item: (
_safe_float(item.get("value"))
if _safe_float(item.get("value")) is not None
else float("inf"),
str(item.get("label") or ""),
)
)
if distribution_preview:
highlighted_index = max(
range(len(distribution_preview)),
key=lambda index: _safe_float(distribution_preview[index].get("model_probability")) or 0.0,
)
distribution_preview[highlighted_index]["highlighted"] = True
peak_probability = None
peak_value = None
if distribution_preview:
highlighted_preview = next(
(item for item in distribution_preview if item.get("highlighted")),
None,
)
if isinstance(highlighted_preview, dict):
peak_probability = _safe_float(highlighted_preview.get("model_probability"))
peak_value = _safe_float(highlighted_preview.get("value"))
ordered_entry_indices = sorted(
range(len(market_entries)),
key=lambda index: (
_safe_float(market_entries[index].get("bucket_temp"))
if _safe_float(market_entries[index].get("bucket_temp")) is not None
else float("inf"),
str(market_entries[index].get("target_label") or ""),
),
)
entry_order_map = {
ordered_entry_indices[position]: position
for position in range(len(ordered_entry_indices))
}
peak_entry_order = None
if peak_value is not None and ordered_entry_indices:
peak_entry_order = min(
range(len(ordered_entry_indices)),
key=lambda position: abs(
(
_safe_float(
market_entries[ordered_entry_indices[position]].get("bucket_temp")
)
if _safe_float(
market_entries[ordered_entry_indices[position]].get("bucket_temp")
)
is not None
else peak_value
)
- peak_value
),
)
raw_model_values: List[float] = []
scan_models = (scan_context or {}).get("models")
if isinstance(scan_models, dict):
for raw_value in scan_models.values():
value = _safe_float(raw_value)
if value is not None:
raw_model_values.append(value)
raw_deb_prediction = _safe_float((scan_context or {}).get("deb_prediction"))
current_reference_raw = _safe_float(
(scan_context or {}).get("current_max_so_far")
or (scan_context or {}).get("current_temp")
)
def _median(values: List[float]) -> Optional[float]:
if not values:
return None
sorted_values = sorted(values)
middle = len(sorted_values) // 2
if len(sorted_values) % 2:
return sorted_values[middle]
return (sorted_values[middle - 1] + sorted_values[middle]) / 2.0
def _build_cluster_meta(market_unit: str) -> Dict[str, Any]:
converted_values = [
self._convert_temp_to_market_unit(
value,
source_symbol=temp_symbol,
market_unit=market_unit,
)
for value in raw_model_values
]
model_values = [value for value in converted_values if value is not None]
deb_reference = self._convert_temp_to_market_unit(
raw_deb_prediction,
source_symbol=temp_symbol,
market_unit=market_unit,
)
median_value = _median(model_values)
if deb_reference is not None and median_value is not None:
center = (deb_reference + median_value) / 2.0
elif deb_reference is not None:
center = deb_reference
elif median_value is not None:
center = median_value
elif peak_value is not None:
center = peak_value
else:
center = None
unit_step = 1.8 if str(market_unit or "").upper() == "F" else 1.0
return {
"available": center is not None and bool(model_values),
"center": center,
"core_low": center - 0.75 * unit_step if center is not None else None,
"core_high": center + 1.25 * unit_step if center is not None else None,
"low_tail": center - 0.75 * unit_step if center is not None else None,
"high_tail": center + 1.75 * unit_step if center is not None else None,
"model_count": len(model_values),
"deb_reference": deb_reference,
"median": median_value,
}
def _cluster_role_for_target(
*,
target_value: Optional[float],
cluster_meta: Dict[str, Any],
) -> str:
if not cluster_meta.get("available") or target_value is None:
return "unknown"
low_tail = _safe_float(cluster_meta.get("low_tail"))
