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husseinnsanzi/Electricity-Theft-Detection-System

Domain:

environment and energy

Record type:

software
Creator:
hus
Host:
Machine learning system that detects electricity theft from smart-meter consumption data to support revenue protection and grid reliability, with a focus on Rwanda's power network. # ⚡ Electricity Theft Detection System A machine-learning system that flags suspicious electricity-consumption patterns from smart-meter data, framed as a **grid-reliability** problem — built with Rwanda's power network in mind. **🔗 Live demo:** electricity-theft-detection… --- ## The problem Electricity theft (non-technical loss) is unmetered consumption: power flows from the grid, but the utility never records or bills it. Beyond lost revenue, this is an engineering problem. Unmetered load is **hidden demand** the system operator cannot see, which distorts demand forecasting, overloads transformers and distribution lines, increases technical losses, and — when hidden demand climbs unnoticed — adds stress that can push a strained grid toward instability or load shedding. This project detects theft early so a utility (such as Rwanda Energy Group and its subsidiaries) can protect revenue **and** improve grid reliability. ## Dataset The SGCC dataset released by the State Grid Corporation of China: **42,372 customers**, **1,035 days** of daily kWh readings (Jan 2014 – Oct 2016). It is realistically hard — about **8.5%** of customers are thieves (heavy class imbalance) and roughly **25%** of readings are missing. ## Approach 1. **Cleaning** — missing daily readings are reconstructed per customer by interpolation, with any remaining gaps filled with zero. 2. **Feature engineering** — each customer's 1,034 daily readings are compressed into 15 interpretable behavioural features (mean, variability, zero-day ratio, low-usage ratio, coefficient of variation, skew, biggest single-day drop, etc.), each grounded in real power-system reasoning. 3. **Modelling** — a Random Forest baseline exposed the imbalance trap (91% accuracy while catching only 5% of thieves); class weighting alone was insufficient; the final model is **XGBoost with `scale_pos_weight`** to handle the imbalance. 4. **Honest evaluation** — because the …

Visit

github.com

Licenses

MIT