Possibilistic–Probabilistic Consumer Participation Modelling and Cybersecure Demand Response Enabled by Convolutional–Bidirectional Long Short-Term Memory Forecasting
Faezeh Gholipour Zarandi, Fahimeh Ghasemian, Amir Abdollahi
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引用次数: 0
Abstract
Demand response programmes (DRPs) increasingly rely on accurate load forecasting, realistic modelling of consumer participation, and strong resilience against data manipulation. This paper presents an integrated cyber-secure DRP design framework that jointly addresses these requirements. A hybrid convolutional–bidirectional long short-term memory (CB-LSTM) model is first employed to predict consumption behaviour with improved accuracy, supporting consumer categorisation into low-, medium-, and high-usage groups. Building on these predictions, a comprehensive DRP portfolio incorporating TOU and DLC-based schemes is dynamically assigned to each category. To capture behavioural uncertainty, consumer participation is modelled using a Z-number possibilistic–probabilistic formulation, enabling more reliable estimation of engagement levels and enhancing the fairness of DRP allocation. A key contribution of this study is the introduction of a CB-LSTM-assisted deviation bound-based detection/correction (CBLADBDC) mechanism to mitigate false data injection (FDI) attacks. The proposed method exhibits strong detection capability, achieving a 98.0% recall and maintaining a low false positive rate of 1.1%, thereby preserving the integrity of load profiles and preventing unnecessary incentive payments. Simulation results demonstrate that the integrated framework reduces peak demand by 24%–27% while maintaining cost-efficient DRP performance.