Power Generation Technology ›› 2022, Vol. 43 ›› Issue (4): 636-644.DOI: 10.12096/j.2096-4528.pgt.21142
• Smart Grid • Previous Articles Next Articles
Yiming HAN, Pengfei XU, Jianfeng GONG, Yaru SHEN
Received:
2021-12-30
Published:
2022-08-31
Online:
2022-09-06
Supported by:
CLC Number:
Yiming HAN, Pengfei XU, Jianfeng GONG, Yaru SHEN. Research on Comprehensive Evaluation System of Power Grid Development and Operation Based on User Demand[J]. Power Generation Technology, 2022, 43(4): 636-644.
一级指标 | 二级指标 | 三级指标 | 合理取值 | 注释 |
---|---|---|---|---|
A1 | B1 | C1 | 1.8~2.2 | 指某一供电区内变电设备总容量与供电区最大负荷(网供负荷)之比,反映容量备用情况 |
C2/(kV⋅A/户) | 1.5~3.0 | 指负责居民供电的配电容量与居民用户数之比,反映供电能力情况 | ||
C3/% | ≤5 | 指重载线路与全部线路之比,反映区域重载线路情况 | ||
C4/% | ≤5 | 指重载主变与全部线路之比,反映区域重载主变情况 | ||
B2 | C5/% | B类区, 100;C类区, ≥80;D类区, ≥60 | 指线路中满足N-1的比例,反映线路中的分段情况 | |
C6/% | B类区, 100;C类区, ≥90;D类区, ≥75 | 指主变满足N-1的比例情况 | ||
C7/% | B类区, ≥90;C类区, ≥80;D类区, ≥60 | 反映地区线路联络情况 | ||
C8/km | B类区, ≤3;C类区, ≤5;D类区, ≤15 | 指从变电站(配电变压器)二次侧出线到其供电的最远负荷点之间的线路长度 | ||
B3 | C9/% | B类区, 70~90;C类区, 40~60;D类区, 20~40 | 反映线路中电缆和架空绝缘线占线路总长度的比例 | |
C10/% | 0 | 反映地区高损配变情况 | ||
C11/% | — | 反映配网系统内的电缆长度占总线路长度情况 | ||
B4 | C12/% | B类区, ≥99.965;C类区, ≥99.863; D类区, ≥99.726 | 是供电可靠性的定量表示,供电可靠性是持续供电能力的量度 | |
C13/h | — | 这2个指标反映电网供电可靠性情况 | ||
C14/h | — | |||
C15/% | B类区, ≥99.95;C类区, ≥98.79:D类区, ≥97 | 指实际运行电压在允许电压偏差范围内累计运行时间与对应总运行统计时间的百分比 | ||
B5 | C16/% | B类区, 100;C类区, ≥80;D类区, ≥70 | 从这3个指标可以看出地区智能设备的占比情况,从而反映电网智能化水平 | |
C17/% | B类区, 100;C类区, ≥80;D类区, ≥70 | |||
C18/% | B类区, 100;C类区, ≥90:D类区, ≥80 | |||
A2 | B6 | C19/% | ≤6.63 | 这3个指标反映一个区域内总的线损,主要考量地区节能减排、损耗情况 |
C20/% | ≤2 | |||
C21/% | 0 | |||
C22/亿元 | — | 这3个指标反映地区经营生产及收入情况 | ||
C23/% | ≥58.9 | |||
C24/% | ≥99.95 | |||
B7 | C25/% | ≥10 | 反映地区电量增长情况 | |
C26 | 0~1 | 指负荷增长与GDP增长的比值 | ||
B8 | C27/次 | 0 | 电力安全生产的目标是维护电力系统安全稳定、保证电力正常供应,杜绝人身死亡、主设备严重损坏等重大特大事故 | |
C28/次 | 0 | |||
C29/次 | 0 | |||
B9 | C30/% | 100 | 反映客户对服务满意度情况 | |
C31/% | ≥2 | 这2个指标反映客户用电服务需求情况 | ||
C32/% | ≥2 |
Tab. 1 Description of each index
一级指标 | 二级指标 | 三级指标 | 合理取值 | 注释 |
---|---|---|---|---|
A1 | B1 | C1 | 1.8~2.2 | 指某一供电区内变电设备总容量与供电区最大负荷(网供负荷)之比,反映容量备用情况 |
C2/(kV⋅A/户) | 1.5~3.0 | 指负责居民供电的配电容量与居民用户数之比,反映供电能力情况 | ||
C3/% | ≤5 | 指重载线路与全部线路之比,反映区域重载线路情况 | ||
C4/% | ≤5 | 指重载主变与全部线路之比,反映区域重载主变情况 | ||
B2 | C5/% | B类区, 100;C类区, ≥80;D类区, ≥60 | 指线路中满足N-1的比例,反映线路中的分段情况 | |
C6/% | B类区, 100;C类区, ≥90;D类区, ≥75 | 指主变满足N-1的比例情况 | ||
C7/% | B类区, ≥90;C类区, ≥80;D类区, ≥60 | 反映地区线路联络情况 | ||
C8/km | B类区, ≤3;C类区, ≤5;D类区, ≤15 | 指从变电站(配电变压器)二次侧出线到其供电的最远负荷点之间的线路长度 | ||