high_tail = _safe_float(cluster_meta.get("high_tail"))
core_low = _safe_float(cluster_meta.get("core_low"))
core_high = _safe_float(cluster_meta.get("core_high"))
if low_tail is not None and target_value <= low_tail:
return "low_tail"
if high_tail is not None and target_value >= high_tail:
return "high_tail"
if (
core_low is not None
and core_high is not None
and core_low < target_value <= core_high
):
return "core"
return "shoulder"
def _row_from_entry(
entry: Dict[str, Any],
side: str,
*,
entry_index: int,
) -> Optional[Dict[str, Any]]:
raw_model_event_probability = _clamp_probability(_safe_float(entry.get("model_event_probability")))
model_event_probability = raw_model_event_probability
market_event_probability = _clamp_probability(_safe_float(entry.get("market_event_probability")))
ask = _clamp_probability(_safe_float(entry.get("yes_ask") if side == "yes" else entry.get("no_ask")))
bid = _clamp_probability(_safe_float(entry.get("yes_bid") if side == "yes" else entry.get("no_bid")))
if model_event_probability is None or ask is None:
return None
market = entry["market"]
target_threshold = _safe_float(entry.get("target_threshold"))
bucket_range = entry.get("bucket_range")
market_unit = bucket_range[2] if bucket_range else ("F" if self._is_fahrenheit_symbol(temp_symbol) else "C")
cluster_meta = _build_cluster_meta(market_unit)
cluster_target = _safe_float(entry.get("bucket_temp")) or target_threshold
cluster_role = _cluster_role_for_target(
target_value=cluster_target,
cluster_meta=cluster_meta,
)
cluster_adjusted = False
if (
raw_model_event_probability is not None
and str(entry.get("market_direction") or "exact") in {"exact", "range"}
and cluster_role in {"low_tail", "high_tail"}
):
model_event_probability = _clamp_probability(raw_model_event_probability * 0.45)
cluster_adjusted = True
model_probability = (
model_event_probability
if side == "yes"
else _clamp_probability(1.0 - model_event_probability)
)
market_probability = (
market_event_probability
if side == "yes"
else _clamp_probability(1.0 - market_event_probability)
)
if model_probability is None:
return None
current_reference = self._convert_temp_to_market_unit(
current_reference_raw,
source_symbol=temp_symbol,
market_unit=market_unit,
)
gap_to_target = (
target_threshold - current_reference
if target_threshold is not None and current_reference is not None
else None
)
entry_order = entry_order_map.get(entry_index)
peak_distance = None
is_peak_candidate = False
if entry_order is not None and peak_entry_order is not None:
peak_distance = abs(entry_order - peak_entry_order)
is_peak_candidate = peak_distance <= 1
market_structure = str(entry.get("market_direction") or "exact")
is_consensus_tail_no = (
side == "no"
and market_structure in {"exact", "range"}
and cluster_role in {"low_tail", "high_tail"}
)
is_consensus_core_yes = (
side == "yes"
and market_structure in {"exact", "range"}
and cluster_role in {"core", "shoulder", "unknown"}
and (is_peak_candidate or cluster_role == "core")
)
is_directional_candidate = (
is_consensus_tail_no
or is_consensus_core_yes
or (market_structure not in {"exact", "range"} and is_peak_candidate)
)
peak_alignment_score = 0.0
if peak_distance is None:
peak_alignment_score = 0.35
elif peak_distance == 0:
peak_alignment_score = 1.0
elif peak_distance == 1:
peak_alignment_score = 0.8
else:
peak_alignment_score = max(0.0, 0.55 - 0.15 * float(peak_distance - 2))
temperature_direction = self._resolve_temperature_direction(
side=side,
market_direction=str(entry.get("market_direction") or "exact"),
target_threshold=target_threshold,
current_reference=current_reference,
)
trend_alignment = self._is_trend_aligned(
temperature_direction=temperature_direction,
trend_info=(scan_context or {}).get("trend"),
