一体化高压电能计量装置及其在智能配网中的应用
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摘要
智能电网的信息化、互动化特征带动了电力设备向多参数智能化、信息化发展。将先进的传感测量技术、通信技术、信息技术用于一次设备的智能化,以及将一次设备与二次设备有机结合,提升电力设备及装置的性能及智能化、信息化水平成为未来智能电网中设备的发展趋势。
本文研究的重点是10kV配电网中的高压电能计量装置。目前常规的电能计量装置是由电力互感器、电能表及二次联线等环节构成。由于多种设备组合,成本高、安装不便,且中间环节容易导致误差、窃电等影响计量准确度的结果。因此本文目的是研制一种新型一体化高压电能计量装置,可以替代常规电力互感器、电能表及二次联线的组合作用,具有更高的计量准确度和智能化功能。
新型一体化高压电能计量装置基于“法拉第笼原理”,将计量集成电路等电位悬浮在高压侧,使装置体积及重量缩减到常规电能计量装置的1/3以下,具备低功耗、资源节约、易安装、信息化的特点。该装置直接从高压侧计量电能,输出与常规低压电能表相同形式的电能数据及脉冲量,为方便描述起见,本文称之为高压电能表。高压电能表具有更高的整体准确度,同时高压电能表的计量回路工作在高压侧,可以从根本上杜绝低压侧窃电行为。高压电能表的大量使用,将使配网的可测量点增加,从而帮助人们感知智能配网状态、改善配网的使用效率。
本文阐述了高压电能表的工作原理,并围绕高压电能表研制的关键问题进行研究。包括电容式电压信号传感器的材料选择,表体的内绝缘、外绝缘设计,高压电位下如何获取工作电源,以及高压电位下数据如何可靠传输至地电位等。
新型高压电能表必须采用整体误差校验系统来定义准确度等级。传统电能计量装置是由分离的标准校准,然后用综合误差公式推导出一个估计出的误差。本文在传统标准溯源原理的基础上,研制了新型高压电能表的基准电能计量系统,并对基准系统进行了误差分析。该基准系统不仅可对新型高压电能表进行标定,也可对传统电能计量装置进行整体准确度的标定。
新型高压电能表直接用于高压配电线路上,与传统电力互感器和电能表的工作环境相同。本文参考电力互感器及电能表的相关国家标准,对高压电能表的可靠性试验、准确度试验和环境试验方法和数据进行了分析研究。并对高压电能表现场试运行情况和数据进行了分析及评价。
本文最后研究了新型高压电能表在智能配网中的特殊应用。高压电能表除可替代常规电能计量装置外,还可作为“整体计量标准”。在用电环节,高压电能表可以用来做重点工业用户的在线监测标准；在配电环节,高压电能表可以用作线路上的计量装置,与低压用电侧的电能表构成分级式防窃电系统,方便进行窃电行为的定位。
The information, interactive features of smart grid led to a multi-parameter intelligent, information-based development of electrical equipment. To apply advanced sensor measurement technology, communications technology, information technology on primary electrical equipment for intelligence, and a combination of primary equipment and secondary equipment to enhance the performance, intelligence and information level of electrical equipment is the future smart grid trends.
This paper is focus on high voltage energy meter device in lOkV distribution power network. The current energy metering device is composed of power transformers, power meters and middle connection wire links. This combination of varies equipments leads high cost and inconvenience of installation, and the intermediate links easily lead to errors and so affect the measurement accuracy of the results. Therefore this paper aims to develop a new type of integrated energy metering device, which can replace the combinations of conventional power transformers, power meters and their wire connection links. The new device has higher integrated accuracy grade and intelligence level.
The paper adopts principle of Faraday cage to make meter circuit working at high voltage level, which can reduce the volume and weight of HVEM to 1/3 of conventional energy meter device. It has characteristics of low power consumption, resource-saving, easy installation, and intelligent information. As the metering device directly connected to high voltage side, and with the same output of power meter, energy data and the energy pulse, it can be called high voltage energy meter (HVEM) in this paper for the sake of description convenience. The HVEM has higher integrated accuracy grade, and with the meter circuit working at high voltage side, it can basically eliminate electricity stealing behavior at the low voltage side. The widely application of HVEM can increase the measurable point in distribution network, which help people perceive state of power network and improve its efficiency.
This paper describes the principle of HVEM, and key issues in development process. Such as material selection of capacitor voltage transducer, inner and outer insulation of device, how to acquire the working power at high voltage and how to transmit data to ground potential from high voltage.
The accuracy grade of novel HVEM must be defined by integrated error calibration system. The conventional energy meter devices are calibrated by corresponding standard separately, then derived an estimated error from complex error formula. Based on the conventional principle of standards traceability, this paper developed novel measurement standards, and had carried on its error analysis. The measurement standards can not only be able to calibrate HVEM, but also the conventional power metering device.
