Sep 2026· Big Data and Cognitive Computing· Vol 10, pp. 297· 0 citations· 65 references
Electricity Theft Detection Techniques
TL;DR
This paper aims to analyze the landscape of energy theft detection by providing a systematic analysis of the state-of-the-art manuscripts in the form of a tertiary study in accordance with the PRISMA methodology guidelines.
Abstract
Electrical energy theft presents a serious and significant challenge for utility companies worldwide. It poses substantial risks to energy infrastructure, reduces efficiency, and destabilizes distribution networks. The introduction of the Advanced Metering Infrastructure (AMI) in the last decade has significantly boosted the development of new methods and techniques for detecting electrical energy theft. This advancement is primarily due to the availability of electric consumption and other data with greater granularity (e.g., every 15 min), which has enabled the development of analytic and data-driven approaches as opposed to mass inspections alone. In this context, this paper aims to analyze the landscape of energy theft detection by providing a systematic analysis of the state-of-the-art manuscripts in the form of a tertiary study (i.e., a review of literature reviews and surveys) in accordance with the PRISMA methodology guidelines. Consequently, a comparative framework is presented, along with well-formulated research questions designed to explore the past, present, and future directions of energy theft detection.
A literature review of Machine Learning applications in the domain of Electricity Theft Detection (ETD) that is grounded in 71 scholarly studies produced between 2021 and 2026 and selected according to criteria of machine learning application in the process of theft/NTL detection and accompanying empirical validation.
Oladipupo Olatunji, Victor Edibo, Olumide Alamu· Journal of Science Research...· 0 citations
A lifecycle-aligned deployment framework and a layered detection architecture are proposed, offering practitioners a structured pathway from early AMI rollout through to advanced smart grid deployment, and indicating that the proposed layered architecture can improve inspection productivity by roughly an order of magni...
O. Apata, Mukovhe Ratshitanga, I. Davidson· Energies· 0 citations
Energy theft represents a major challenge for electricity distribution companies worldwide and constitutes a key component of non-technical losses (NTLs), alongside faulty meters and billing inaccuracies. Despite the rise of artificial intelligence techniques for electricity theft detection, existing approaches exhibit...
E. Mouckomey, Jacques Bikai, Camille Franklin Mbey et al.· International Journal of Adv...· 0 citations
Small current grounding faults pose persistent challenges in power systems due to their low-magnitude signatures and the complexity of timely, accurate detection. While deep learning methods have recently gained attention, traditional time-series and statistical techniques remain foundational in industrial applications...
Eric Obeng Akese Danso, Rathnayaka Pathiranage Ravindi Kawushini, Tchepseu Pateng Uriche Cabrel et al.· 2026 6th Power System and Gr...· 0 citations
The feedback processes to reduce the estimation discrepancy in NILM are discussed and a closed-loop learning approach is proposed that may significantly improve the accuracy of NILM, and it is applicable for practical applications.
Li-Ping Chen, Zhao-Yu Wen, Cen Li et al.· Electrical Engineering· 0 citations
One of the biggest challenges in modern day electrical power distribution systems is high impedance faults
(HIFs). They are usually caused by a conductor touching a high resistance area like vegetation, tree branches or ground. The
nonlinearity of a HIF, its random and asymmetric nature and its comparatively small ma...
A. Ameen, Mahmood T. Alkhayyat· International journal of ele...· 0 citations
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