A Flow-Based Model for Conditional and Probabilistic Electricity Consumption Profile Generation and Prediction

📅 2024-05-03
🏛️ arXiv.org
📈 Citations: 3
Influential: 0
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🤖 AI Summary
To address the need for conditional and unconditional generation and probabilistic forecasting of residential load profiles (RLPs) in low-carbon distribution networks, this paper proposes the Fully Convolutional Probability Flow (FCPFlow) model. Methodologically, FCPFlow introduces invertible linear and normalization layers, enabling end-to-end embedding of continuous conditioning variables—such as temperature and annual electricity consumption—for the first time. This design ensures strong cross-dataset generalization while effectively capturing complex temporal dependencies. Leveraging an invertible neural network architecture, FCPFlow provides exact probability density estimation, supporting uncertainty-aware, high-fidelity load generation and forecasting. Evaluated on multiple real-world residential load datasets, FCPFlow consistently outperforms conventional statistical methods and state-of-the-art deep generative models. Its interpretability, scalability, and probabilistic rigor make it a practical tool for distribution system planning and operation under increasing decarbonization pressures.

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📝 Abstract
Residential Load Profile (RLP) generation and prediction are critical for the operation and planning of distribution networks, especially as diverse low-carbon technologies (e.g., photovoltaic and electric vehicles) are increasingly adopted. This paper introduces a novel flow-based generative model, termed Full Convolutional Profile Flow (FCPFlow), which is uniquely designed for both conditional and unconditional RLP generation, and for probabilistic load forecasting. By introducing two new layers--the invertible linear layer and the invertible normalization layer--the proposed FCPFlow architecture shows three main advantages compared to traditional statistical and contemporary deep generative models: 1) it is well-suited for RLP generation under continuous conditions, such as varying weather and annual electricity consumption, 2) it demonstrates superior scalability in different datasets compared to traditional statistical models, and 3) it also demonstrates better modeling capabilities in capturing the complex correlation of RLPs compared with deep generative models.
Problem

Research questions and friction points this paper is trying to address.

Generates residential electricity consumption profiles under varying conditions
Predicts probabilistic load forecasts for distribution network planning
Models complex correlations in load data using deep generative architecture
Innovation

Methods, ideas, or system contributions that make the work stand out.

Flow-based generative model for electricity consumption profiles
Introduces invertible linear and normalization layers
Enables conditional generation and probabilistic load forecasting
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