B3 | C9/% | B类区, 70~90;C类区, 40~60;D类区, 20~40 | 反映线路中电缆和架空绝缘线占线路总长度的比例 | |
C10/% | 0 | 反映地区高损配变情况 | ||
C11/% | — | 反映配网系统内的电缆长度占总线路长度情况 | ||
B4 | C12/% | B类区, ≥99.965;C类区, ≥99.863; D类区, ≥99.726 | 是供电可靠性的定量表示,供电可靠性是持续供电能力的量度 | |
C13/h | — | 这2个指标反映电网供电可靠性情况 | ||
C14/h | — | |||
C15/% | B类区, ≥99.95;C类区, ≥98.79:D类区, ≥97 | 指实际运行电压在允许电压偏差范围内累计运行时间与对应总运行统计时间的百分比 | ||
B5 | C16/% | B类区, 100;C类区, ≥80;D类区, ≥70 | 从这3个指标可以看出地区智能设备的占比情况,从而反映电网智能化水平 | |
C17/% | B类区, 100;C类区, ≥80;D类区, ≥70 | |||
C18/% | B类区, 100;C类区, ≥90:D类区, ≥80 | |||
A2 | B6 | C19/% | ≤6.63 | 这3个指标反映一个区域内总的线损,主要考量地区节能减排、损耗情况 |
C20/% | ≤2 | |||
C21/% | 0 | |||
C22/亿元 | — | 这3个指标反映地区经营生产及收入情况 | ||
C23/% | ≥58.9 | |||
C24/% | ≥99.95 | |||
B7 | C25/% | ≥10 | 反映地区电量增长情况 | |
C26 | 0~1 | 指负荷增长与GDP增长的比值 | ||
B8 | C27/次 | 0 | 电力安全生产的目标是维护电力系统安全稳定、保证电力正常供应,杜绝人身死亡、主设备严重损坏等重大特大事故 | |
C28/次 | 0 | |||
C29/次 | 0 | |||
B9 | C30/% | 100 | 反映客户对服务满意度情况 | |
C31/% | ≥2 | 这2个指标反映客户用电服务需求情况 | ||
C32/% | ≥2 |
一级指标 | 权重 | 二级指标 | 权重 | 三级指标 | 权重 |
---|---|---|---|---|---|
A1 | 0.5 | B1 | 0.251 | C1 | 0.313 |
C2 | 0.191 | ||||
C3 | 0.256 | ||||
C4 | 0.240 | ||||
B2 | 0.276 | C5 | 0.264 | ||
C6 | 0.264 | ||||
C7 | 0.238 | ||||
C8 | 0.234 | ||||
B3 | 0.118 | C9 | 0.629 | ||
C10 | 0.271 | ||||
C11 | 0.100 | ||||
B4 | 0.243 | C12 | 0.357 | ||
C13 | 0.325 | ||||
C14 | 0.175 | ||||
C15 | 0.143 | ||||
B5 | 0.112 | C16 | 0.363 | ||
C17 | 0.487 | ||||
C18 | 0.150 | ||||
A2 | 0.5 | B6 | 0.207 | C19 | 0.434 |
C20 | 0.057 | ||||
C21 | 0.094 | ||||
C22 | 0.145 | ||||
C23 | 0.137 | ||||
C24 | 0.132 | ||||
B7 | 0.152 | C25 | 0.546 | ||
C26 | 0.454 | ||||
B8 | 0.382 | C27 | 0.275 | ||
C28 | 0.089 | ||||
C29 | 0.636 | ||||
B9 | 0.259 | C30 | 0.537 | ||
C31 | 0.236 | ||||
C32 | 0.227 |
Tab. 2 Weight values of each index
一级指标 | 权重 | 二级指标 | 权重 | 三级指标 | 权重 |
---|---|---|---|---|---|
A1 | 0.5 | B1 | 0.251 | C1 | 0.313 |
C2 | 0.191 | ||||
C3 | 0.256 | ||||
C4 | 0.240 | ||||
B2 | 0.276 | C5 | 0.264 | ||
C6 | 0.264 | ||||
C7 | 0.238 | ||||
C8 | 0.234 | ||||
B3 | 0.118 | C9 | 0.629 | ||
C10 | 0.271 | ||||
C11 | 0.100 | ||||
B4 | 0.243 | C12 | 0.357 | ||
C13 | 0.325 | ||||
C14 | 0.175 | ||||
C15 | 0.143 | ||||
B5 | 0.112 | C16 | 0.363 | ||
C17 | 0.487 | ||||
C18 | 0.150 | ||||
A2 | 0.5 | B6 | 0.207 | C19 | 0.434 |
C20 | 0.057 | ||||
C21 | 0.094 | ||||
C22 | 0.145 | ||||
C23 | 0.137 | ||||
C24 | 0.132 | ||||
B7 | 0.152 | C25 | 0.546 | ||
C26 | 0.454 | ||||
B8 | 0.382 | C27 | 0.275 | ||
C28 | 0.089 | ||||
C29 | 0.636 | ||||
B9 | 0.259 | C30 | 0.537 | ||
