Electric Power ›› 2024, Vol. 57 ›› Issue (8): 152-158.DOI: 10.11930/j.issn.1004-9649.202403026
• Power System • Previous Articles Next Articles
Guofeng JIN1(), Shifeng YANG1(
), Lingling LIU1(
), Kai WANG2(
), Qiang WANG2, Lei WANG3(
)
Received:
2024-03-07
Accepted:
2024-06-05
Online:
2024-08-23
Published:
2024-08-28
Supported by:
CLC Number:
Guofeng JIN, Shifeng YANG, Lingling LIU, Kai WANG, Qiang WANG, Lei WANG. Automatic Connection of Virtual Circuits in Smart Substations Based on Chaotic Two-Dimensional Mapping Sine and Cosine Algorithm[J]. Electric Power, 2024, 57(8): 152-158.
序号 | 设备名称 | 设备 | 安装位置 | |||
1 | 主变保护 | PCS-978T1-DA-GCN | 预制舱 | |||
2 | 主变测控 | PCS-9705G-DA-1 | 预制舱 | |||
3 | 66 kV线路保护测控 | PCS-953A-DA-GCN-C | 预制舱 | |||
4 | 66 kV分段保护测控 | PCS-923LA-DA-GCN-C | 预制舱 | |||
5 | 66 kV备自投 | PCS-9651A-DA-GCN | 预制舱 | |||
6 | 66 kV母线测控 | PCS-9705G-DA-4 | 预制舱 | |||
7 | 主变66 kV间隔 | PCS-224IMJA-DA-GZK | 智能柜 | |||
8 | 主变本体终端 | PCS-222ITA-GZK | 智能柜 | |||
9 | 66 kV线路间隔 | PCS-224IMJA-DA-GZK | 智能柜 | |||
10 | 66 kV分段间隔 | PCS-224IMJA-DA-GZK | 智能柜 | |||
11 | 66 kV母线间隔 | PCS-224IMMA-DA-GZK | 智能柜 | |||
12 | 主变变低间隔 | PCS-224IMJA-DA-GZK | 智能柜 |
Table 1 The secondary side equipment configuration of 66 kV substation
序号 | 设备名称 | 设备 | 安装位置 | |||
1 | 主变保护 | PCS-978T1-DA-GCN | 预制舱 | |||
2 | 主变测控 | PCS-9705G-DA-1 | 预制舱 | |||
3 | 66 kV线路保护测控 | PCS-953A-DA-GCN-C | 预制舱 | |||
4 | 66 kV分段保护测控 | PCS-923LA-DA-GCN-C | 预制舱 | |||
5 | 66 kV备自投 | PCS-9651A-DA-GCN | 预制舱 | |||
6 | 66 kV母线测控 | PCS-9705G-DA-4 | 预制舱 | |||
7 | 主变66 kV间隔 | PCS-224IMJA-DA-GZK | 智能柜 | |||
8 | 主变本体终端 | PCS-222ITA-GZK | 智能柜 | |||
9 | 66 kV线路间隔 | PCS-224IMJA-DA-GZK | 智能柜 | |||
10 | 66 kV分段间隔 | PCS-224IMJA-DA-GZK | 智能柜 | |||
11 | 66 kV母线间隔 | PCS-224IMMA-DA-GZK | 智能柜 | |||
12 | 主变变低间隔 | PCS-224IMJA-DA-GZK | 智能柜 |
序号 | 输入虚端子 | 自动连接的输出 虚端子 | 样本匹配的输出虚端子 | |||
1 | MU额定延时 PISV01/SVINGGIO1. DelayTRtg | 额定延时 MUSV01/LLN0. DelayTRtg | 额定延迟时间 MUSV/LLN0. DelayTRtg | |||
2 | 保护A相电流Ia1(正) PISV01/SVINGGIO4. SAVSO1 | A相保护电流1 MUSV01/PATCTR1. Amp1 | 保护1电流A相1 MUSV/TCTR1. Amp | |||
3 | 保护A相电流Ia2(正) PISV01/SVINGGIO4. SAVSO2 | A相保护电流2 MUSV01/PATCTR1. Amp2 | 保护1电流A相2 MUSV/TCTR1. AmpChB | |||
4 | 保护B相电流Ib1(正) PISV01/SVINGGIO4. SAVSO3 | B相保护电流1 MUSV01/PBTCTR1. Amp1 | 保护1电流B相1 MUSV/TCTR2. Amp | |||
