# 🌡️ PolyWeather: Intelligent Weather Quant Analysis Bot PolyWeather is a weather analysis tool built for prediction markets like **Polymarket**. It aggregates multi-source forecasts, real-time airport METAR observations, a math-based probability engine, and AI-driven decision support to help users evaluate weather trading risks more scientifically.

PolyWeather Demo - Ankara Live Analysis
📊 Live query: DEB Blended Forecast + Settlement Probability + Groq AI Decision

--- ## ✨ Core Features ### 1. 🧬 Dynamic Ensemble Blending (DEB Algorithm) The system automatically tracks the historical performance of weather models (ECMWF, GFS, ICON, GEM, JMA) per city: - **Error-Based Weighting**: Dynamically adjusts model weights based on their Mean Absolute Error (MAE) over the past 7 days. Lower error = higher weight. - **Blended Forecast**: Provides a bias-corrected "DEB Blended High Temperature" recommendation. - **Self-Learning**: Requires at least 2 days of observations before activating weight differentiation. Uses equal-weight averaging during cold start. - **Accuracy Tracking**: Use the `/deb` command to view DEB's historical WU settlement hit rate and MAE, compared against individual models. - **Auto-Cleanup**: Only retains the last 14 days of records to prevent unbounded data growth. ### 2. 🎲 Math Probability Engine (Settlement Probability) Automatically computes the probability for each possible WU settlement integer using a Gaussian distribution fitted to the ensemble forecast: - **Distribution Center μ**: Weighted average of DEB/multi-model median (70%) and ensemble median (30%). Auto-corrects upward when actual METAR max exceeds μ and is still rising. - **Standard Deviation σ**: Derived from the 51-member ensemble P10/P90 (σ = (P90-P10) / 2.56). - **Time Decay**: σ dynamically narrows based on the current time relative to the predicted peak window: - Before peak: σ × 1.0 (maximum uncertainty) - During peak window: σ × 0.7 (settling) - After peak: σ × 0.3 (outcome mostly determined) - **Observed Floor**: Temperatures below the current METAR max WU value are automatically excluded (can't go back down). - **Interval Integration**: Integrates over each WU rounding interval [N-0.5, N+0.5) to compute the probability of settling at integer N. - **Display**: `🎲 Settlement Probability (μ=3.7): 4°C [3.5~4.5) 68% | 3°C [2.5~3.5) 32%` ### 3. 🤖 AI Deep Analysis (Groq LLaMA 3.3 70B) Feeds wind speed, wind direction, cloud cover, solar radiation, and METAR trend data into LLaMA 70B: - **Logical Reasoning**: 2-3 sentences analyzing airport dynamics, explicitly referencing Open-Meteo forecast and DEB blended values as benchmarks. - **Time Awareness**: Analysis considers how much time remains until the predicted peak, judging remaining warming potential. - **Market Call**: Explicitly states the expected peak time window and specific temperature betting range. Calls "dead market" when cooling is confirmed. - **Confidence Score**: Quantitative 1-10 confidence rating. - **High Availability**: Built-in auto-retry + fallback model degradation (70B → 8B) to withstand Groq API 500/503 outages. ### 4. ⏱️ Real-time Airport Observations (Zero-Cache METAR) - **Precise Timing**: Extracts actual observation time from raw METAR text (`rawOb`), not the API's rounded `reportTime`. Accurate to the minute. - **Live Passthrough**: Bypasses CDN caching via dynamic headers to obtain first-hand METAR reports. - **Settlement Warning**: Automatically calculates the Wunderground settlement boundary (X.5 rounding line). - **Anomaly Filtering**: Automatically filters out -9999 sentinel values from sources like MGM to prevent garbage data in output. ### 5. 📈 Historical Data Collection - Includes `fetch_history.py` to retrieve up to 3 years of hourly historical weather data (temperature, humidity, radiation, pressure, 10+ dimensions), providing data foundation for future ML models (XGBoost/MOS). --- ## ⚡ Deployment ### Requirements - **Python 3.11+** - Install dependencies: `pip install -r requirements.txt` - **Environment Variables**: Set `TELEGRAM_BOT_TOKEN` and `GROQ_API_KEY` in your `.env` file. ### VPS Quick Deployment 1. Clone the repository and install dependencies. 2. Configure your `.env` file. 3. Use the following script for one-click updates and restarts: ```bash cat > ~/update.sh << 'EOF' #!/bin/bash cd ~/PolyWeather git fetch origin git reset --hard origin/main pkill -f bot_listener.py sleep 1 nohup python3 bot_listener.py > bot.log 2>&1 & echo "✅ PolyWeather Restarted!" EOF chmod +x ~/update.sh ``` --- ## 🕹️ Bot Commands | Command | Description | | :------------------ | :------------------------------------------------------------------------------- | | `/city [city_name]` | Get weather analysis, settlement probabilities, METAR tracking, and AI insights. | | `/deb [city_name]` | View DEB blended forecast accuracy (WU hit rate, MAE) and model comparison. | | `/id` | View the Chat ID of the current conversation. | | `/help` | Display help information. | ### Supported Cities `lon` (London), `par` (Paris), `ank` (Ankara), `nyc` (New York), `chi` (Chicago), `dal` (Dallas), `mia` (Miami), `atl` (Atlanta), `sea` (Seattle), `tor` (Toronto), `sel` (Seoul), `ba` (Buenos Aires), `wel` (Wellington), etc. --- ## 🏗️ Architecture ```mermaid graph TD User[User] -->|Query Command| Bot[bot_listener.py Core Scheduler] subgraph Data Acquisition Bot --> Collector[WeatherDataCollector] Collector --> OM[Open-Meteo Forecast/Ensemble] Collector --> MM[Multi-Model ECMWF/GFS/ICON/GEM/JMA] Collector --> METAR["Live Airport METAR (rawOb precise time)"] end subgraph Algorithm Layer Collector --> Peak[Peak Hour Prediction] Collector --> DEB[DEB Dynamic Weighting] DEB --> DB[(daily_records Database)] Peak --> Prob[Gaussian Probability Engine] Collector --> Prob Collector --> Logic[Settlement Boundary / Trend Analysis] end subgraph AI Decision Layer DEB --> AI[Groq LLaMA 70B] Prob --> AI Logic --> AI METAR --> AI end AI -->|Market Call + Logic + Confidence| Bot Bot -->|DEB Blend + Probability + AI Analysis| User ``` --- ## 💡 Trading Tips 1. **Watch Settlement Probability**: The probability engine is math-based and more objective than AI judgment. When one temperature has > 65% probability, the direction is relatively clear. 2. **Observe Time Decay**: Probabilities auto-lock as time progresses. After peak hours, the engine narrows σ dramatically, concentrating results around the observed max. 3. **Reference DEB Blended Value**: When models diverge, the DEB corrected value is usually more reliable than any single forecast. 4. **Observe AI Confidence**: A score below 5 indicates high uncertainty—consider staying on the sidelines. 5. **Watch Settlement Boundaries**: When the observed high is near X.5, be wary of rounding jumps during WU settlements. 6. **Distribution Center μ**: The μ value shown in the probability display represents the algorithm's expected most likely actual high temperature—compare it directly with the Polymarket odds. --- _Updated 2026-03-01_