The novel HVEM is directly used on high voltage power line, the same working condition with power transformer and energy meter. Reference to the state standards of power transformer and power meter, this paper researched tests methods, such as reliability, accuracy test and environmental test, and analyzed data of tests results. It also analyzed and estimated field testing results of HVEM.
Finally, the paper describes the special application in the intelligent power grid. In addition to replace conventional measuring device, the HVEM can be used as "integrated metering standards". Therefore, in addition to replace conventional meter device, the HVEM can be used as on-line monitoring metering standards for important customer. It also can be applied as metering device on high voltage power line, which constitutes a hierarchical anti-theft system with low voltage customer meters, to facilitate positioning of stealing behavior.
本文研究的重点是10kV配电网中的高压电能计量装置。目前常规的电能计量装置是由电力互感器、电能表及二次联线等环节构成。由于多种设备组合,成本高、安装不便,且中间环节容易导致误差、窃电等影响计量准确度的结果。因此本文目的是研制一种新型一体化高压电能计量装置,可以替代常规电力互感器、电能表及二次联线的组合作用,具有更高的计量准确度和智能化功能。
新型一体化高压电能计量装置基于“法拉第笼原理”,将计量集成电路等电位悬浮在高压侧,使装置体积及重量缩减到常规电能计量装置的1/3以下,具备低功耗、资源节约、易安装、信息化的特点。该装置直接从高压侧计量电能,输出与常规低压电能表相同形式的电能数据及脉冲量,为方便描述起见,本文称之为高压电能表。高压电能表具有更高的整体准确度,同时高压电能表的计量回路工作在高压侧,可以从根本上杜绝低压侧窃电行为。高压电能表的大量使用,将使配网的可测量点增加,从而帮助人们感知智能配网状态、改善配网的使用效率。
本文阐述了高压电能表的工作原理,并围绕高压电能表研制的关键问题进行研究。包括电容式电压信号传感器的材料选择,表体的内绝缘、外绝缘设计,高压电位下如何获取工作电源,以及高压电位下数据如何可靠传输至地电位等。
新型高压电能表必须采用整体误差校验系统来定义准确度等级。传统电能计量装置是由分离的标准校准,然后用综合误差公式推导出一个估计出的误差。本文在传统标准溯源原理的基础上,研制了新型高压电能表的基准电能计量系统,并对基准系统进行了误差分析。该基准系统不仅可对新型高压电能表进行标定,也可对传统电能计量装置进行整体准确度的标定。
新型高压电能表直接用于高压配电线路上,与传统电力互感器和电能表的工作环境相同。本文参考电力互感器及电能表的相关国家标准,对高压电能表的可靠性试验、准确度试验和环境试验方法和数据进行了分析研究。并对高压电能表现场试运行情况和数据进行了分析及评价。
本文最后研究了新型高压电能表在智能配网中的特殊应用。高压电能表除可替代常规电能计量装置外,还可作为“整体计量标准”。在用电环节,高压电能表可以用来做重点工业用户的在线监测标准；在配电环节,高压电能表可以用作线路上的计量装置,与低压用电侧的电能表构成分级式防窃电系统,方便进行窃电行为的定位。
The information, interactive features of smart grid led to a multi-parameter intelligent, information-based development of electrical equipment. To apply advanced sensor measurement technology, communications technology, information technology on primary electrical equipment for intelligence, and a combination of primary equipment and secondary equipment to enhance the performance, intelligence and information level of electrical equipment is the future smart grid trends.
This paper is focus on high voltage energy meter device in lOkV distribution power network. The current energy metering device is composed of power transformers, power meters and middle connection wire links. This combination of varies equipments leads high cost and inconvenience of installation, and the intermediate links easily lead to errors and so affect the measurement accuracy of the results. Therefore this paper aims to develop a new type of integrated energy metering device, which can replace the combinations of conventional power transformers, power meters and their wire connection links. The new device has higher integrated accuracy grade and intelligence level.
The paper adopts principle of Faraday cage to make meter circuit working at high voltage level, which can reduce the volume and weight of HVEM to 1/3 of conventional energy meter device. It has characteristics of low power consumption, resource-saving, easy installation, and intelligent information. As the metering device directly connected to high voltage side, and with the same output of power meter, energy data and the energy pulse, it can be called high voltage energy meter (HVEM) in this paper for the sake of description convenience. The HVEM has higher integrated accuracy grade, and with the meter circuit working at high voltage side, it can basically eliminate electricity stealing behavior at the low voltage side. The widely application of HVEM can increase the measurable point in distribution network, which help people perceive state of power network and improve its efficiency.
This paper describes the principle of HVEM, and key issues in development process. Such as material selection of capacitor voltage transducer, inner and outer insulation of device, how to acquire the working power at high voltage and how to transmit data to ground potential from high voltage.
