AI-Optimized Energy Consumption Forecasting System

Duration: Jan 2024 - Apr 2024
Status: Completed

Key Metrics

0.038
kWh MAE
99.98%
R² Score
1M+
Records Analyzed
95%
MAE Improvement

Project Overview

Developed a machine learning regression model on 1M+ household power consumption records from 2006-2010 achieving 0.038 kWh Mean Absolute Error for real-time energy forecasting. The system analyzes historical consumption patterns including global active power, reactive power, voltage and sub-metering data to predict future energy usage.

Performed extensive feature engineering and exploratory data analysis using Python with pandas and scikit-learn to identify peak consumption patterns crucial for grid optimization. The Linear Regression model achieved an exceptional 99.98% R² score with 95% improvement in MAE, demonstrating highly accurate predictions for household power consumption enabling optimized grid management and cost reduction.

Core Algorithm

1 Load 1M+ household power consumption records from CSV dataset
2 Clean data by replacing missing values and removing 4,069 null entries
3 Extract temporal features (hour, day, month) from datetime columns
4 Apply StandardScaler normalization to numerical features
5 Train Linear Regression model on 80% training data split
6 Evaluate model performance using MAE, RMSE, and R² metrics
7 Generate predictions and visualize residuals for validation

Technologies Used

Python Pandas NumPy scikit-learn Matplotlib Seaborn Linear Regression

Technical Implementation

Key Features

Challenges & Solutions

Results & Impact

The model achieved exceptional performance with 0.038 kWh Mean Absolute Error and 99.98% R² score, demonstrating highly accurate predictions for household energy consumption. The 95% improvement in MAE compared to baseline models indicates significant advancement in forecasting accuracy.

Identified critical insights including peak consumption periods (morning 8-9 AM and evening 8-9 PM) and seasonal patterns essential for grid optimization. The analysis revealed strong correlations between global active power, voltage and current consumption, enabling utility providers to make data-driven decisions for efficient energy distribution and load management.