5 | 保护B相电流Ib2(正) PISV01/SVINGGIO4. SAVSO4 | B相保护电流2 MUSV01/PBTCTR1. Amp2 | 保护1电流B相2 MUSV/TCTR2. AmpChB | |||
6 | 保护C相电流Ic1(正) PISV01/SVINGGIO4. SAVSO5 | C相保护电流1 MUSV01/PCTCTR1. Amp1 | 保护1电流C相1 MUSV/TCTR3. Amp | |||
7 | 保护C相电流Ic2(正) PISV01/SVINGGIO4. SAVSO6 | C相保护电流2 MUSV01/PCTCTR1. Amp2 | 保护1电流C相2 MUSV/TCTR3. AmpChB | |||
8 | 闭锁重合闸 PIGO01/GOINGGIO1. SPCSO1.stVal | 闭锁重合闸 RPIT01/GGIO1. Ind1.stVal | 闭锁重合闸RPIT/ProtGGIO. Ind3.stVal | |||
9 | 保护A相电压Ua1 PISV01/SVINGGIO3. SAVSO1 | A相保护测量电压1 MUSV01/UATVTR1. Vol1 | 保护电压A相1 MUSV/TVTR10. Vol | |||
10 | 保护A相电压Ua2 PISV01/SVINGGIO3. SAVSO2 | A相保护电压2 MUSV01/UATVTR1. Vol2 | 保护电压A相2 MUSV/TVTR10. VolChB | |||
11 | 保护B相电压Ub1 PISV01/SVINGGIO3. SAVSO3 | B相保护测量电压1 MUSV01/UBTVTR1. Vol1 | 保护电压B相1 MUSV/TVTR11. Vol | |||
12 | 保护B相电压Ub2 PISV01/SVINGGIO3. SAVSO4 | B相保护电压2 MUSV01/UBTVTR1. Vol2 | 保护电压B相2 MUSV/TVTR11. VolChB | |||
13 | 保护C相电压Uc1 PISV01/SVINGGIO3. SAVSO5 | C相保护测量电压1 MUSV01/UCTVTR1. Vol1 | 保护电压C相1 MUSV/TVTR12. Vol | |||
14 | 保护C相电压Uc2 PISV01/SVINGGIO3. SAVSO6 | C相保护电压2 MUSV01/UCTVTR1. Vol2 | 保护电压C相2 MUSV/TVTR12. VolChB | |||
15 | 断路器位置 PIGO01/GOINGGIO1. DPCSO1.stVal | 断路器位置 RPIT01/XCBR1. Pos.stVal | 断路器位置 RPIT/Q0 XCBR1. Pos.stVal |
Table 2 Partial comparison of the results of the automatic connection
序号 | 输入虚端子 | 自动连接的输出 虚端子 | 样本匹配的输出虚端子 | |||
1 | MU额定延时 PISV01/SVINGGIO1. DelayTRtg | 额定延时 MUSV01/LLN0. DelayTRtg | 额定延迟时间 MUSV/LLN0. DelayTRtg | |||
2 | 保护A相电流Ia1(正) PISV01/SVINGGIO4. SAVSO1 | A相保护电流1 MUSV01/PATCTR1. Amp1 | 保护1电流A相1 MUSV/TCTR1. Amp | |||
3 | 保护A相电流Ia2(正) PISV01/SVINGGIO4. SAVSO2 | A相保护电流2 MUSV01/PATCTR1. Amp2 | 保护1电流A相2 MUSV/TCTR1. AmpChB | |||
4 | 保护B相电流Ib1(正) PISV01/SVINGGIO4. SAVSO3 | B相保护电流1 MUSV01/PBTCTR1. Amp1 | 保护1电流B相1 MUSV/TCTR2. Amp | |||
5 | 保护B相电流Ib2(正) PISV01/SVINGGIO4. SAVSO4 | B相保护电流2 MUSV01/PBTCTR1. Amp2 | 保护1电流B相2 MUSV/TCTR2. AmpChB | |||
6 | 保护C相电流Ic1(正) PISV01/SVINGGIO4. SAVSO5 | C相保护电流1 MUSV01/PCTCTR1. Amp1 | 保护1电流C相1 MUSV/TCTR3. Amp | |||
7 | 保护C相电流Ic2(正) PISV01/SVINGGIO4. SAVSO6 | C相保护电流2 MUSV01/PCTCTR1. Amp2 | 保护1电流C相2 MUSV/TCTR3. AmpChB | |||
8 | 闭锁重合闸 PIGO01/GOINGGIO1. SPCSO1.stVal | 闭锁重合闸 RPIT01/GGIO1. Ind1.stVal | 闭锁重合闸RPIT/ProtGGIO. Ind3.stVal | |||