The accuracy grade of novel HVEM must be defined by integrated error calibration system. The conventional energy meter devices are calibrated by corresponding standard separately, then derived an estimated error from complex error formula. Based on the conventional principle of standards traceability, this paper developed novel measurement standards, and had carried on its error analysis. The measurement standards can not only be able to calibrate HVEM, but also the conventional power metering device.
The novel HVEM is directly used on high voltage power line, the same working condition with power transformer and energy meter. Reference to the state standards of power transformer and power meter, this paper researched tests methods, such as reliability, accuracy test and environmental test, and analyzed data of tests results. It also analyzed and estimated field testing results of HVEM.
Finally, the paper describes the special application in the intelligent power grid. In addition to replace conventional measuring device, the HVEM can be used as "integrated metering standards". Therefore, in addition to replace conventional meter device, the HVEM can be used as on-line monitoring metering standards for important customer. It also can be applied as metering device on high voltage power line, which constitutes a hierarchical anti-theft system with low voltage customer meters, to facilitate positioning of stealing behavior.
引文
[1]中国电力年鉴2009,北京：中国电力出版社,2009
[2]范明天,张祖平.中国配电网发展战略相关问题研究[M].北京：中国电力出版社,2008
[3]发改委公布2009年电力行业运行情况[EB/OL],中国电力网,http://www. chinapower.com.cn/article/1166/art 1166195.asp
[4]刘军,钱奇,刘海涛等.配电网数据采集与线损自动化系统研究[J].电网技术,2006,10(30)：571-574
[5]闵涛,金午桥,余仲明.电能量计量系统接入方案及功能实施[J],电网技术,2003,27(8)：59-63
[6]徐汉城.电流互感器的误差对电能计量的影响分析[J].中国计量,2009,12：87-88
[7]毕胜春.电能计量装置原理[M].北京：中国电力出版社,2000
[8]庞小丽,杨伟.提高电能计量装置的可靠性研究[J].甘肃科技,2010,3(26)：69-70
[9]周莉,刘开培.电能计量误差分析与电能计费问题的讨论[J],电工技术学报,2005,20(2)：63-68
[10]谈绮倩.集中器与配变终端的级联运行分析[J].自动化运用,2010(02)：67-70
[11]项毅.高耗能企业的电能计量与节能途径研究[D].浙江工业大学,2009.
[12]DL/T 448-2000,电能计量装置技术管理规程[S]
[13]GB/T 17883-1999.0.2S级和0.5S级静止式交流有功电度表[S]
[14]卜正良,尹项根,涂光渝.高压电能表的研制[J].电力系统自动化,2006,30(19)89-93
[15]胡顺,徐芝贵.高压电能表的研制进展[J].电测与仪表,2008,45(1)1-3
[16]Linyun Guo,Xianggen Yin. Research on integral error calibrating system of high-voltage electric energy measurement device [C]. UPEC 2007 Conference, 4th-6th September 2007, Brighton, UK
[17]ANDREAS Braun, JoRN Zinkernagel. Optoelectronic Electricity Meter for High-Voltage Lines[J], IEEE Transactions on Instrumentation and Measurement, 1973(4):394-399
[18]刘欣,杨北革,王健,李芙英.新型高压电能表的研究[J].电力系统自动化,2004,28(9)：88-91
[19]郭琳云,尹项根,卜正良,胡顺.10kV配电网的电能整体计量技术研究[J].水电能源科学,2009,27(5)：211-213,223
[20]吴涛,周有庆,龚伟等.基于新型电子式电流互感器的多功能电能表的设计[J].电力系统自动化,2008,32(16)：56-60
[21]曾庆禹.电力系统数字光电量测系统的应用及效益分析[J].电网技术,2001,25(5)：6-11
[22]任雁铭,秦立军,杨奇逊等.变电站自动化系统中内部通信网的研究[J].电网技术,2000,24(5)：42-44
[23]韩富春.变电站综合自动化通信网络几种方式的研究[J].太原理工大学学报,200031(6)：694-696
[24]IEC.IEC 61850-1. Communication Networks and System in Substation Part 1:Instroduction and Overview.Ed1.0,2003
[25]IEC.IEC 61850-2. Communication Networks and System in Substation Part 2: Glossary. Ed1.0,2003
[26]IEC.IEC 61850-2. Communication Networks and System in Substation Part 3: General Requirements. Ed1.0,2002
[27]IEC.IEC 61850-2. Communication Networks and System in Substation Part 4: System and Project Management. Ed 1.0,2002
[28]郭琳云,尹项根,张乐平等.基于高压电能表的计量装置在线校验技术.电力自动化设备.2009,29(12)：79-82
[29]余贻鑫.智能电网的技术组成和实现顺序[J].南方电网技术,2009,3(2)：12-15
[30]ROYER M,TOH K. A review of current routingprotocols for Ad Hoc mobile wireless networks[J].IEEE Personal Communications,1999,2 (6):46-55
[31]Donaldson E, Gibson J, Jones G, et al. Hybrid optical current transformer with optical and power line energization. IEE Proceedings generation, Transmission and Distribution,2002,147(5):304-309
[32]Kojovic L. Rogowski coils suit relay protection and measurement of power systems. IEEE Computer Application in Power,1997,10(3):47-52
[33]Skendzic V, Guzma. Enhancing Power System Automation Through the Use of Real-Time Ethernet Power Systems. Conference:Advanced Metering. Protection, Control,Communication and Distributed Resources,2006,480-495
[34]Skeie T, Johannessen S,Brunner C. Ethernet in substationautomation[J].Control Systems Magazine, IEEE,2002,22 (3):43-51
[35]Alexander A,Christoph B,Kay C. Use of IEC 61850 object models for power system quality/security data exchange[J].Quality and Security of Electric Power Delivery Systems.2003,155-164
[36]Type OMU optical metering unit[Z].ABB Power Transmission, May2000,38-454
[37]Niewczas P, Cruden A, Michie WC, et al. Error analysis of an optical current transducer operating with a digital signal processing system.IEEE Transactions on Instrumentation and Measurement.2000,49(6):1254-1259.