network_lead_signal=(scan_context or {}).get("network_lead_signal"),
)
edge = model_probability - ask
edge_percent = edge * 100.0
kelly_fraction = edge / (1.0 - ask) if 0.0 < ask < 1.0 else None
liquidity_reference = max(
_safe_float(
entry.get("yes_book_liquidity") if side == "yes" else entry.get("no_book_liquidity")
) or 0.0,
_safe_float(entry.get("market_liquidity")) or 0.0,
)
if liquidity_reference >= 10000:
liquidity_score = 1.0
elif liquidity_reference >= 5000:
liquidity_score = 0.8
elif liquidity_reference >= 1000:
liquidity_score = 0.6
else:
liquidity_score = 0.4
if 0.10 <= ask <= 0.90:
price_usefulness_score = 1.0
elif 0.05 <= ask < 0.10 or 0.90 < ask <= 0.95:
price_usefulness_score = 0.7
else:
price_usefulness_score = 0.0
bias_score = 0.0
if distribution_bias["available"]:
if distribution_bias_direction == "balanced" or distribution_bias_direction == temperature_direction:
bias_score = distribution_bias_score / 100.0
spread = _safe_float(entry.get("spread"))
spread_penalty = max(
0.0,
min(((spread or 0.0) - 0.01) / 0.02, 1.0),
) * 15.0
edge_score = max(0.0, min(edge_percent / 12.0, 1.0))
consensus_score = 1.0 if is_directional_candidate else 0.0
final_score = 100.0 * (
0.32 * edge_score
+ 0.25 * bias_score
+ 0.20 * float(window_meta.get("score") or 0.0)
+ 0.10 * liquidity_score
+ 0.10 * price_usefulness_score
+ 0.08 * peak_alignment_score
+ 0.12 * consensus_score
) - spread_penalty
market_slug = str(market.get("slug") or "").strip()
target_label = str(entry.get("target_label") or "").strip()
action = f"BUY {'YES' if side == 'yes' else 'NO'}"
if target_label:
action = f"{action} {target_label}"
return {
"id": f"{city_key}|{target_date}|{market_slug}|{side}",
"city": city_key,
"selected_date": target_date,
"market_slug": market_slug or None,
"market_question": market.get("question") or market.get("title"),
"market_url": self._build_market_url(market),
"side": side,
"action": action,
"market_direction": entry.get("market_direction"),
"temperature_direction": temperature_direction,
"target_label": entry.get("target_label"),
"target_value": entry.get("bucket_temp"),
"target_threshold": target_threshold,
"target_lower": bucket_range[0] if bucket_range else None,
"target_upper": bucket_range[1] if bucket_range else None,
"target_unit": market_unit,
"model_probability": model_probability,
"market_probability": market_probability,
"model_event_probability": model_event_probability,
"raw_model_event_probability": raw_model_event_probability,
"market_event_probability": market_event_probability,
"gap": (
model_event_probability - market_event_probability
if model_event_probability is not None and market_event_probability is not None
else None
),
"signed_gap": (
-1.0 * (model_event_probability - market_event_probability)
if model_event_probability is not None
and market_event_probability is not None
and entry.get("market_direction") == "below"
else (
model_event_probability - market_event_probability
if model_event_probability is not None and market_event_probability is not None
else None
)
),
"yes_token_id": entry.get("yes_token_id"),
"no_token_id": entry.get("no_token_id"),
"yes_ask": entry.get("yes_ask"),
"yes_bid": entry.get("yes_bid"),
"no_ask": entry.get("no_ask"),
"no_bid": entry.get("no_bid"),
"ask": ask,
"bid": bid,
"midpoint": entry.get("midpoint"),
"spread": spread,
"book_liquidity": _safe_float(
entry.get("yes_book_liquidity") if side == "yes" else entry.get("no_book_liquidity")
),
"market_liquidity": entry.get("market_liquidity"),
"volume": entry.get("volume"),
"quote_source": entry.get("quote_source"),
"quote_age_ms": entry.get("quote_age_ms"),
"edge": edge,
"edge_percent": edge_percent,
"kelly_fraction": kelly_fraction,