9 | 保护A相电压Ua1 PISV01/SVINGGIO3. SAVSO1 | A相保护测量电压1 MUSV01/UATVTR1. Vol1 | 保护电压A相1 MUSV/TVTR10. Vol | |||
10 | 保护A相电压Ua2 PISV01/SVINGGIO3. SAVSO2 | A相保护电压2 MUSV01/UATVTR1. Vol2 | 保护电压A相2 MUSV/TVTR10. VolChB | |||
11 | 保护B相电压Ub1 PISV01/SVINGGIO3. SAVSO3 | B相保护测量电压1 MUSV01/UBTVTR1. Vol1 | 保护电压B相1 MUSV/TVTR11. Vol | |||
12 | 保护B相电压Ub2 PISV01/SVINGGIO3. SAVSO4 | B相保护电压2 MUSV01/UBTVTR1. Vol2 | 保护电压B相2 MUSV/TVTR11. VolChB | |||
13 | 保护C相电压Uc1 PISV01/SVINGGIO3. SAVSO5 | C相保护测量电压1 MUSV01/UCTVTR1. Vol1 | 保护电压C相1 MUSV/TVTR12. Vol | |||
14 | 保护C相电压Uc2 PISV01/SVINGGIO3. SAVSO6 | C相保护电压2 MUSV01/UCTVTR1. Vol2 | 保护电压C相2 MUSV/TVTR12. VolChB | |||
15 | 断路器位置 PIGO01/GOINGGIO1. DPCSO1.stVal | 断路器位置 RPIT01/XCBR1. Pos.stVal | 断路器位置 RPIT/Q0 XCBR1. Pos.stVal |
序号 | 输入虚端子 | 自动连接的输出虚端子 | 样本匹配的输出虚端子 | |||
1 | MU额定延时 PISV01/SVINGGIO1. DelayTRtg | 额定延时 MUSV01/LLN0. DelayTRtg | 额定延迟时间 MUSV/LLN0. DelayTRtg | |||
2 | 保护A相电流Ia1(正) PISV01/SVINGGIO4. SAVSO1 | A相保护电流1 MUSV01/PATCTR1. Amp1 | 保护1电流A相1 MUSV/TCTR1. Amp | |||
3 | 保护A相电流Ia2(正) PISV01/SVINGGIO4. SAVSO2 | A相保护电流2 MUSV01/PATCTR1. Amp2 | 保护1电流A相2 MUSV/TCTR1. AmpChB | |||
4 | 保护B相电流Ib1(正) PISV01/SVINGGIO4. SAVSO3 | B相保护电流1 MUSV01/PBTCTR1. Amp1 | 保护1电流B相1 MUSV/TCTR2. Amp | |||
5 | 保护B相电流Ib2(正) PISV01/SVINGGIO4. SAVSO4 | B相保护电流2 MUSV01/PBTCTR1. Amp2 | 保护1电流B相2 MUSV/TCTR2. AmpChB | |||
6 | 保护C相电流Ic1(正) PISV01/SVINGGIO4. SAVSO5 | C相保护电流1 MUSV01/PCTCTR1. Amp1 | 保护1电流C相1 MUSV/TCTR3. Amp | |||
7 | 保护C相电流Ic2(正) PISV01/SVINGGIO4. SAVSO6 | C相保护电流2 MUSV01/PCTCTR1. Amp2 | 保护1电流C相2 MUSV/TCTR3. AmpChB | |||
8 | 闭锁重合闸 PIGO01/GOINGGIO1. SPCSO1.stVal | 断路器低气压闭锁 RPIT01/GOYxGGIO. Ind8.stVal | 闭锁重合闸RPIT/ProtGGIO. Ind3.stVal | |||
9 | 断路器位置 PIGO01/GOINGGIO1. DPCSO1.stVal | 断路器位置 RPIT01/XCBR1. Pos.stVal | 断路器位置 RPIT/Q0 XCBR1. Pos.stVal |
Table 3 Automatic matching results of virtual terminals
序号 | 输入虚端子 | 自动连接的输出虚端子 | 样本匹配的输出虚端子 | |||
1 | MU额定延时 PISV01/SVINGGIO1. DelayTRtg | 额定延时 MUSV01/LLN0. DelayTRtg | 额定延迟时间 MUSV/LLN0. DelayTRtg | |||
2 | 保护A相电流Ia1(正) PISV01/SVINGGIO4. SAVSO1 | A相保护电流1 MUSV01/PATCTR1. Amp1 | 保护1电流A相1 MUSV/TCTR1. Amp | |||
3 | 保护A相电流Ia2(正) PISV01/SVINGGIO4. SAVSO2 | A相保护电流2 MUSV01/PATCTR1. Amp2 | 保护1电流A相2 MUSV/TCTR1. AmpChB | |||
4 | 保护B相电流Ib1(正) PISV01/SVINGGIO4. SAVSO3 | B相保护电流1 MUSV01/PBTCTR1. Amp1 | 保护1电流B相1 MUSV/TCTR2. Amp | |||
