Sep 2026· Journal of Science Research and Reviews· 0 citations· 6 references
Electricity Theft Detection Techniques
TL;DR
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.
Abstract
The implementation of Advanced Metering Infrastructure (AMI) in smart grid environments has led to a paradigm shift in energy consumption management by means of high-throughput bi-directional communication. Unfortunately, the adoption of AMI is associated with growing Non-Technical Losses (NTL) such as electricity theft, estimated at global losses exceeding $96 billion a year, threatening the stability and resilience of electricity grids. As a response to the emerging challenge, traditional NTL detection, based on periodic field audits and threshold-based inspections, has been proven to be ineffective in addressing stochastic and increasingly intelligent cyber-physical manipulations. Hence, this paper provides 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. Out of those, 44 primary research works have been organized into tabulation and contrasted with regard to eight distinct categories of methods including classical ML, deep learning, hybrid and reinforcement and federated learning techniques. The comparative evidence reveals that the hybrid and stacked architectures provide the best detection performance whereas federated designs typically sacrifice their maximum accuracy in favor of better privacy and deployability. Challenges in assessing the comparative gains are discussed, and it is revealed that benchmarked datasets are scarce and inconsistent as well as only 9 of 44 studies included in the table reported their false positive rates that determine audit expenses.
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
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Among the various forms of non-technical losses plaguing power distribution networks, electricity theft stands out as particularly damaging draining utility revenues and undermining grid stability, with the worst effects felt in developing countries where oversight infrastructure is weak. Smart meter data opens a pract...
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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...
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Assistant Professor Benjamin Lindquist studies how engineers deliberately injected randomness into early AI, giving rise to deep-learning models that sometimes hallucinate.