C31 | 0.236 | ||||
C32 | 0.227 |
县级供电企业 | 电网发展评价 | 生产经营评价 | 综合评价 | 排名 |
---|---|---|---|---|
平均水平 | 88.75 | 91.00 | 89.87 | — |
三营供电公司 | 84.64 | 83.57 | 84.10 | 17 |
彭阳县供电公司 | 85.30 | 91.23 | 88.26 | 11 |
西吉县供电公司 | 80.96 | 89.09 | 85.02 | 16 |
隆德县供电公司 | 85.50 | 88.51 | 87.00 | 14 |
泾源县供电公司 | 92.75 | 85.93 | 89.34 | 10 |
盐池县供电公司 | 86.99 | 94.00 | 90.49 | 9 |
红果子供电公司 | 96.26 | 90.26 | 93.26 | 6 |
平罗县供电公司 | 96.01 | 90.65 | 93.33 | 5 |
惠农供电公司 | 97.57 | 92.17 | 94.87 | 3 |
红寺堡供电公司 | 92.03 | 92.32 | 92.18 | 8 |
同心县供电公司 | 88.21 | 86.46 | 87.33 | 12 |
青铜峡市供电公司 | 90.44 | 95.56 | 93.00 | 7 |
永宁县供电公司 | 93.76 | 96.94 | 95.35 | 2 |
贺兰县供电公司 | 94.16 | 94.01 | 94.09 | 4 |
灵武市供电公司 | 95.52 | 96.27 | 95.89 | 1 |
中宁县供电公司 | 79.70 | 93.16 | 86.43 | 15 |
海兴供电公司 | 81.29 | 92.90 | 87.10 | 13 |
海原县供电公司 | 76.32 | 85.01 | 80.67 | 18 |
Tab. 3 Evaluation results and rankings
县级供电企业 | 电网发展评价 | 生产经营评价 | 综合评价 | 排名 |
---|---|---|---|---|
平均水平 | 88.75 | 91.00 | 89.87 | — |
三营供电公司 | 84.64 | 83.57 | 84.10 | 17 |
彭阳县供电公司 | 85.30 | 91.23 | 88.26 | 11 |
西吉县供电公司 | 80.96 | 89.09 | 85.02 | 16 |
隆德县供电公司 | 85.50 | 88.51 | 87.00 | 14 |
泾源县供电公司 | 92.75 | 85.93 | 89.34 | 10 |
盐池县供电公司 | 86.99 | 94.00 | 90.49 | 9 |
红果子供电公司 | 96.26 | 90.26 | 93.26 | 6 |
平罗县供电公司 | 96.01 | 90.65 | 93.33 | 5 |
惠农供电公司 | 97.57 | 92.17 | 94.87 | 3 |
红寺堡供电公司 | 92.03 | 92.32 | 92.18 | 8 |
同心县供电公司 | 88.21 | 86.46 | 87.33 | 12 |
青铜峡市供电公司 | 90.44 | 95.56 | 93.00 | 7 |
永宁县供电公司 | 93.76 | 96.94 | 95.35 | 2 |
贺兰县供电公司 | 94.16 | 94.01 | 94.09 | 4 |
灵武市供电公司 | 95.52 | 96.27 | 95.89 | 1 |
中宁县供电公司 | 79.70 | 93.16 | 86.43 | 15 |
海兴供电公司 | 81.29 | 92.90 | 87.10 | 13 |
海原县供电公司 | 76.32 | 85.01 | 80.67 | 18 |
县级供电企业 | 与灵武市供电公司差异来源的占比/% | |
---|---|---|
电网发展 | 生产经营 | |
三营供电公司 | 46.32 | 53.68 |
彭阳县供电公司 | 67.14 | 32.86 |
西吉县供电公司 | 67.14 | 32.86 |
隆德县供电公司 | 56.53 | 43.47 |
泾源县供电公司 | 21.26 | 78.74 |
盐池县供电公司 | 100.00 | 0 |
红果子供电公司 | -14.27 | 114.27 |
平罗县供电公司 | -9.72 | 109.72 |
惠农供电公司 | 0 | 100.00 |
红寺堡供电公司 | 100.00 | 0 |
同心县供电公司 | 100.00 | 0 |
青铜峡市供电公司 | 87.86 | 12.14 |
永宁县供电公司 | 100.00 | 0 |
贺兰县供电公司 | 37.67 | 62.33 |
灵武市供电公司 | — | — |
中宁县供电公司 | 83.68 | 16.32 |
海兴供电公司 | 80.99 | 19.01 |
海原县供电公司 | 63.22 | 36.78 |
Tab. 4 Comparison of regional differences
县级供电企业 | 与灵武市供电公司差异来源的占比/% | |
---|---|---|
电网发展 | 生产经营 | |
三营供电公司 | 46.32 | 53.68 |
彭阳县供电公司 | 67.14 | 32.86 |
西吉县供电公司 | 67.14 | 32.86 |
隆德县供电公司 | 56.53 | 43.47 |
泾源县供电公司 | 21.26 | 78.74 |
盐池县供电公司 | 100.00 | 0 |
红果子供电公司 | -14.27 | 114.27 |
平罗县供电公司 | -9.72 | 109.72 |
惠农供电公司 | 0 | 100.00 |
红寺堡供电公司 | 100.00 | 0 |