[38]Steinhauser F. New challenges with substations utilizing communication networks.Power Tech Conference Proceedings,2003 IEEE Bologna. Volume2:23-26.
[39]Andersson A,Restefan D,Ramboz J D,et al. Unique EHV current probe for calibration and monitoring[C].Transmission and Distribution Conference and Exposition. 2001:379-384.
[40]邢立功,黄毅,叶罕罕等.数字化变电站中保护装置与电子式互感器的接口方式[J].电力系统自动化,2008,32(16).94-97
[41]尚秋峰,张静,董建彬.电子式电流互感器校准系统不确定度评定方法[J].电力系统自动化,2008,32(18).63-66
[42]Abolhasan M., Wysocki T, Dutkiewicz E. A Review of Routing Protocols for Mobile Ad Hoc Networks. Ad Hoc Networks,2004,21～22
[43]BERTOCCHI F, BERGAMO P, MAZZINI G, et al. Performance comparison of routing protocols for AdHoc networks[C].IEEE Global Telecommunications Conference.2003,56-59
[44]EKLUND C, MARKS R, STANWOOD K, et al. IEEE standard 802.16:A technical overview of the wireless MAN air interface for broadband wireless access[J].IEEE Communications Magazine,2002,6 (40):98-107
[45]王富斌.短距离无线通信技术在抄表系统中的应用[D].山东大学,2009
[46]王乐仁.非传统互感器的重新定义及应用研究[J].吉林电力,2009,37(4),11-13
[47]FamWZ. Poynting Vector Probe for Measuring Power at Extremely Low Power Factor. Proceedings of IEE-A,1998,135(6):385-389
[48]FamWZ. A Novel Transducer to Replace Current and Voltage Transformers in High-voltage Measurements. IEEE Trans on instrumentation and Measurement, 1996,45(1):190-194
[49]龙英,唐统一,关志成.坡印亭矢量原理在高电压功率测量中的应用[J].电测与仪表,1997,34(10)：15-17
[50]赵永平,孙金玮,丁明理.高压大电流坡印亭矢量原理功率变送器[J].电力系统自动化,2003,23(27)：90-93
[51]IEC 60044-7：1999,互感器(第7部分)：电子电压互感器[S]
[52]IEC 60044-8：2002,互感器(第8部分)：电子电流互感器[S]
[53]赵玉富,陈卓娅,郭洪等.电子式互感器[J].电测与仪表,2006,43(6)：28-31
[54]CEASE W, JOHNSTON. A Magneto-optic Current Transducer[J]. IEEE Trans on Power Delivery,1990,5 (2):548-555
[55]郭志忠.电子式互感器评述[J].电力系统保护与控制,2008,36(15)：1-5
[56]郭郴艳,游大海.新型电子式电流互感器测量精度分析[J].电力自动化设备,2006,26(8)：27-29
[57]EDDYS O, DJOKIC B. An Optically Isolated Hybrid Two-stage Current transformer for Measurements at High Voltage [J]. IEEE Trans.on Instrumentation and Measurement,2006,55(4):1204-1207
[58]王鹏,罗承沐,张贵新等.基于低功率电流互感器的电子式电流互感器[J].电力系统自动化,2006,30(4)：98-101
[59]LUXA H, MUELLER B, NOBLET J. Sensors Non-conventional VT and CT for Medium Voltage Switchgear [C] Trends in Distribution Switchgear,1998:10-12
[60]李红斌,刘延冰,张明明等.电子式电流互感器中的关键技术[J].高电压技术,2004,30(10)：4-6
[61]高鹏,马江泓,杨妮等.电子式互感器技术及其发展现状[J].南方电网技术,2009,3(3)：39-42
[62]张西果.互感器的作用与特性分析[J].电气技术与自动化,2005,34(5)：99-102
[63]T.W.Cease etal. Optical voltage and current sensors used in a revenue metering system[J].IEEE Transaction on Power Delivery,1991,Vol.6,No.4:1374-1379
[64]L.H.Christensen. Design, construction and test of a passive optical prototype high voltage instrument transformed[J]. IEEE Transaction on PowerDelivery,1995, Vol.10, No.3:1332-1337
[65]H.N.David, T.B.Josedh, E.Howard et al. An integrated photonicMach-Zehnder interferometer with no electrodes for sensing electric field[J].Light wave Technology,1994, Vol.12,No.6:1092
[66]李红斌,余春雨,叶国雄等.电子式互感器数字输出的研究[J].高电压技术,2004,30(2)：10-11
[67]TakakoYasui, Junichi Ohwaki, Masato Mino,etal. A stable 2-W supply optical-powering system[J]. The Transactions of the Institute of Electrical Engineers of Japan,2002,Vol.122,No.7:1089-1093
[68]胡彬,周有庆,钟选书等.电子式电流互感器高压侧电源的研究和实验[J].电力电气,2006,25(5)：99-102
[69]窦晓波,吴在军,胡敏强等.IEC61850标准下合并单元的信息模型与映射实现[J].电网技术,2006,30(2)：80-85
[70]李芙英,陈勇亭.应用于光电式电流互感器的悬浮式电源的设计[J].继电器,2000, 27(1)：40-42
[71]李芙英,朱小梅,纪昆等.一种应用于高电压侧测量系统中电源[J].高电压技术,2002,28(3)：43-47
[72]凌子恕.高压互感器技术手册[M].北京：中国电力出版社,2005.88-92
[73]阳靖,周有庆,刘琨等.电子式互感器相位补偿方法研究[J].电力自动化设备,2007,27(3)：45-47
[74]Ulmer E. A high-accuracy optical current transducer for electric power system. IEEE trans.Pwr.Delivery,2000,5(2):892-898.
[75]TEPT-12型电子式电压互感器[EB/OL], http://www. cnshangao. com/productview.asp?id=954
[76]LZC-40.5型电子式电流互感器[EB/OL], http://www.xgydq.diytrade.com/sdp/324529/2/pd-1353530/1323605-0.html
[77]CYET1-10电子式电流电压组合互感器[EB/OL], http://www. chuangy. com/chinese/product.asp?mstype=38
[78]余恒洁.数字化变电站中电能计量装置的应用[J].云南电力技术,2008,36(10)：64-66
[79]王乐仁.配电网中的互感器及其未来[J].环球表计,2005,(3)：14-15
[80]姚建歆,施伟斌,江秀臣等.变电站出线的分布式电能计量系统研究与应用[J].供用电.2009,26(12)：49-51
[81]胡顺.高压电能表研制报告.武汉国测科技股份有限公司,2008
[82]毛晓波,李志辉,张震等.电能脉冲的软件产生方法[J].电力自动化设备,2006,(09)：55-58
[83]王毅.电能计量装置介绍[J].电力自动化设备,2007,(11)：25-27
[84]江正平.电容器加速寿命试验的电压加速指数[J].电力电容器,2007,(1)：44-46
[85]Tortai J, Denat A, Bonifaci N. Self-healing of capacitors with metallized film technology:experimental observations and theoretical model[J]. Journal of Electrostatics,2001,53:159-169
[86]Reed W, Cichanowski W. The fundamentals of aging in HV polymer-film capacitors[J]. IEEE Trans on Dielectrics and Electrical Insulation,1994,11 (5):904-972
[87]Heywang H. Physical and chemical changes in self-curing plastic capacitors[J] Colloid and Polymer Science,1976,254:138-147
[88]Joubert C, Beroual A, Rojat G. Electric field and equivalent circuit in all-film capacitors[J]. Appl Phys,1997,81(10):6579-6584
[89]李化,陈耀红,林福昌等.金属化膜脉冲电容器寿命特性[J].强激光与粒子束,2007,22(4)：773-776
[90]G.J.Levenbach. Accelerated Life Testing of Capacitors[J]. IRE Tram. On Reliability. June 1957
[91]林青.加速寿命试验数据的快速图解处理法[J].电力电容器.2007(1)：25-27
[92]张曦,张庆伟,张源斌等.混合式OCT高压侧电路的供电方式[J].高电压技术,2002,28(12)：14-15
[93]T C Banwell, R C Estes,L A Reith,etal. Powering the Fiber Loop Optically—A Cost Analysis [J]. Journal of Lightwave Technology,1993,11(3):481-494
[94]胡彬,周有庆,钟选书等.电子式电流互感器高压侧电源的研究与实[J].电气应用,2006,25(5)：99-102
[95]刘忠战.电子式电流互感器高压侧自励源供能方法研究[J].高压电器,2006,42(1)：55-57
[96]聂一雄,尹项根,李伟等.有源光电式互感器工作电源设计[J].电力自动化设备,2003,23(12),49-51
[97]李丽,王代华,张志杰等.基于射频芯片CC1020的无线数传系统的设计[J].国外电子测量技术,2008,27(05).71-74
[98]蒋博.nRF905的无线数据传输系统[J].工业仪表与自动化装置,2006,(03).59-60
[99]李洪智.基于红外通信技术无线局域网的实现[J].山东通信技术,2008,28(2),41-43
[100]叶丹,黄荷,刘楷等.配网架空线路数据红外串行通信系统的开发[J].福建电力与电工,2008,28(2),34-36
[101]瞿清昌.高压电能计量关键技术和量值溯源的研究[J].中国计量,2006,(11)：49-51