5 | 保护B相电流Ib2(正) PISV01/SVINGGIO4. SAVSO4 | B相保护电流2 MUSV01/PBTCTR1. Amp2 | 保护1电流B相2 MUSV/TCTR2. AmpChB | |||
6 | 保护C相电流Ic1(正) PISV01/SVINGGIO4. SAVSO5 | C相保护电流1 MUSV01/PCTCTR1. Amp1 | 保护1电流C相1 MUSV/TCTR3. Amp | |||
7 | 保护C相电流Ic2(正) PISV01/SVINGGIO4. SAVSO6 | C相保护电流2 MUSV01/PCTCTR1. Amp2 | 保护1电流C相2 MUSV/TCTR3. AmpChB | |||
8 | 闭锁重合闸 PIGO01/GOINGGIO1. SPCSO1.stVal | 断路器低气压闭锁 RPIT01/GOYxGGIO. Ind8.stVal | 闭锁重合闸RPIT/ProtGGIO. Ind3.stVal | |||
9 | 断路器位置 PIGO01/GOINGGIO1. DPCSO1.stVal | 断路器位置 RPIT01/XCBR1. Pos.stVal | 断路器位置 RPIT/Q0 XCBR1. Pos.stVal |
1 | 叶远波, 王吉文, 汪伟, 等. 基于哈希和编辑距离算法的SCD双层向量化与变更校验技术[J]. 中国电力, 2024, 57 (1): 255- 262. |
YE Yuanbo, WANG Jiwen, WANG Wei, et al. SCD two-layer vectorization and change verification technology based on hash and edit distance algorithm[J]. Electric Power, 2024, 57 (1): 255- 262. | |
2 | 严亚兵, 褚旭, 肖豪龙, 等. 基于改进支持向量机的数字化变电站安全措施生成技术[J]. 中国电力, 2023, 56 (10): 194- 201. |
YAN Yabing, CHU Xu, XIAO Haolong, et al. Automatic generation technology of safety measures for digital substation based on improved support vector machine[J]. Electric Power, 2023, 56 (10): 194- 201. | |
3 | 刘岑岑, 夏天, 李艳, 等. 基于显式可靠性指标的配电网多阶段扩展规划方法[J]. 中国电力, 2023, 56 (9): 87- 95. |
LIU Cencen, XIA Tian, LI Yan, et al. A multi-stage expansion planning method for distribution networks based on explicit reliability index[J]. Electric Power, 2023, 56 (9): 87- 95. | |
4 | 叶远波, 李端超, 谢民, 等. 面向新型电力系统的智能变电站虚回路自动校验技术研究[J]. 电测与仪表, 2022, 59 (7): 91- 99. |
YE Yuanbo, LI Duanchao, XIE Min, et al. Research on automatic calibration technology of virtual circuit in smart substation for novel power system[J]. Electrical Measurement & Instrumentation, 2022, 59 (7): 91- 99. | |
5 | 林峰, 梅勇, 朱益华, 等. 网络攻击对电力系统典型场景全过程影响综述[J]. 南方电网技术, 2023, 17 (11): 61- 75. |
LIN Feng, MEI Yong, ZHU Yihua, et al. Overview of the entire process influence of cyber attack on typical scenarios of power systems[J]. Southern Power System Technology, 2023, 17 (11): 61- 75. | |
6 | 杨辉, 温东旭, 高磊, 等. 智能变电站二次虚回路连线自动生成实践[J]. 电力系统保护与控制, 2017, 45 (23): 116- 121. |
YANG Hui, WEN Dongxu, GAO Lei, et al. Automatic generation of secondary circuit virtual connection in smart substation[J]. Power System Protection and Control, 2017, 45 (23): 116- 121. | |
