Page 60 - 电力与能源2024年第四期
P. 60
454 刘嘉宝,等:配网励磁涌流引起线路保护误动作的分析及处理
参考文献: [7] 李 超 . 干式变压器励磁涌流对线路保护定值的影响[J] .
[1] 黄大卓,严柏平,沈春城,等 . 基于二次谐波分量衰减特性 信息通信,2019(10):254-255.
的 变 压 器 励 磁 涌 流 识 别 方 法[J] 变 压 器 ,2023,60(1): [8] 闵喜艳 . 配电变压器励磁涌流引起的 10 kV 线路保护误动
.
.
分析[J] 通信电源技术,2019,36(6):224-225.
28-34.
[2] 赵 强 . 励磁涌流引起变压器过电流保护动作的原因分析 [9] 付振强,周振宇,王 舒,等 . 10 kV 配电线路保护误动原
因分析[J] 东北电力技术,2017,38(1):39-42.
.
与措施[J] 电气化铁道,2021,32(增刊 1):108-113.
.
[3] 叶志军,于 旺,郑荣显,等 . 变压器空充下的励磁涌流二 [10] 任明辉 . 配网励磁涌流导致保护误动原因分析与抑制方法
.
次 谐 波 特 性 分 析[J] 电 力 系 统 自 动 化 ,2020,44(24): 研究[J] 高压电器,2013,49(12):59-63.
.
[11] 杨德飞 . 变 压 器 励 磁 涌 流 计 算 方 法[J] 中 国 科 技 信 息 ,
.
145-150.
[4] 李建平 . 浅析励磁涌流致使变压器投运不成功的原因[J] . 2022(17):78-80.
[12] 朱 江,潘冬东,方雨康,等 . 暂态录波型故障指示器在小
中国新技术新产品,2019(23):37-38.
.
[5] 董立天,华耀青 . 小电流接地系统无时限速断保护应用中 电阻接地系统中录波启动判据研究[J] 农村电气化,2020
(4):28-30.
.
的常见问题及对策[J] 高压电器,2003(3):76-77.
[6] 葛天奇,王华明 . 配电变压器空载励磁涌流的时频域相关 收稿日期:2024-03-28
性分析[J] 光源与照明,2021(11):83-85. (本文编辑:赵艳粉)
.
(上接第 417 页)
[3] CHEN M Z,LU H,CHANG X Q,et al. An optimization 119508.
on an integrated energy system of combined heat and [10] YANG P,JIANG H,LIU C,et al. Coordinated optimiza⁃
power,carbon capture system and power to gas by consider⁃ tion scheduling operation of integrated energy system con⁃
.
ing flexible load[J] Energy,2023,273:127203. sidering demand response and carbon trading mechanism
[4] LI C,FENG C,LI J,et al. Comprehensive frequency [J] International Journal of Electrical Power & Energy
.
regulation control strategy of thermal power generating unit Systems,2023,147:108902.
and ESS considering flexible load simultaneously participat⁃ [11] JIANG T,SONG J,YU Y. The influencing factors of car⁃
ing in AGC[J] Journal of Energy Storage,2023,58: bon trading companies applying blockchain technology:Evi⁃
.
.
106394. dence from eight carbon trading pilots in China[J] Environ⁃
[5] NI L,LIU W,WEN F,et al. Optimal operation of elec⁃ mental Science and Pollution Research,2022,29:28624-
tricity,natural gas and heat systems considering integrated 28636.
.
demand responses and diversified storage devices[J] Jour⁃ [12] AL SADAWI A,MADANI B,SABOOR S,et al. A
nal of Modern Power Systems and Clean Energy,2018,6 comprehensive hierarchical blockchain system for carbon
(3):423-437. emission trading utilizing blockchain of things and smart con⁃
[6] DOLATABADI A,MOHAMMADI-IVATLOO B. Sto⁃ tract[J] Technological Forecasting and Social Change,
.
chastic risk-constrained scheduling of smart energy hub in 2021,173:121124.
the presence of wind power and demand response[J]. [13] HUA W,JIANG J,SUN H,et al. A blockchain based
Applied Thermal Engineering,2017,123:40-49. peer-to-peer trading framework integrating energy and car⁃
[7] 卫志农,张思德,孙国强,等 . 基于碳交易机制的电-气互 bon markets[J] Applied Energy,2020,279:115539.
.
联 综 合 能 源 系 统 低 碳 经 济 运 行[J] 电 力 系 统 自 动 化 , [14] 王泽森,石 岩,唐艳梅,等 . 考虑 LCA 能源链与碳交易
.
.
2016,40(15):9-16. 机制的综合能源系统低碳经济运行及能效分析[J] 中国
[8] 周任军,李绍金,陈瑞先,等 . 采用模糊自修正粒子群算 电机工程学报,2019,39(6):1614-1626.
法的碳排放权交易冷热电多目标调度[J] 中国电机工程 [15] ZHANG Y,YANG J,HU W. Multi-connected blockchain
.
学报,2014,34(34):6119-6126. electricity carbon emission quote trading model based on
[9] LU Q,GUO Q,ZENG W. Optimal dispatch of commu⁃ reputation value[J] Journal of Environmental Protection
.
nity integrated energy system based on Stackelberg game and Ecology,2022,23(1):194-205.
and integrated demand response under carbon trading 收稿日期:2024-03-22
mechanism[J] Applied Thermal Engineering,2023,219: (本文编辑:赵艳粉)
.

