Issue Overview
This issue focuses on implementing predictive analysis techniques to forecast accident trends, severity, and risk factors using machine learning models.
1. Accident Severity Prediction (Classification)
Goal: Predict whether an accident will be low, medium, or high severity based on weather, road conditions, and vehicles involved.
✅ Features:
- Weather Condition
- Road Condition
- Vehicles Involved
- Time of Accident
✅ ML Models:
- Logistic Regression (Binary classification: Severe vs. Non-severe)
- Random Forest Classifier (Multi-class classification)
- XGBoost Classifier (Boosted decision trees for better accuracy)
🔹 Example Output:
- Given rainy weather, wet road, and 3 vehicles involved, the model may predict high severity with 80% probability.
2. Accident Count Prediction (Regression)
Goal: Predict the expected number of accidents in a particular location.
✅ Features:
- Location
- Time of Year
- Traffic Volume (if available)
✅ ML Models:
- Linear Regression (Simple trend analysis)
- Random Forest Regression (Handles non-linear patterns)
- Time Series Analysis (ARIMA, LSTM)
🔹 Example Output:
- New York is expected to have 200 accidents next month, based on historical data.
3. High-Risk Time Prediction (Time Series Forecasting)
Goal: Predict the most dangerous time of day/week for accidents.
✅ Features:
- Time of Accident
- Day of Week
- Weather Condition
✅ ML Models:
- Time Series Forecasting (ARIMA, LSTM)
- Seasonal Trend Analysis
🔹 Example Output:
- Most accidents in Los Angeles happen on Friday nights between 6 PM - 10 PM.
4. Impact of Weather on Accident Rates (Hypothesis Testing)
Goal: Test whether weather conditions significantly increase accident risks.
✅ Statistical Methods:
- T-test: Compare accident rates between clear vs. rainy weather
- ANOVA: Compare accident severity across multiple weather conditions
🔹 Example Hypothesis:
- H0 (Null Hypothesis): Weather does NOT impact accident severity.
- H1 (Alternative Hypothesis): Rain increases accident severity.
5. Identifying High-Risk Locations (Geospatial Prediction)
Goal: Predict accident hotspots based on past accident locations.
✅ Features:
- Latitude & Longitude
- Road Type (Highway, City Road, Rural Road)
- Speed Limits (if available)
✅ ML Models:
- K-Means Clustering (for hotspot detection)
- Geospatial Heatmaps (for visualization)
🔹 Example Output:
- The most dangerous intersections in London are X, Y, and Z.
6. Predicting the Main Cause of Future Accidents (Classification)
Goal: Predict the most likely cause of an accident (e.g., Speeding, Drunk Driving, Distracted Driving).
✅ Features:
- Time of Day
- Weather Condition
- Road Condition
- Casualties & Vehicles Involved
✅ ML Models:
- Decision Trees (Feature importance analysis)
- Random Forest Classifier
🔹 Example Output:
- Accidents on Saturday nights are 70% more likely due to Drunk Driving.
Issue Overview
This issue focuses on implementing predictive analysis techniques to forecast accident trends, severity, and risk factors using machine learning models.
1. Accident Severity Prediction (Classification)
Goal: Predict whether an accident will be low, medium, or high severity based on weather, road conditions, and vehicles involved.
✅ Features:
✅ ML Models:
🔹 Example Output:
2. Accident Count Prediction (Regression)
Goal: Predict the expected number of accidents in a particular location.
✅ Features:
✅ ML Models:
🔹 Example Output:
3. High-Risk Time Prediction (Time Series Forecasting)
Goal: Predict the most dangerous time of day/week for accidents.
✅ Features:
✅ ML Models:
🔹 Example Output:
4. Impact of Weather on Accident Rates (Hypothesis Testing)
Goal: Test whether weather conditions significantly increase accident risks.
✅ Statistical Methods:
🔹 Example Hypothesis:
5. Identifying High-Risk Locations (Geospatial Prediction)
Goal: Predict accident hotspots based on past accident locations.
✅ Features:
✅ ML Models:
🔹 Example Output:
6. Predicting the Main Cause of Future Accidents (Classification)
Goal: Predict the most likely cause of an accident (e.g., Speeding, Drunk Driving, Distracted Driving).
✅ Features:
✅ ML Models:
🔹 Example Output: