Extraction of important reaction pathways for complex reaction network based on community detection algorithm

被引:0
作者
Chen T. [1 ]
Bi K. [1 ]
Qiu T. [2 ,3 ]
Ji X. [1 ]
Dai Y. [1 ]
机构
[1] School of Chemical Engineering, Sichuan University, Sichuan, Chengdu
[2] Department of Chemical Engineering, Tsinghua University, Beijing
[3] Beijing Key Laboratory of Industrial Big Data System and Application, Tsinghua University, Beijing
来源
Huagong Jinzhan/Chemical Industry and Engineering Progress | 2023年 / 42卷 / 02期
关键词
algorithm; community detection; mesoscale; network; reaction; reaction pathway;
D O I
10.16085/j.issn.1000-6613.2022-1409
中图分类号
学科分类号
摘要
The development of accurate mechanistic process models of processes at the molecular radical scale is an important direction in the development of “molecular refining” in the world. The complexity of molecular refining process systems is mainly due to the coupling and multiscale of chemical reaction networks, which poses a challenge to the in-depth understanding of chemical production processes. The key information mining and representation of the complex reaction network can help engineers to understand the process mechanism in depth and realize the transparency of the mechanism. Since the complex reaction networks of oil refining processes have modular and community-based characteristics centered on key reaction substances, this paper adopted the Leiden community detection algorithm to divide the reaction networks of steam cracking into reaction communities at mesoscale. The corresponding key reaction pathways were extracted from the reduced reaction communities at the molecular free radical scale. It provided an interpretable bridge from macroscopic reaction networks to microscopic substance interactions and helped to reveal the knowledge transfer mechanism of the substance transformation process. © 2023 Chemical Industry Press. All rights reserved.
引用
收藏
页码:684 / 691
页数:7
相关论文
共 32 条
  • [1] WANG Hongtao, YANG Lei, WANG Hua, Et al., Design and application practice of optimization model for refining and chemical integrated intelligent plant, Chemical Industry and Engineering Progress, 40, pp. 451-455, (2021)
  • [2] ZHANG Mengxuan, LIU Hongchen, WANG Min, Et al., Intelligence hybrid modeling method and applications in chemical process, Chemical Industry and Engineering Progress, 40, 4, pp. 1765-1776, (2021)
  • [3] MI SAINE AYE Mi, ZHANG Nan, A novel methodology in transforming bulk properties of refining streams into molecular information, Chemical Engineering Science, 60, 23, pp. 6702-6717, (2005)
  • [4] SCHWEIDTMANN Artur M, ESCHE Erik, FISCHER Asja, Et al., Machine learning in chemical engineering: A perspective, Chemie Ingenieur Technik, 93, 12, pp. 2029-2039, (2021)
  • [5] VENKATASUBRAMANIAN Venkat, The promise of artificial intelligence in chemical engineering: Is it here, finally?, AIChE Journal, 65, 2, pp. 466-478, (2019)
  • [6] TARALAS Georgios, VASSILATOS Vassilios, SJOSTROM Krister, Et al., Thermal and catalytic cracking of n-heptane in presence of CaO, MgO and calcined dolomites, The Canadian Journal of Chemical Engineering, 69, 6, pp. 1413-1419, (1991)
  • [7] DRYER Frederick L, HAAS Francis M, SANTNER Jeffrey, Et al., Interpreting chemical kinetics from complex reaction-advectiondiffusion systems: Modeling of flow reactors and related experiments, Progress in Energy and Combustion Science, 44, pp. 19-39, (2014)
  • [8] MIZUI Yasutaka, KOJIMA Tetsuya, MIYAGI Shigeyuki, Et al., Graphical classification in multi-centrality-index diagrams for complex chemical networks, Symmetry, 9, 12, (2017)
  • [9] JANG Soonmin, RICE Stuart A., Reaction path analysis of the rate of unimolecular isomerization, The Journal of Chemical Physics, 99, 12, pp. 9585-9590, (1993)
  • [10] GAO Connie W, ALLEN Joshua W, GREEN William H, Et al., Reaction mechanism generator: Automatic construction of chemical kinetic mechanisms, Computer Physics Communications, 203, pp. 212-225, (2016)