"quarter_kelly": (
max(0.0, kelly_fraction) / 4.0
if kelly_fraction is not None
else None
),
"edge_score": edge_score,
"bias_score": bias_score,
"consensus_score": consensus_score,
"window_phase": window_meta.get("phase"),
"window_score": window_meta.get("score"),
"remaining_window_minutes": window_meta.get("remaining_minutes"),
"peak_window_start": window_meta.get("peak_window_start"),
"peak_window_end": window_meta.get("peak_window_end"),
"peak_window_label": window_meta.get("peak_window_label"),
"minutes_until_peak_start": window_meta.get("minutes_until_peak_start"),
"minutes_until_peak_end": window_meta.get("minutes_until_peak_end"),
"liquidity_score": liquidity_score,
"price_usefulness_score": price_usefulness_score,
"spread_penalty": spread_penalty,
"final_score": final_score,
"distribution_bias_direction": distribution_bias_direction,
"distribution_bias_score": distribution_bias_score,
"distribution_bias_available": distribution_bias["available"],
"distribution_preview": distribution_preview[:6],
"peak_probability": peak_probability,
"peak_value": peak_value,
"peak_distance": peak_distance,
"peak_alignment_score": peak_alignment_score,
"is_peak_candidate": is_peak_candidate,
"is_directional_candidate": is_directional_candidate,
"cluster_adjusted": cluster_adjusted,
"cluster_role": cluster_role,
"cluster_center": cluster_meta.get("center"),
"cluster_core_low": cluster_meta.get("core_low"),
"cluster_core_high": cluster_meta.get("core_high"),
"cluster_model_count": cluster_meta.get("model_count"),
"cluster_deb_reference": cluster_meta.get("deb_reference"),
"cluster_median": cluster_meta.get("median"),
"current_reference": current_reference,
"gap_to_target": gap_to_target,
"touch_distance": abs(gap_to_target) if gap_to_target is not None else None,
"trend_alignment": trend_alignment,
"tradable": bool(entry["trade_state"].get("tradable")),
"active": entry["trade_state"].get("active"),
"closed": entry["trade_state"].get("closed"),
"accepting_orders": entry["trade_state"].get("accepting_orders"),
"enable_order_book": entry.get("enable_order_book"),
"is_primary_market": bool(
str(primary_market.get("slug") or "").strip().lower()
and market_slug
and str(primary_market.get("slug") or "").strip().lower() == market_slug.lower()
),
}
preliminary_rows: List[Dict[str, Any]] = []
for entry_index, entry in enumerate(market_entries):
row_yes = _row_from_entry(entry, "yes", entry_index=entry_index)
row_no = _row_from_entry(entry, "no", entry_index=entry_index)
if row_yes:
preliminary_rows.append(row_yes)
if row_no:
preliminary_rows.append(row_no)
preliminary_rows.sort(key=lambda row: float(row.get("final_score") or 0.0), reverse=True)
shortlist_market_slugs = []
seen_slugs = set()
for row in preliminary_rows:
market_slug = str(row.get("market_slug") or "").strip()
if not market_slug or market_slug in seen_slugs:
continue
seen_slugs.add(market_slug)
shortlist_market_slugs.append(market_slug)
if len(shortlist_market_slugs) >= 10:
break
shortlisted_tokens: List[str] = []
for entry in market_entries:
market_slug = str(entry["market"].get("slug") or "").strip()
if market_slug not in seen_slugs:
continue
shortlisted_tokens.extend([entry["yes_token_id"], entry["no_token_id"]])
precise_quotes = self._batch_get_token_market_data(
shortlisted_tokens,
include_books=not self.fast_price_only,
)
for entry in market_entries:
market_slug = str(entry["market"].get("slug") or "").strip()
if market_slug not in seen_slugs:
continue
yes_quote = precise_quotes.get(entry["yes_token_id"], {})
no_quote = precise_quotes.get(entry["no_token_id"], {})
if yes_quote:
entry["yes_ask"] = _extract_price(yes_quote.get("buy")) or entry.get("yes_ask")
entry["yes_bid"] = _extract_price(yes_quote.get("sell")) or entry.get("yes_bid")