同心县供电公司 | 100.00 | 0 |
青铜峡市供电公司 | 87.86 | 12.14 |
永宁县供电公司 | 100.00 | 0 |
贺兰县供电公司 | 37.67 | 62.33 |
灵武市供电公司 | — | — |
中宁县供电公司 | 83.68 | 16.32 |
海兴供电公司 | 80.99 | 19.01 |
海原县供电公司 | 63.22 | 36.78 |
1 | 殷超 .县级供电企业工程项目精益化管理研究[D].北京:华北电力大学,2017. doi:10.21474/ijar01/8160 |
YIN C .Research on lean management of engineering projects in county-level power supply enterprises[D].Beijing:North China Electric Power University,2017. doi:10.21474/ijar01/8160 | |
2 | 莫晓明 .县级供电企业现金预算精益化分析及优化管理策略研究[D].北京:华北电力大学,2016. |
MO X M .Lean analysis and optimal management strategy research on cash budget of county-level power supply enterprises[D].Beijing:North China Electric Power University,2016. | |
3 | 李俊贤,程文俊,贺永龙 .基于AHP的基层供电企业电网发展和生产经营评价体系研究[J].青海电力,2018,37(1):58-64. |
LI J X, CHENG W J, HE Y L .Research on grid development and production management evaluation system of grassroots power supply enterprises based on AHP[J].Power System Technology,2018,37(1):58-64. | |
4 | 安鹏,王振坤,郑志杰,等 .县级供电企业电网发展及生产经营数据分析与综合评价方法研究[J].山东电力技术,2018,45(10):12-17. doi:10.3969/j.issn.1007-9904.2018.10.004 |
AN P, WANG Z K, ZHENG Z J,et al .Data analysis and comprehensive evaluation of power grid development and operation for county grid corporation[J].Shandong Electric Power,2018,45(10):12-17. doi:10.3969/j.issn.1007-9904.2018.10.004 | |
5 | 郭泉辉,钟士元,崔文婷,等 .县级供电企业电网发展和生产经营综合评价方法及应用[J].供用电,2018,35(5):49-56. |
GUO Q H, ZHONG S Y, CUI W T,et al .Comprehensive evaluation method and application of power grid development and operation of county electric power company[J].Distribution &Utilization,2018,35(5):49-56. | |
6 | 赵文杰,白宏坤,李虎军,等 .基于全要素生产效率的县级供电公司综合评价[J].集成电路应用,2019,36(1):84-85. doi:10.1088/1755-1315/252/3/032053 |
ZHAO W J, BAI H K, LI H J,et al .Comprehensive evaluation of county power supply company based on TFP[J].Application of IC,2019,36(1):84-85. doi:10.1088/1755-1315/252/3/032053 | |
7 | 邓美琴,李博,李欢,等 .基于Delphi-AHP模型的电网发展及生产经营综合评价研究[J].现代工业经济和信息化,2018,8(11):20-23. |
DENG M Q, LI B, LI H,et al .Research on comprehensive evaluation of power network development and production management based on Delphi-AHP model[J].Modern Industrial Economy and Informationization,2018,8(11):20-23. | |
8 | 刘万勋,于琳琳,张丽华,等 .基于AHP和多级模糊综合评判的电网发展水平评估[J].智慧电力,2020,48(5):80-85. doi:10.3969/j.issn.1673-7598.2020.05.013 |
LIU W X, YU L L, ZHANG L H,et al .Evaluation of power grid development level based on AHP and multi-level fuzzy comprehensive evaluation[J].Smart Power,2020,48(5):80-85. doi:10.3969/j.issn.1673-7598.2020.05.013 | |