[102]GB/T 16934-1997,电能计量柜[S]
[103]黄伟.电能计量技术[M].北京：中国电力出版社,2004
[104]陈学斌.配电计量[M].北京：中国电力出版社,2006
[105]郭琳云,徐芝贵,张乐平等.高压电能计量装置整体误差校验台[J].电测与仪表,2010,47(01)：18-21
[106]王鹏,张贵新,朱小梅等.基于故障模式与后果分析及故障树法的电子式电流互感器可靠性分析[J].电网技术,2006,23(12)：16-20
[107]Nicholson G. Reliability considerations optical sensors for the control and measurement of power. IEEE Transmission and Distribution Conference and Exposition,Atlanta,2001,41(3):122-126
[108]Vaurio J K. Treatment of general dependencies in system fault-tree and risk analysis[J]. IEEE Trans on Reliability,2002,51 (3):278-287
[109]Bono R, Alexander R, Dorman A, etal. Analyzing reliability-a simple yet rigorous approach[J]. IEEE Trans on Industry Application,2004,40(4):950-957
[110]赵鹏飞.关于工频交流耐压试验的分析[J].电器制造,2007(09)：86-88
[111]钟敬显,王贵玲.浅析电气设备交流耐压试验[J].农村电工,2006,(07)：24
[112]张纯.局部放电试验典型放电和干扰图谱分析[J].电力学报,2010,25(2)：51-55
[113]DL/T 417-2006电力设备局部放电现场测量导则[S].北京：中国电力出版社,2006
[114]陈化钢.电力设备预防性试验方法及诊断技术[M].北京：中国科学技术出版社,2001
[115]孙锋.浅谈雷电冲击试验[J].电气制造,2009,(06)：68-69
[116]高自伟,秦军,勾忠,单银忠等.雷电全波冲击试验的波形调节[J].黑龙江电力,2006,(04)：259-260
[117]朱士全.大型冲击电压发生器及其试验回路电感的估算与实例[J].变压器,1994(3)：27-29
[118]李孛.10kV配电线路防雷措施研究[D].长沙理工大学,2009
[119]IEC 61000-2-5 Electromagnetic compatibility-Part 2:Environment-Section5: Classification of Electromagnetic Environment,1995
[120]Ari n, Blumer w. Transient Electronmagetic Fields Due to Switching Operations in Electric Power System,IEEE Transactions On Electronmagetic Compatbility,1987, 29(3):233-237
[121]Cortins R.Evaluation of the Electromagnetic Interference on the Power Plant and Substation Auxiliary Equipment.CIGRE Report,1988,12(1):45-55
[122]Han Qing.Transient Pulse Disturbs and Its Suppressive Technology[A].Proceedings of the Conference on EM Environment and EMC,2002,11(2):102-107
[123]沈小宇.电磁兼容学科综述[C],电气技术发展综述,2004,73-76
[124]杨克俊.电磁兼容原理与设计技术[M].人民邮电出版社,2005
[125]罗志坤,滕召胜,万全等.高压电能计量装置远程校验与监测系统及其应用[J].电子测量技术,2007,31(2)：172-175
[126]白洋.电能计量装置远程校验监测系统[J].电测与仪表,2005,42(1)：30-32
[127]曹敏,梁仕斌,李毅等.云南电网电能计量装置在线监测系统研究[J].电测与仪表,2007,44(3)：40-42
[128]Branislav Djokic, Eddy So. Ottawa,Canada. A high-resolution hybrid digital wattmeter for measurement at high voltage[C]. IEEE Instrumentation and Measurement Technology Conference Proceedings,12-15 May,2008:1885-1888
[129]吴小美.防丢窃电的技术措施与管理[J].电测与仪表,2003,40(2)：8-10
[130]戚栋,王宁会,黄耀等.防窃电智能检测系统的研制[J].电测与仪表,2002,39(10)：21-23
[2]范明天,张祖平.中国配电网发展战略相关问题研究[M].北京：中国电力出版社,2008
[3]发改委公布2009年电力行业运行情况[EB/OL],中国电力网,http://www. chinapower.com.cn/article/1166/art 1166195.asp
[4]刘军,钱奇,刘海涛等.配电网数据采集与线损自动化系统研究[J].电网技术,2006,10(30)：571-574
[5]闵涛,金午桥,余仲明.电能量计量系统接入方案及功能实施[J],电网技术,2003,27(8)：59-63
[6]徐汉城.电流互感器的误差对电能计量的影响分析[J].中国计量,2009,12：87-88
[7]毕胜春.电能计量装置原理[M].北京：中国电力出版社,2000
[8]庞小丽,杨伟.提高电能计量装置的可靠性研究[J].甘肃科技,2010,3(26)：69-70
[9]周莉,刘开培.电能计量误差分析与电能计费问题的讨论[J],电工技术学报,2005,20(2)：63-68
[10]谈绮倩.集中器与配变终端的级联运行分析[J].自动化运用,2010(02)：67-70
[11]项毅.高耗能企业的电能计量与节能途径研究[D].浙江工业大学,2009.