entry["midpoint"] = _extract_price(yes_quote.get("midpoint")) or entry.get("midpoint")
entry["spread"] = _extract_price(yes_quote.get("spread")) or entry.get("spread")
entry["yes_book_liquidity"] = _extract_price(yes_quote.get("book_liquidity")) or entry.get("yes_book_liquidity")
entry["quote_source"] = yes_quote.get("quote_source") or entry.get("quote_source")
if no_quote:
entry["no_ask"] = _extract_price(no_quote.get("buy")) or entry.get("no_ask")
entry["no_bid"] = _extract_price(no_quote.get("sell")) or entry.get("no_bid")
entry["no_book_liquidity"] = _extract_price(no_quote.get("book_liquidity")) or entry.get("no_book_liquidity")
entry["quote_source"] = no_quote.get("quote_source") or entry.get("quote_source")
if entry.get("spread") is None and entry.get("yes_ask") is not None and entry.get("yes_bid") is not None:
entry["spread"] = max(0.0, float(entry["yes_ask"]) - float(entry["yes_bid"]))
final_rows: List[Dict[str, Any]] = []
for entry_index, entry in enumerate(market_entries):
for side in ("yes", "no"):
row = _row_from_entry(entry, side, entry_index=entry_index)
if row:
final_rows.append(row)
def _passes_hard_filters(row: Dict[str, Any]) -> bool:
ask = _safe_float(row.get("ask"))
edge_percent = _safe_float(row.get("edge_percent"))
spread = _safe_float(row.get("spread"))
liquidity = max(
_safe_float(row.get("book_liquidity")) or 0.0,
_safe_float(row.get("market_liquidity")) or 0.0,
)
if ask is None or edge_percent is None:
return False
if not row.get("tradable") or row.get("accepting_orders") is False:
return False
if row.get("enable_order_book") is False:
return False
if ask < filters["min_price"] or ask > filters["max_price"]:
return False
if edge_percent < filters["min_edge_pct"]:
return False
side = str(row.get("side") or "").lower()
market_direction = str(row.get("market_direction") or "").lower()
if (
side == "no"
and market_direction in {"exact", "range"}
and ask >= 0.80
and edge_percent < 10.0
and not (row.get("cluster_adjusted") and row.get("is_directional_candidate"))
):
return False
if spread is None or spread > filters["max_spread"]:
return False
if liquidity < filters["min_liquidity"]:
return False
return True
def _passes_mode_filters(row: Dict[str, Any]) -> bool:
scan_mode = filters["scan_mode"]
if scan_mode == "tradable":
return (
float(row.get("window_score") or 0.0) >= 0.65
and bool(row.get("is_directional_candidate"))
)
if scan_mode == "early":
return str(row.get("window_phase") or "") in {"tomorrow", "week_ahead", "early_today"}
if scan_mode == "touch":
return (
bool(window_meta.get("same_day"))
and str(row.get("window_phase") or "") in {"setup_today", "active_peak"}
and (_safe_float(row.get("touch_distance")) is not None)
and float(row.get("touch_distance")) <= 2.0
)
if scan_mode == "trend":
return bool(row.get("trend_alignment"))
return True
filtered_rows = [
row
for row in final_rows
if _passes_hard_filters(row) and _passes_mode_filters(row)
]
filtered_rows.sort(
key=lambda row: (
1.0 if bool(row.get("is_directional_candidate")) else 0.0,
1.0 if bool(row.get("is_peak_candidate")) else 0.0,
float(row.get("final_score") or 0.0),
float(row.get("edge_percent") or 0.0),
),
reverse=True,
)
primary_signal = filtered_rows[0] if filtered_rows else None
signal_status = "ready" if primary_signal else "no_signal"
return {
"rows": filtered_rows[: filters["limit"]],
"distribution_bias": distribution_bias,
"primary_signal": primary_signal,
"signal_status": signal_status,
"candidate_count": len(filtered_rows),
"window_phase": window_meta.get("phase"),
"window_score": window_meta.get("score"),
"distribution_preview": distribution_preview[:6],
"distribution_full": distribution_preview,
"resolved_market_type": "maxtemp",
}