7 | 黄志高, 李妍, 李腾, 等. 智能变电站SCD文件虚回路自动生成技术的设计和实现[J]. 电力系统保护与控制, 2017, 45 (17): 106- 111. |
HUANG Zhigao, LI Yan, LI Teng, et al. Design and implementation of automatic generation technology of SCD file virtual circuit in smart substation[J]. Power System Protection and Control, 2017, 45 (17): 106- 111. | |
8 | 李腾, 吕飞鹏, 王星宇, 等. 基于烟花算法计算莱文斯坦距离权重的虚端子自动连接方法[J]. 电测与仪表, 2023, 60 (11): 90- 94. |
LI Teng, LV Feipeng, WANG Xingyu, et al. Virtual terminal automatic connection method for calculating Levenstein distance weight based on fireworks algorithms[J]. Electrical Measurement & Instrumentation, 2023, 60 (11): 90- 94. | |
9 | 王文琪, 胡炎, 赵娜, 等. 基于距离权重向量优化模型的虚端子自动连接方法[J]. 电网技术, 2018, 42 (1): 346- 352. |
WANG Wenqi, HU Yan, ZHAO Na, et al. Automatic connection method of virtual terminators based on optimization model of distance weight vectors[J]. Power System Technology, 2018, 42 (1): 346- 352. | |
10 | 王胜, 唐超, 张凌浩, 等. 面向IEC61850智能变电站的网络安全异常流量分析方法[J]. 重庆大学学报, 2022, 45 (1): 1- 8. |
WANG Sheng, TANG Chao, ZHANG Linghao, et al. Research on network security abnormal flow analysis method for IEC61850 intelligent substation[J]. Journal of Chongqing University, 2022, 45 (1): 1- 8. | |
11 | 胡道徐, 沃建栋. 基于IEC 61850的智能变电站虚回路体系[J]. 电力系统自动化, 2010, 34 (17): 78- 82. |
HU Daoxu, WO Jiandong. Virtual circuit system of smart substations based on IEC 61850[J]. Automation of Electric Power Systems, 2010, 34 (17): 78- 82. | |
12 | 范卫东, 冯晓伟, 董金星, 等. 基于历史数据语义相似度的智能变电站虚端子自动连接[J]. 电力系统保护与控制, 2020, 48 (17): 179- 186. |
FAN Weidong, FENG Xiaowei, DONG Jinxing, et al. Automatic matching method of a virtual terminal in intelligent substation based on rsemantic similarity of historical data[J]. Power System Protection and Control, 2020, 48 (17): 179- 186. | |
13 |
CAHYONO S C. Comparison of document similarity measurements in scientific writing using Jaro-Winkler distance method and Paragraph Vector method[J]. IOP Conference Series: Materials Science and Engineering, 2019, 662 (5): 052016.
DOI |
14 |
PITCHANDI P, BALAKRISHNAN M. Document clustering analysis with aid of adaptive Jaro Winkler with Jellyfish search clustering algorithm[J]. Advances in Engineering Software, 2023, 175, 103322.
