基于加权Adaboost-ENN模型和情景分析的中国建筑业CO2排放预测

Jianguo Zhou, Xiaolei Xu, Wei Li, Fengtao Guang, Xuechao Yu, Baoling Jin
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引用次数: 4

摘要

中国建筑业作为国民经济的支柱产业,目前仍面临着能耗大、CO2排放高的现状,是节能减排的重点领域。在二氧化碳排放研究中,重点是分析中国建筑业二氧化碳排放的现状和未来趋势。本文提出了一种新的预测模型,将加权算法与Adaboost自适应提升算法优化的Elman神经网络(ENN)相结合,对中国建筑行业未来的二氧化碳排放量进行预测。首先,利用对数平均分度指数(LMDI)将二氧化碳排放分解为经济、结构、强度和人口指标,作为Adaboost-ENN加权模型的输入。然后,通过与其他三种基于2004-2016年中国建筑业二氧化碳排放总量数据的模型进行比较,证明本文提出的模型具有较好的预测性能。在此基础上,运用情景分析法对未来中国建筑业二氧化碳排放趋势进行了预测。研究发现,在高碳情景(HS)和基线碳情景(BS)下,中国建筑业的CO2排放量将在2030年前达到峰值,而在低碳情景(LS)下则不会达到峰值。最后,提出了中国建筑业节能减排的具体政策建议。
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Forecasting CO2 Emissions in China’s Construction Industry Based on the Weighted Adaboost-ENN Model and Scenario Analysis
As a pillar industry of national economy, China’s construction industry is still facing the status of substantial energy consumption and high CO2 emissions, which is a key field of energy conservation and emission reduction. In CO2 emissions research, it is essential to focus on analyzing the present and future trends of CO2 emissions in China’s construction industry. This article introduces a novel prediction model, in which the weighted algorithm is combined with Elman neural network (ENN) optimized by Adaptive Boosting algorithm (Adaboost) for evaluating future CO2 emissions in China’s construction industry. Firstly, logarithmic mean Divisia index (LMDI) is used to decompose CO2 emissions into economy, structural, intensity, and population indicators, posing as inputs to the weighted Adaboost-ENN model. Then, through comparison with other three models based on the data of total CO2 emissions in China’s construction industry during 2004-2016, there is evidence that the proposed model makes a favorable prediction performance. On this basis, we employ scenario analysis to predict future trend of CO2 emissions in China’s construction industry. It can be found that the peak of CO2 emissions in China’s construction industry will be achieved before 2030 in high carbon scenario (HS) and baseline carbon scenario (BS), whereas it will not be realized in low carbon scenario (LS). Finally, the specific policy recommendations related to energy conservation and emission reduction in China’s construction industry are proposed.
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审稿时长
28 weeks
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