A Multi-Objective Generation Expansion Planning with Modeling Load Demand Uncertainty by a Deep Learning- Based Approach

Farzin Ghasemi Olanlari, Saleh Sadeghi Gougheri, Amirhossein Nikoofard
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Abstract

In recent years, with population rise and electrification of the transportation fleet, the need for electricity demand has grown, which increased the importance of Generation expansion planning (GEP). Most of the literature investigated GEP by considering one objective function (minimizing the cost), whereas other objectives also have a high priority. For this reason, in this paper, a multi-objective GEP with aims of minimizing cost, minimizing emission, maximizing reliability, and flexibility is presented. GEP studies' foundation is based on the amount of annual peak load demand, which shows the superiority of considering load uncertainty in GEP studies. We used a deep learning method based on long short-term memory (LSTM) networks, which have a high ability in the time series forecasting for modeling load uncertainty. The optimization problem is also considered as a mixed-integer linear programming (MILP) that guarantees the optimal global solution. The forecasted peak load for the year 2020 as a test day shows the deep LSTM network's robustness for annual peak load forecasting (5.23% error with real data).
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基于深度学习的负荷需求不确定性建模的多目标发电扩展规划
近年来,随着人口的增长和交通车队的电气化,对电力需求的需求不断增长,这增加了发电扩展规划(GEP)的重要性。大多数文献通过考虑一个目标函数(最小化成本)来研究GEP,而其他目标也具有高优先级。为此,本文提出了一种以成本最小化、排放最小化、可靠性最大化和灵活性最大化为目标的多目标全球环境规划。GEP研究的基础是基于年峰值负荷需求量,这表明在GEP研究中考虑负荷不确定性的优越性。我们使用了一种基于长短期记忆(LSTM)网络的深度学习方法,该方法在模拟负荷不确定性的时间序列预测中具有很高的能力。该优化问题也被认为是保证全局最优解的混合整数线性规划问题。以2020年的峰值负荷预测作为测试日,深度LSTM网络对年度峰值负荷预测具有鲁棒性(与实际数据误差5.23%)。
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