DOI |
15 | 万金金, 文屹, 吕黔苏, 等. 基于大数据深度挖掘电网设备缺陷体外循环的模型研制与应用[J]. 电力大数据, 2023, 26 (3): 61- 68. |
WAN Jinjin, WEN Yi, LYU Qiansu, et al. Model development and application based on big data deep mining of extracorporeal circulation of grid equipment defects[J]. Power Systems and Big Data, 2023, 26 (3): 61- 68. | |
16 | 郝秦霞, 荣政, 谢林江, 等. 基于Bi-LSTM的在线物联网设备识别方法[J]. 西安科技大学学报, 2023, 43 (2): 422- 430. |
HAO Qinxia, RONG Zheng, XIE Linjiang, et al. Online IoT device identification method based on Bi-LSTM[J]. Journal of Xi’an University of Science and Technology, 2023, 43 (2): 422- 430. | |
17 |
MIRJALILI S. SCA: a sine cosine algorithm for solving optimization problems[J]. Knowledge-Based Systems, 2016, 96, 120- 133.
DOI |
18 |
ESLAMI M, NESHAT M, KHALID S A. A novel hybrid sine cosine algorithm and pattern search for optimal coordination of power system damping controllers[J]. Sustainability, 2022, 14 (1): 541.
DOI |
19 |
GUO W Y, WANG Y, DAI F, et al. Improved sine cosine algorithm combined with optimal neighborhood and quadratic interpolation strategy[J]. Engineering Applications of Artificial Intelligence, 2020, 94, 103779.
DOI |
20 |
KHOKHAR B, DAHIYA S, SINGH PARMAR K P. Load frequency control of a microgrid employing a 2D sine logistic map based chaotic sine cosine algorithm[J]. Applied Soft Computing, 2021, 109, 107564.
DOI |
21 |
HUA Z Y, ZHOU Y C, PUN C M, et al. 2D sine logistic modulation map for image encryption[J]. Information Sciences, 2015, 297, 80- 94.
DOI |
22 |
吴灏, 许晓, 彭紫楠, 等. 基于电网云数据管理的电气设备大数据移动实验室及其应用研究[J]. 发电技术, 2023, 44 (3): 417- 424.
DOI |
WU Hao, XU Xiao, PENG Zinan, et al. Research on electrical equipment big data mobile laboratory based on power grid cloud data management and its application[J]. Power Generation Technology, 2023, 44 (3): 417- 424.
DOI |
|
23 | 段咏霖, 张光烈, 李瑞峰, 等. 基于MDT的含DG配电网分层逐级协同调压策略研究[J]. 东北电力大学学报, 2024, 44 (2): 64- 71, 120. |
DUAN Yonglin, ZHANG Guanglie, LI Ruifeng, et al. Research on hierarchical step-by-step cooperative voltage regulation strategy of distribution network with DG based on MDT[J]. Journal of Northeast Electric Power University, 2024, 44 (2): 64- 71, 120. | |
24 | 刁卓朋, 伍国英, 李文祥, 等. GPS欺骗信号对变电站时间同步装置的干扰分析与测试[J]. 南方电网技术, 2024, 18 (4): 88- 95. |
DIAO Zhuopeng, WU Guoying, LI Wenxiang, et al. Analysis and test of the interference of GPS deception signal on time synchronization device in substation[J]. Southern Power System Technology, 2024, 18 (4): 88- 95. | |
25 | 王秀云, 王建, 刘闯, 等. 低漏电流非隔离型三相并网变换器协同控制策略[J]. 东北电力大学学报, 2022, 42 (5): 44- 54. |
WANG Xiuyun, WANG Jian, LIU Chuang, et al. Cooperative control strategy for non-isolated low leakage current three-phase grid-connected converter[J]. Journal of Northeast Electric Power University, 2022, 42 (5): 44- 54. | |
26 | 汪际峰, 吴小辰, 林火华, 等. 数字电网的概念、特征与架构[J]. 南方电网技术, 2023, 17 (12): 36- 41, 89. |
WANG Jifeng, WU Xiaochen, LIN Huohua, et al. Concepts, features and architectures of digital grids[J]. Southern Power System Technology, 2023, 17 (12): 36- 41, 89. | |
27 | 苏寅生, 周挺辉, 赵利刚, 等. 电力电子设备谐波对主网的影响分析与对策探索[J]. 南方电网技术, 2024, 18 (2): 47- 56. |
SU Yinsheng, ZHOU Tinghui, ZHAO Ligang, et al. Impact analysis and countermeasure exploration of power electronic equipment harmonics on main network[J]. Southern Power System Technology, 2024, 18 (2): 47- 56. |
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