Noman Khan, Samee Ullah Khan, Ahmed Farouk, Sung Wook Baik
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The raw power data obtained from buildings and RESs-based power plants are conceded by the purging process where absent values are filled in and noise and outliers are eliminated. Next, the proposed generative adversarial network (GAN) uses a portion of the cleaned data to generate synthetic parallel data, which is combined with the actual data to make a hybrid dataset. Subsequently, the stacked gated recurrent unit (GRU) model, which is optimized for power forecasting, is trained using the hybrid dataset. Six existent power data are used to train and test sixteen linear and nonlinear models for energy forecasting. The best-performing network is selected as the proposed method for forecasting tasks. For Korea Yeongam solar power (KYSP), individual household electric power consumption (IHEPC), and advanced institute of convergence technology (AICT) datasets, the proposed model obtains mean absolute error (MAE) values of 0.0716, 0.0819, and 0.0877, respectively. 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引用次数: 0
摘要
全球人口增长、城市化、技术进步、经济发展以及企业和商业部门的增长等因素导致了电力消耗(PC)的增加。如今,间歇性可再生能源(RES)被广泛应用于电网,以满足电力需求。数据驱动技术对于确保电网稳定运行、准确预测用电量和发电量至关重要。相反,能源行业中用于时间序列电力预测的可用数据集不如计算机视觉等其他领域的数据集大。因此,我们引入了一个深度学习(DL)框架,用于预测住宅和商业建筑的 PC 以及可再生能源的发电量(PG)。从建筑物和基于可再生能源的发电厂获得的原始电力数据会经过净化过程,其中缺失的值会被填补,噪声和异常值会被消除。接下来,建议的生成式对抗网络(GAN)使用部分净化数据生成合成并行数据,并将其与实际数据相结合,形成混合数据集。随后,使用混合数据集训练针对电力预测进行了优化的叠加门控递归单元(GRU)模型。六个现有电力数据用于训练和测试十六个线性和非线性模型,以进行电能预测。选择表现最好的网络作为预测任务的建议方法。对于韩国永岩太阳能发电(KYSP)、个人家庭电力消耗(IHEPC)和高级融合技术研究所(AICT)数据集,建议模型获得的平均绝对误差(MAE)值分别为 0.0716、0.0819 和 0.0877。同样,澳大利亚爱丽斯泉太阳能发电数据集(AASSP)、韩国东南部风力发电数据集(KSEWP)和韩国东南部太阳能发电数据集(KSESP)的平均绝对误差(MAE)值分别为 0.1215、0.5093 和 0.5751。
Generative Adversarial Network-Assisted Framework for Power Management
The rise in power consumption (PC) is caused by several factors such as the growing global population, urbanization, technological advances, economic development, and growth of businesses and commercial sectors. In these days, intermittent renewable energy sources (RESs) are widely utilized in electric grids to meet the need for power. Data-driven techniques are essential to assuring the steady operation of the electric grid and accurate power consumption and generation forecasting. Conversely, the available datasets for time series electric power forecasting in the energy industry are not as large as those for other domains such as in computer vision. Thus, a deep learning (DL) framework for predicting PC in residential and commercial buildings as well as the power generation (PG) from RESs is introduced. The raw power data obtained from buildings and RESs-based power plants are conceded by the purging process where absent values are filled in and noise and outliers are eliminated. Next, the proposed generative adversarial network (GAN) uses a portion of the cleaned data to generate synthetic parallel data, which is combined with the actual data to make a hybrid dataset. Subsequently, the stacked gated recurrent unit (GRU) model, which is optimized for power forecasting, is trained using the hybrid dataset. Six existent power data are used to train and test sixteen linear and nonlinear models for energy forecasting. The best-performing network is selected as the proposed method for forecasting tasks. For Korea Yeongam solar power (KYSP), individual household electric power consumption (IHEPC), and advanced institute of convergence technology (AICT) datasets, the proposed model obtains mean absolute error (MAE) values of 0.0716, 0.0819, and 0.0877, respectively. Similarly, its MAE values are 0.1215, 0.5093, and 0.5751, for Australia Alice Springs solar power (AASSP), Korea south east wind power (KSEWP), and, Korea south east solar power (KSESP) datasets, respectively.
期刊介绍:
Cognitive Computation is an international, peer-reviewed, interdisciplinary journal that publishes cutting-edge articles describing original basic and applied work involving biologically-inspired computational accounts of all aspects of natural and artificial cognitive systems. It provides a new platform for the dissemination of research, current practices and future trends in the emerging discipline of cognitive computation that bridges the gap between life sciences, social sciences, engineering, physical and mathematical sciences, and humanities.