9 | 郭铭群,赖清平,卢杰,等 .基于SWOT-云物元理论的城市配电网发展形态评估方法[J].电力建设,2020,41(11):71-77. doi:10.12204/j.issn.1000-7229.2020.11.007 |
GUO M Q, LAI Q P, LU J,et al .Evaluation based on cloud matter element theory for the development form of urban distribution network[J].Electric Power Construction,2020,41(11):71-77. doi:10.12204/j.issn.1000-7229.2020.11.007 | |
10 | 覃丹,陈奕达,林强,等 .基于“EGM-PCA”组合算法的县域配电网评估模型构建[J].电网与清洁能源,2020,36(12):24-29. |
QIN D, CHEN Y D, LIN Q,et al .Construction of county distribution network evaluation model based on “EGM-PCA”combination algorithm[J].Power System and Clean Energy,2020,36(12):24-29. | |
11 | 肖勇,陆文升,李云涛,等 .城市配电网发展形态指标体系及其评估方法研究[J].电力系统保护与控制,2021,49(1):62-71. |
XIAO Y, LU W S, LI Y T,et al .Research on index system and its evaluation methods of urban distribution network development form[J].Power System Protection and Control,2021,49(1):62-71. | |
12 | 胡源,熊天军,薛松,等 .增量配售电公司评价方法研究[J].智慧电力,2020,48(6):47-53. doi:10.3969/j.issn.1673-7598.2020.06.008 |
HU Y, XIONG T J, XUE S,et al .Comprehensive evaluation of incremental electricity distribution and retail company[J].Smart Power,2020,48(6):47-53. doi:10.3969/j.issn.1673-7598.2020.06.008 | |
13 | 罗宁,贺墨琳,高华,等 .基于改进的AHP-CRITIC组合赋权与可拓评估模型的配电网综合评价方法[J].电力系统保护与控制,2021,49(16):86-96. |
LUO N, HE M L, GAO H,et al .Comprehensive evaluation method for a distribution network based on improved AHP-CRITIC combination weighting and an extension evaluation model[J].Power System Protection and Control,2021,49(16):86-96. | |
14 | 段穰达 .有源配网后评价指标体系及其综合评价方法[J].发电技术,2021,42(1):86-93. doi:10.12096/j.2096-4528.pgt.20102 |
DUAN R D .A post-evaluation index system of active distribution network project and its comprehensive evaluation method[J].Power Generation Technology,2021,42(1):86-93. doi:10.12096/j.2096-4528.pgt.20102 | |
15 | 汤旻安,张凯越,许希元 .基于启发式规则与AHP-CRITIC算法的配电网故障恢复策略[J].电力系统保护与控制,2020,48(14):1-9. |
TANG M A, ZHANG K Y, XU X Y .Service restoration strategy of a distribution network based on heuristic rules and the AHP-CRITIC algorithm[J].Power System Protection and Control,2020,48(14):1-9. | |
16 | 吕志鹏,吴鸣,宋振浩,等 .电能质量CRITIC-TOPSIS综合评价方法[J].电机与控制学报,2020,24(1):137-144. |
LV Z P, WU M, SONG Z H,et al .Comprehensive evaluation of power quality on CRITIC-TOPSIS method[J].Electric Machines and Control,2020,24(1):137-144. | |
17 | 赵书强,汤善发 .基于改进层次分析法、CRITIC法与逼近理想解排序法的输电网规划方案综合评价[J].电力自动化设备,2019,39(3):143-148. |