[12]DL/T 448-2000,电能计量装置技术管理规程[S]
[13]GB/T 17883-1999.0.2S级和0.5S级静止式交流有功电度表[S]
[14]卜正良,尹项根,涂光渝.高压电能表的研制[J].电力系统自动化,2006,30(19)89-93
[15]胡顺,徐芝贵.高压电能表的研制进展[J].电测与仪表,2008,45(1)1-3
[16]Linyun Guo,Xianggen Yin. Research on integral error calibrating system of high-voltage electric energy measurement device [C]. UPEC 2007 Conference, 4th-6th September 2007, Brighton, UK
[17]ANDREAS Braun, JoRN Zinkernagel. Optoelectronic Electricity Meter for High-Voltage Lines[J], IEEE Transactions on Instrumentation and Measurement, 1973(4):394-399
[18]刘欣,杨北革,王健,李芙英.新型高压电能表的研究[J].电力系统自动化,2004,28(9)：88-91
[19]郭琳云,尹项根,卜正良,胡顺.10kV配电网的电能整体计量技术研究[J].水电能源科学,2009,27(5)：211-213,223
[20]吴涛,周有庆,龚伟等.基于新型电子式电流互感器的多功能电能表的设计[J].电力系统自动化,2008,32(16)：56-60
[21]曾庆禹.电力系统数字光电量测系统的应用及效益分析[J].电网技术,2001,25(5)：6-11
[22]任雁铭,秦立军,杨奇逊等.变电站自动化系统中内部通信网的研究[J].电网技术,2000,24(5)：42-44
[23]韩富春.变电站综合自动化通信网络几种方式的研究[J].太原理工大学学报,200031(6)：694-696
[24]IEC.IEC 61850-1. Communication Networks and System in Substation Part 1:Instroduction and Overview.Ed1.0,2003
[25]IEC.IEC 61850-2. Communication Networks and System in Substation Part 2: Glossary. Ed1.0,2003
[26]IEC.IEC 61850-2. Communication Networks and System in Substation Part 3: General Requirements. Ed1.0,2002
[27]IEC.IEC 61850-2. Communication Networks and System in Substation Part 4: System and Project Management. Ed 1.0,2002
[28]郭琳云,尹项根,张乐平等.基于高压电能表的计量装置在线校验技术.电力自动化设备.2009,29(12)：79-82
[29]余贻鑫.智能电网的技术组成和实现顺序[J].南方电网技术,2009,3(2)：12-15
[30]ROYER M,TOH K. A review of current routingprotocols for Ad Hoc mobile wireless networks[J].IEEE Personal Communications,1999,2 (6):46-55
[31]Donaldson E, Gibson J, Jones G, et al. Hybrid optical current transformer with optical and power line energization. IEE Proceedings generation, Transmission and Distribution,2002,147(5):304-309
[32]Kojovic L. Rogowski coils suit relay protection and measurement of power systems. IEEE Computer Application in Power,1997,10(3):47-52
[33]Skendzic V, Guzma. Enhancing Power System Automation Through the Use of Real-Time Ethernet Power Systems. Conference:Advanced Metering. Protection, Control,Communication and Distributed Resources,2006,480-495
[34]Skeie T, Johannessen S,Brunner C. Ethernet in substationautomation[J].Control Systems Magazine, IEEE,2002,22 (3):43-51
[35]Alexander A,Christoph B,Kay C. Use of IEC 61850 object models for power system quality/security data exchange[J].Quality and Security of Electric Power Delivery Systems.2003,155-164
[36]Type OMU optical metering unit[Z].ABB Power Transmission, May2000,38-454
[37]Niewczas P, Cruden A, Michie WC, et al. Error analysis of an optical current transducer operating with a digital signal processing system.IEEE Transactions on Instrumentation and Measurement.2000,49(6):1254-1259.
