Model of Recovery Procedures System for Continuous Technological Processes

被引:0
|
作者
Bulakina, E. N. [1 ]
Nedzelsky, O. N. [1 ]
Pochufarov, D. O. [1 ]
Bikineeva, A. N. [1 ]
机构
[1] Siberian Fed Univ, Svobodny Ave 79, Krasnoyarsk 660041, Russia
关键词
D O I
暂无
中图分类号
F [经济];
学科分类号
02 ;
摘要
An expert system of recovery procedures for continuous technological processes has been developed. The organization of a flexible control system will significantly reduce losses during downtime of technological processes and improve the reputation of the enterprise. As practice shows, in the event of emergencies, losses from downtime of continuous technological processes that ensure the functioning of the enterprise can be several times higher than the cost of their failure. In order to minimize downtime we have created an expert system of recovery procedures of technological processes. The introduction of a flexible system of recovery procedures for technological processes of enterprises in conjunction with the basic requirements for the organization of continuity of technological processes and recovery after failures is recommended by standards such as ISO 17799, a set of standards ISO 9000, standard of the Bank of Russia STO BR IBBS-1.0, etc. it will significantly reduce the impact of emergency situations, minimize financial losses and improve the reputation of the enterprise. Moreover, it will help to place the right emphasis on vital indicators of technological processes for the enterprise, and the cost of creating and maintaining a flexible system can be considered as one of the necessary forms of guarantees of sustainable work. To create a flexible system of recovery procedures of technological processes, it is necessary to carry out such procedures as: identification and classification of technological processes, risk analysis.
引用
收藏
页码:1208 / 1214
页数:7
相关论文
共 50 条
  • [41] Hierarchical model of technological design system
    Yurkov, NK
    Blinov, AV
    Yakimov, AN
    MEASUREMENT TECHNIQUES, 1999, 42 (05) : 433 - 436
  • [42] Hierarchical model of technological design system
    N. K. Yurkov
    A. V. Blinov
    A. N. Yakimov
    Measurement Techniques, 1999, 42 : 433 - 436
  • [43] Continuous and efficient uranium recovery in a bioelectrochemical system
    Liu, Wenbin
    Lin, Leiming
    Qie, Yukang
    Meng, Ying
    Luan, Fubo
    RESOURCES CONSERVATION AND RECYCLING, 2022, 177
  • [44] Infectious default model with recovery and continuous limits
    Sakata, Ayaka
    Hisakado, Masato
    Mori, Shintaro
    JOURNAL OF THE PHYSICAL SOCIETY OF JAPAN, 2007, 76 (05)
  • [45] ERROR RECOVERY IN CONTINUOUS VALUED NUMBER SYSTEM
    Mirhassani, Mitra
    Ahmadi, Majid
    Jullien, Graham A.
    JOURNAL OF CIRCUITS SYSTEMS AND COMPUTERS, 2011, 20 (08) : 1449 - 1476
  • [46] Combined model for supervisory control of continuous processes
    Xianhui, He
    Chunhua, Gao
    Hui, Wang
    Developments in Chemical Engineering and Mineral Processing, 2001, 9 (1-2): : 33 - 40
  • [47] CONTINUOUS-MIXTURE MODEL OF EXTRACTION PROCESSES
    GOTO, M
    HIROSE, T
    MCCOY, BJ
    JOURNAL OF SUPERCRITICAL FLUIDS, 1994, 7 (01): : 61 - 66
  • [48] Additive regression model for continuous time processes
    Debbarh, Mohammed
    Maillot, Bertrand
    COMMUNICATIONS IN STATISTICS-THEORY AND METHODS, 2008, 37 (15) : 2416 - 2432
  • [49] Markov processes in the continuous model of stochastic synchronization
    Manita, A. D.
    RUSSIAN MATHEMATICAL SURVEYS, 2006, 61 (05) : 993 - 995
  • [50] A consistent quantum model for continuous photodetection processes
    de Oliveira, MC
    Mizrahi, SS
    Dodonov, VV
    JOURNAL OF OPTICS B-QUANTUM AND SEMICLASSICAL OPTICS, 2003, 5 (03) : S271 - S280