ZHAO S Q, TANG S F .Comprehensive evaluation of transmission network planning scheme based on improved analytic hierarchy process,CRITIC method and TOPSIS[J].Electric Power Automation Equipment,2019,39(3):143-148. | |
18 | 张兴平,张又中 .计及P2G和CCS的园区级电-热-气综合能源系统多目标优化[J].电力建设,2020,41(12):90-99. doi:10.12204/j.issn.1000-7229.2020.12.009 |
ZHANG X P, ZHANG Y Z .Multi-objective optimization model for park-level electricity-heat-gas integrated energy system considering P2G and CCS[J].Electric Power Construction,2020,41(12):90-99. doi:10.12204/j.issn.1000-7229.2020.12.009 | |
19 | LIU H, WANG H, LIN L,et al .Prediction of photovoltaic power based on entropy weight combination forecasting method[J].IEEE 4th Conference on Energy Internet and Energy System Integration (EI 2).Wuhan:IEEE,2020:4081-4086. |
20 | 李晨,殷自力,王晓辉,等 .基于层次分析法和熵权法的配电网调度评价[J].电力系统及其自动化学报,2019,31(7):81-87. |
LI C, YIN Z L, WANG X H,et al .Assessment on distribution network dispatching based on analytic hierarchy process and entropy weight method[J].Proceedings of the CSU-EPSA,2019,31(7):81-87. | |
21 | 吴忠,关娇,何江 .最低工资标准测算实证研究:基于CRITIC-熵权法客观赋权的动态组合测算[J].当代经济科学,2019,41(3):103-117. |
WU Z, GUAN J, HE J .An empirical study on the calculation of minimum wage standard:dynamic combination calculation based on objective weight of CRITIC-entropy weight method[J].Modern Economic Scienc,2019,41(3):103-117. | |
22 | 傅为忠,储刘平 .长三角一体化视角下制造业高质量发展评价研究:基于改进的CRITIC-熵权法组合权重的TOPSIS评价模型[J].工业技术经济,2020,39(9):145-152. |
FU W Z, CHU L P .Research on the evaluation of high quality development of manufacturing industry from the perspective of integration of the Yangtze River delta:TOPSIS evaluation model based on improved CRITICAL-entropy weight method[J].Journal of Industrial Technological Economics,2020,39(9):145-152. |
[1] | Hongbo LIU, Shencheng LIU, Xueyang GAI, Yongfa LIU, Yutong YAN. Overview of Active Distribution Network Planning With High Proportion of New Energy Access [J]. Power Generation Technology, 2024, 45(1): 151-161. |
[2] | Zhihua CHEN, Mengkai YOU, Wei CAI, Jingwei HU, Xing HU, Aifang ZHANG, Kejie ZHANG, Wei WANG. Comprehensive Evaluation Model of Energy Storage Power Station With Full Life Cycle [J]. Power Generation Technology, 2023, 44(6): 883-888. |
[3] | Xiwu LENG, Chuang LIU, Lei HE, Jian XING. Research and Application of Grid-Connected Operation Standard for Adjustable Load [J]. Power Generation Technology, 2022, 43(6): 834-842. |
[4] | Ning WANG, Zhiqiang CHEN, Mingyi LIU, Peng ZHANG, Xi CAO, Zeyu LU, Haodong LEI, Chuanzhao CAO, Xiao YAN, Guopeng ZHOU. Health Status Assessment of Lithium-ion Battery Based on Fuzzy Comprehensive Evaluation [J]. Power Generation Technology, 2022, 43(5): 784-791. |
