Improvement of SCADA-Based Preventive Control Under Budget Constraints

被引:2
作者
Farhadi, Vajiheh [1 ]
Vennelaganti, Sai Gopal [2 ]
He, Ting [1 ]
Chaudhuri, Nilanjan Ray [1 ]
LaPorta, Thomas [1 ]
机构
[1] Penn State Univ, University Pk, PA 16802 USA
[2] Elect Power Res Inst, Palo Alto, CA 94304 USA
来源
IEEE TRANSACTIONS ON NETWORK SCIENCE AND ENGINEERING | 2022年 / 9卷 / 04期
基金
美国国家科学基金会;
关键词
Costs; Power grids; Communication networks; SCADA systems; Power system protection; Power system faults; Optimization; Blackouts; cascading failure; DC-QSS; non-PLCC; PLCC; preventive control; SCADA; CASCADING FAILURE ANALYSIS; POWER-LINE COMMUNICATIONS; NETWORKS; DESIGN; SYSTEM; MODEL;
D O I
10.1109/TNSE.2022.3166926
中图分类号
T [工业技术];
学科分类号
08 ;
摘要
Catastrophic disasters in real-world systems, such as large-scale blackouts in power grids, are usually triggered by minor incidents, which culminate in a complex cascading failure in an interdependent system. Because the loss of a power transmission line disrupts the control information piggybacked on the line, failures in the power network may consequently disrupt monitoring and control of the system. Hence, reliable functioning of the communication network in support of monitoring and control is vital to ensure that the re-dispatch-based preventive control effectively restricts cascade propagation. In this paper, we address this issue by proposing a novel scheme in designing the communication network comprised of both power line carrier communication (PLCC) links and non-PLCC (e.g., microwave) links in preparation of possible failures under a budget constraint on the communication link deployment cost. First, we characterize the fundamental hardness of our problem. Next, we develop a solvable Mixed-integer linear programming (MILP)-based algorithm, which attains a constant-factor approximation under certain conditions. Finally, we show via simulations on the IEEE 118-bus system that the proposed algorithm achieves superior performance in terms of enabling more accurate topology estimation and more served demand in the face of cascades.
引用
收藏
页码:2601 / 2616
页数:16
相关论文
共 56 条
[11]   Cascading risks: Understanding the 2021 winter blackout in Texas [J].
Busby, Joshua W. ;
Baker, Kyri ;
Bazilian, Morgan D. ;
Gilbert, Alex Q. ;
Grubert, Emily ;
Rai, Varun ;
Rhodes, Joshua D. ;
Shidore, Sarang ;
Smith, Caitlin A. ;
Webber, Michael E. .
ENERGY RESEARCH & SOCIAL SCIENCE, 2021, 77
[12]   Cascading Failure Analysis Considering Interaction Between Power Grids and Communication Networks [J].
Cai, Ye ;
Cao, Yijia ;
Li, Yong ;
Huang, Tao ;
Zhou, Bin .
IEEE TRANSACTIONS ON SMART GRID, 2016, 7 (01) :530-538
[13]   Optimal Planning and Routing in Medium Voltage PowerLine Communications Networks [J].
Canale, Silvia ;
Di Giorgio, Alessandro ;
Lanna, Andrea ;
Mercurio, Andrea ;
Panfili, Martina ;
Pietrabissa, Antonio .
IEEE TRANSACTIONS ON SMART GRID, 2013, 4 (02) :711-719
[14]   Critical points and transitions in an electric power transmission model for cascading failure blackouts [J].
Carreras, BA ;
Lynch, VE ;
Dobson, I ;
Newman, DE .
CHAOS, 2002, 12 (04) :985-994
[15]   Lp Bounds for the parabolic singular integral operator [J].
Chen, Yanping ;
Wang, Feixing ;
Yu, Wei .
JOURNAL OF INEQUALITIES AND APPLICATIONS, 2012, :1-9
[16]  
CIGRE: Working Group 03 of Study Committe 35 (Communication and Telecontrol), REQ PERF PACK SWITCH
[17]  
Dai Y., 2020, PROC 12 MEDITERRANEA, V2020, P301
[18]  
Dong ZC, 2018, CHIN CONTR CONF, P6154, DOI 10.23919/ChiCC.2018.8483691
[19]  
Fan X, 2019, Coordination of transmission distribution and communication systems for prompt power system recovery after disasters
[20]  
Farhadi V., 2021, 2021 INT C COMPUTER, P1