Energy — Machine Learning Model Deployment for Real-Time Predictions
FreeThis DAG facilitates the deployment of machine learning models for real-time energy predictions. It includes monitoring mechanisms to track model performance and identify potential biases or drifts.
Overview
The primary purpose of this DAG is to manage the deployment of machine learning models within the energy sector, enabling real-time predictions that enhance operational efficiency and decision-making. The architecture begins with the ingestion of diverse data sources, including historical energy consumption data, sensor data from smart meters, and external weather forecasts. These inputs are processed through a series of steps that include data validation, feature extraction, and model inference
The primary purpose of this DAG is to manage the deployment of machine learning models within the energy sector, enabling real-time predictions that enhance operational efficiency and decision-making. The architecture begins with the ingestion of diverse data sources, including historical energy consumption data, sensor data from smart meters, and external weather forecasts. These inputs are processed through a series of steps that include data validation, feature extraction, and model inference. Quality controls are implemented to ensure data integrity and model accuracy, allowing for the identification of any anomalies or biases in predictions. The output of this DAG consists of real-time prediction results, performance metrics, and alerts for any detected model drifts. Monitoring key performance indicators (KPIs) such as prediction accuracy, latency, and model drift frequency ensures that stakeholders have visibility into the model's performance. This real-time monitoring capability not only enhances compliance with governance standards but also provides actionable insights that drive business value by optimizing energy distribution and reducing costs.
Part of the Governance & Compliance solution for the Energy industry.
Use cases
- Improved accuracy in energy demand forecasting.
- Enhanced compliance with industry regulations.
- Reduced operational costs through optimized resource allocation.
- Increased agility in responding to market changes.
- Strengthened decision-making capabilities with data-driven insights.
Technical Specifications
Inputs
- • Historical energy consumption data
- • Sensor data from smart meters
- • External weather forecast data
- • Market demand trends
- • Regulatory compliance data
Outputs
- • Real-time energy consumption predictions
- • Performance metrics for deployed models
- • Alerts for model drift
- • Detailed reports on prediction accuracy
- • Compliance documentation for governance
Processing Steps
- 1. Ingest historical energy consumption data
- 2. Collect sensor data from smart meters
- 3. Integrate external weather forecasts
- 4. Validate and preprocess input data
- 5. Execute model inference for predictions
- 6. Monitor model performance and detect drift
- 7. Generate output reports and alerts
Additional Information
DAG ID
WK-0937
Last Updated
2025-09-08
Downloads
115