

FOLLOWUS
College of Information Science and Technology, Beijing University of Chemical Technology, Beijing 100029, China
Engineering Research Center of Intelligent PSE, Ministry of Education of China, Beijing, 100029, China
Sinopec Sales Co., Ltd., North China Branch, Tianjin 300384, China
School of Economics and Management, Beijing University of Chemical Technology, Beijing 100029, China
These authors contributed equally to this work.
Corresponding authors. E-mail addresses: gengzhiqiang@mail.buct.edu.cn (Z. Geng)
Corresponding authors. E-mail addresses: 2010500027@buct.edu.cn (J. Tian)
Corresponding authors. E-mail addresses: hanym@mail.buct.edu.cn (Y. Han).
Received:04 June 2025,
Revised:2025-08-26,
Accepted:10 September 2025,
Online First:26 November 2025,
Published:2026-02
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Lin Guocong, Ni Qingxu, Liu Xuehai, et al. Improved neural network automation design method for energy saving and carbon emission reduction of petrochemical production processes[J]. Chinese Journal of Chemical Engineering, 2026, 90(2): 348-360.
Ethylene yield serves as a key metric in petrochemical production
where optimizing its energy efficiency remains a critical challenge for sustainable production. Meanwhile
manual hyperparameter tuning of deep learning based yield prediction models often results in suboptimal configurations
which reduces prediction accuracy and reliability due to extreme operating conditions generating outliers in ethylene production processes. Therefore
a novel neural network automatic design method (NNADM) is proposed
which incorporates the neural network parameters automatic optimization and loss function adaptive construction. An innovative adaptive loss formulation is proposed to strategically integrate the complementary strengths of the mean squared error (MSE) and the Log-Cosh functions
featuring dynamic outlier resistance through self-adjusting weight coefficients. Then
the Bayesian optimization search algorithm is utilized to discover optimal hyperparameters of the neural network
including hidden layer unit
epoch
batch size
and the loss function. Finally
the NNADM is integrated with several classical neural networks for ethylene yield prediction. Experimental results show that several classical neural networks realize an average of 16.86% decrease in MSE index after integrating the NNADM. In addition
the proposed model offers direction and development blueprints for ethylene production facilities that have low energy efficiency. By implementing this model
it is possible to cut approximately 8376.4 tons of carbon emissions and simultaneously secure an extra 499 tons of ethylene output.
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