GridGenius – AI-Powered Energy Optimization
Energy Demand Forecasting Using Machine Learning
- Develop a machine learning model for forecasting urban energy demand using custom-extracted data.
- Optimize energy supply, minimize wastage, and enhance operational efficiency.
- Deploy the forecasting model via a web interface with an integrated LLM for intelligent insights.
- Inefficient energy management leads to wastage and higher costs.
- The inability to accurately predict demand causes supply-demand mismatches.
- The need for a scalable and interpretable ML-based forecasting solution.
- Accurate energy demand predictions to aid utility providers.
- Reduction in operational costs and carbon footprint.
- A web-based platform providing actionable insights with an LLM-powered interface.
- Custom dataset extracted from: BPDB Daily Generation Archive
Feature | Description |
---|---|
Date | Daily record date |
Day Probable Peak | Predicted peak generation for the day |
Evening Probable Peak | Predicted peak generation for the evening |
Actual Demand | Real energy consumption for the day |
Environmental Factors | Temperature, Humidity, Weather Conditions |
- Automate extraction of daily reports using web scraping.
- Preprocess data to remove inconsistencies.
- Store structured data for model training.
- Data Collection: Web scraping and processing from BPDB.
- Data Preprocessing: Handling missing values. Feature engineering (time-based trends, weather impact).
- Exploratory Data Analysis (EDA): Visualization of seasonal trends. Correlation analysis.
- Model Selection and Training: Evaluate traditional and advanced ML models.
- Model Evaluation: Metrics: RMSE, MAPE, MAE.
- Deployment: Web application for forecasting and visualization. Integration with LLM for analytical insights.
Category: Time Series Forecasting
Goal: Predict future energy demand based on historical consumption and environmental factors.
Evaluation Metrics:
- Root Mean Square Error (RMSE)
- Mean Absolute Percentage Error (MAPE)
- Mean Absolute Error (MAE)
- Data Collection Layer: Scraper to extract reports from BPDB.
- Processing Layer: Preprocessing, feature extraction.
- Model Layer: ML models (LSTM, ARIMA, XGBoost, etc.).
- Web Interface Layer: Flask/Django backend with a React frontend.
- LLM Integration: Assist users with querying and insights.
Component | Technology Choices |
---|---|
Data Collection | Python (BeautifulSoup, Requests) |
Data Processing | Pandas, NumPy |
Model Training | Scikit-learn, TensorFlow, XGBoost |
Web Framework | Flask / Django |
Frontend | React.js |
Database | PostgreSQL / SQLite |
Deployment | AWS/GCP/Azure, Docker, CI/CD pipelines |
- Real-Time Prediction & Visualization: Interactive web dashboard with live updates.
- LLM-Powered Insights: Users can interact with an AI assistant to query predictions and trends.
- Scalability: The model can be extended to other cities with minimal adaptation.
-
"Energy Demand Forecasting Using Machine Learning Perspective Bangladesh"
- Avijit Paul Piyal et al., DOI: 10.1109/GlobConHT56829.2023.10087679
-
"Short-Term Electrical Load Prediction for Future Generation Using Hybrid Deep Learning Model"
- S. M. Anowarul Haque Sonet et al., DOI: 10.1109/ICAEEE54957.2022.9836359
This project will be developed by:
Star the repo if you wanna support more projects like this!