AI-based energy consumption forecasting system

Status:
Completed
Duration:
4 months
Service:
AI/ML system development
Integrations:
LightGBM and Python-based infrastructure, integrated with meteorological data sources and energy APIs
Project Objective
Build an advanced ML model that uses historical energy consumption data, weather conditions, customer segmentation, and contextual factors — such as air raid alerts — to produce highly accurate monthly forecasts with confidence scores for over 700 electricity consumers
Client
Ukrainian energy company (under NDA)
Location:
Kyiv, Ukraine
Project Goal
Minimize financial losses from inaccurate energy consumption forecasting by increasing prediction accuracy from 45–50% MAPE to under 30% and introducing a comprehensive forecast risk evaluation system
More than 40 engineered features
Resilience in wartime conditions
Seasonal trend adaptation
Automatic anomaly detection
Hybrid recognition approach with accuracy assessment
Features
High prediction accuracy
Forecasting accuracy improved from 45–50% MAPE to 29.9% thanks to gradient boosting techniques and advanced feature engineering
Prediction uncertainty estimation
Confidence scores between 0.1 and 0.9 enable automatic detection of high-risk forecasts, ensuring that expert review is prioritized for the most uncertain predictions
Adaptation to the Ukrainian context
The system incorporates the influence of air raid alerts into forecasts, with special consideration for educational facilities and industrial energy consumers
Category-based segmentation
The model incorporates the unique profiles of 26 consumer categories — from educational institutions to industrial facilities — ensuring more accurate and context-aware energy forecasts
Equipment
LightGBM framework, Python ML stack, meteorological APIs, and energy data platforms
Equipment
Every project is powered by the latest in technological innovation
Results
We built an AI-driven forecasting system that reduced prediction error from 45–50% MAPE to 29.9%. The model automatically processes 65% of forecasts with high confidence and routes 35% for expert validation. This improvement enables a 15–20% reduction in imbalance penalty costs
Automated processing of 65% of forecasts.
May 2025 – September 2025
Result BEFORE
Result AFTER
Expert processing:
8 hours
Результат ПІСЛЯ
Expert processing:
2.8 hours
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