[5] | Jianwei LIU, Xuebin LI, Xiaoou LIU. Distributed Power Access and Energy Storage Configuration in Active Distribution Network [J]. Power Generation Technology, 2022, 43(3): 476-484. |
[6] | Guiyun YANG, Qian WU, Yankun CAO, Xiaoyu HOU, Hua SUN, Jian WANG. Automatic Generation Algorithm of Distribution Network Topology Based on Hierarchical Layout [J]. Power Generation Technology, 2021, 42(5): 585-594. |
[7] | Rangda DUAN. A Post-evaluation Index System of Active Distribution Network Project and Its Comprehensive Evaluation Method [J]. Power Generation Technology, 2021, 42(1): 86-93. |
[8] | Xin GAO, Fei TANG, Tongyan ZHANG, Yu LI. Optimal Decision-making Method of Wind-proof and Disaster-resistant Reinforcement Measures for Distribution Network [J]. Power Generation Technology, 2021, 42(1): 78-85. |
[9] | Si GU, Xiao SUN, Chang MA, Jing CHEN. Improved Power Flow Algorithm for Distributed Ring Network Based on Loop Analysis [J]. Power Generation Technology, 2020, 41(6): 675-680. |
[10] | Qian ZHAO,Xiao ZHANG,Hong WANG,Rui MA,Tianhua WANG,Yuan ZHANG,Yanmin WANG. Research on Construction Method of Distribution Network Data Pool Integrating Block Chain Concept [J]. Power Generation Technology, 2019, 40(6): 540-547. |
[11] | Dongdong ZHOU,Yibo LI,Anqi YANG,Tao SHENG. ADMM Algorithm for Distributed Computation of Block Chain System and Application in Active Distribution Network [J]. Power Generation Technology, 2019, 40(2): 115-121. |
[12] | Zuping ZHANG,Qiyu CHEN,Xiuyuan YANG,Yuhuan HE. Study of the Group Controlling on Large-Capacity DC Charging Piles for Peak Load Regulation [J]. Power Generation Technology, 2019, 40(1): 11-16. |
[13] | Fujian CHI,Cong LIU,Yuan ZHANG,Guixin LI,Zhe WANG,Yankun CAO,Yuehui LI. Summary of Urban Distribution Network Structure Mode and Substation Configuration at Home and Abroad [J]. Power Generation Technology, 2018, 39(6): 499-504. |
[14] | Dan ZOU,Xin AI,Ao WANG,Kunyu WANG,Renle HUANG,Naishi CHEN,Tianjiao PU. Virtual Synchronous Generator Control Strategy of Three Terminal Back-To-Back Voltage Source Converter Based HVDC and Its Application in Distribution Network [J]. Power Generation Technology, 2018, 39(3): 233-239. |
[15] | Shuifu GU,Yuan ZHANG,Xiying CHEN. Research on the Planning Method of Active Distribution Network [J]. Power Generation Technology, 2018, 39(3): 220-225. |
Viewed | ||||||
Full text |
|
|||||
Abstract |
|
|||||