Monitoring and path optimization of catalytic reformer in a refinery: Principal component analysis and A* algorithm application

被引:0
|
作者
Li, Zhi [1 ]
Ying, Yuhui [1 ]
Yang, Minglei [1 ]
Zhao, Liang [1 ]
Zhao, Ling [2 ]
Du, Wenli [1 ]
机构
[1] Key Laboratory of Smart Manufacturing in Energy Chemical Process, Ministry of Education, East China University of Science and Technology, Shanghai,200237, China
[2] School of Chemical Engineering, East China University of Science and Technology, Shanghai,200237, China
基金
中国国家自然科学基金;
关键词
Catalytic reforming - Naphthas - Process control - Process monitoring - Profitability - Refining;
D O I
暂无
中图分类号
学科分类号
摘要
Catalytic naphtha reforming converts naphtha into gasoline or aromatics and is a vital petrochemical process in refineries. This paper developed a hybrid framework combining principal component analysis (PCA) and A* algorithm to find optimal operating conditions through process monitoring and path optimization. PCA is employed to develop an efficiency monitoring model using the process history data. The operating conditions with profit information are projected onto a two-dimensional plane using the first and second principal components. High- and low-profit intervals can be clearly distinguished on this map. The A* algorithm is then employed in finding an optimal trajectory from low-index to high-index on the projection map. Finally, the inverse transformation is used to obtain optimum variables for optimal operating conditions. The effectiveness of the proposed framework is verified by applying it to a Sinopec refinery. © 2022 Elsevier Ltd
引用
收藏
相关论文
共 50 条
  • [31] Principal component analysis in the environmental monitoring process
    de Souza, Amaury
    da Silva Santos, Debora Aparecida
    NATIVA, 2018, 6 (06): : 639 - 647
  • [32] Error analysis of the principal component analysis demodulation algorithm
    Vargas, J.
    Carazo, J. M.
    Sorzano, C. O. S.
    APPLIED PHYSICS B-LASERS AND OPTICS, 2014, 115 (03): : 355 - 364
  • [33] Generalization of the Principal Component Analysis algorithm for interferometry
    Vargas, J.
    Sorzano, C. O. S.
    Estrada, J. C.
    Carazo, J. M.
    OPTICS COMMUNICATIONS, 2013, 286 : 130 - 134
  • [34] Principal component analysis on face recognition using artificial firefirefly swarm optimization algorithm
    Asha, N.
    Fiaz, A. S. Syed
    Jayashree, J.
    Vijayashree, J.
    Indumathi, J.
    ADVANCES IN ENGINEERING SOFTWARE, 2022, 174
  • [35] Principal component analysis algorithm with invariant norm
    Luo, F.-L.
    Unbehauen, R.
    Li, Y.-D.
    Neurocomputing, 1995, 8 (02):
  • [36] A PRINCIPAL COMPONENT ANALYSIS ALGORITHM WITH INVARIANT NORM
    LUO, FL
    UNBEHAUEN, R
    LI, YD
    NEUROCOMPUTING, 1995, 8 (02) : 213 - 221
  • [37] An Improved Algorithm for Kernel Principal Component Analysis
    Wenming Zheng
    Cairong Zou
    Li Zhao
    Neural Processing Letters, 2005, 22 : 49 - 56
  • [38] Error analysis of the principal component analysis demodulation algorithm
    J. Vargas
    J. M. Carazo
    C. O. S. Sorzano
    Applied Physics B, 2014, 115 : 355 - 364
  • [39] A constrained EM algorithm for principal component analysis
    Ahn, JH
    Oh, JH
    NEURAL COMPUTATION, 2003, 15 (01) : 57 - 65
  • [40] An improved algorithm for kernel principal component analysis
    Zheng, WM
    Zou, CR
    Zhao, L
    NEURAL PROCESSING LETTERS, 2005, 22 (01) : 49 - 56