[38]Steinhauser F. New challenges with substations utilizing communication networks.Power Tech Conference Proceedings,2003 IEEE Bologna. Volume2:23-26.
[39]Andersson A,Restefan D,Ramboz J D,et al. Unique EHV current probe for calibration and monitoring[C].Transmission and Distribution Conference and Exposition. 2001:379-384.
[40]邢立功,黄毅,叶罕罕等.数字化变电站中保护装置与电子式互感器的接口方式[J].电力系统自动化,2008,32(16).94-97
[41]尚秋峰,张静,董建彬.电子式电流互感器校准系统不确定度评定方法[J].电力系统自动化,2008,32(18).63-66
[42]Abolhasan M., Wysocki T, Dutkiewicz E. A Review of Routing Protocols for Mobile Ad Hoc Networks. Ad Hoc Networks,2004,21～22
[43]BERTOCCHI F, BERGAMO P, MAZZINI G, et al. Performance comparison of routing protocols for AdHoc networks[C].IEEE Global Telecommunications Conference.2003,56-59
[44]EKLUND C, MARKS R, STANWOOD K, et al. IEEE standard 802.16:A technical overview of the wireless MAN air interface for broadband wireless access[J].IEEE Communications Magazine,2002,6 (40):98-107
[45]王富斌.短距离无线通信技术在抄表系统中的应用[D].山东大学,2009
[46]王乐仁.非传统互感器的重新定义及应用研究[J].吉林电力,2009,37(4),11-13
[47]FamWZ. Poynting Vector Probe for Measuring Power at Extremely Low Power Factor. Proceedings of IEE-A,1998,135(6):385-389
[48]FamWZ. A Novel Transducer to Replace Current and Voltage Transformers in High-voltage Measurements. IEEE Trans on instrumentation and Measurement, 1996,45(1):190-194
[49]龙英,唐统一,关志成.坡印亭矢量原理在高电压功率测量中的应用[J].电测与仪表,1997,34(10)：15-17
[50]赵永平,孙金玮,丁明理.高压大电流坡印亭矢量原理功率变送器[J].电力系统自动化,2003,23(27)：90-93
[51]IEC 60044-7：1999,互感器(第7部分)：电子电压互感器[S]
[52]IEC 60044-8：2002,互感器(第8部分)：电子电流互感器[S]
[53]赵玉富,陈卓娅,郭洪等.电子式互感器[J].电测与仪表,2006,43(6)：28-31
[54]CEASE W, JOHNSTON. A Magneto-optic Current Transducer[J]. IEEE Trans on Power Delivery,1990,5 (2):548-555
[55]郭志忠.电子式互感器评述[J].电力系统保护与控制,2008,36(15)：1-5
[56]郭郴艳,游大海.新型电子式电流互感器测量精度分析[J].电力自动化设备,2006,26(8)：27-29
[57]EDDYS O, DJOKIC B. An Optically Isolated Hybrid Two-stage Current transformer for Measurements at High Voltage [J]. IEEE Trans.on Instrumentation and Measurement,2006,55(4):1204-1207
[58]王鹏,罗承沐,张贵新等.基于低功率电流互感器的电子式电流互感器[J].电力系统自动化,2006,30(4)：98-101
[59]LUXA H, MUELLER B, NOBLET J. Sensors Non-conventional VT and CT for Medium Voltage Switchgear [C] Trends in Distribution Switchgear,1998:10-12
[60]李红斌,刘延冰,张明明等.电子式电流互感器中的关键技术[J].高电压技术,2004,30(10)：4-6
[61]高鹏,马江泓,杨妮等.电子式互感器技术及其发展现状[J].南方电网技术,2009,3(3)：39-42
[62]张西果.互感器的作用与特性分析[J].电气技术与自动化,2005,34(5)：99-102
[63]T.W.Cease etal. Optical voltage and current sensors used in a revenue metering system[J].IEEE Transaction on Power Delivery,1991,Vol.6,No.4:1374-1379
[64]L.H.Christensen. Design, construction and test of a passive optical prototype high voltage instrument transformed[J]. IEEE Transaction on PowerDelivery,1995, Vol.10, No.3:1332-1337
[65]H.N.David, T.B.Josedh, E.Howard et al. An integrated photonicMach-Zehnder interferometer with no electrodes for sensing electric field[J].Light wave Technology,1994, Vol.12,No.6:1092
[66]李红斌,余春雨,叶国雄等.电子式互感器数字输出的研究[J].高电压技术,2004,30(2)：10-11
[67]TakakoYasui, Junichi Ohwaki, Masato Mino,etal. A stable 2-W supply optical-powering system[J]. The Transactions of the Institute of Electrical Engineers of Japan,2002,Vol.122,No.7:1089-1093
[68]胡彬,周有庆,钟选书等.电子式电流互感器高压侧电源的研究和实验[J].电力电气,2006,25(5)：99-102
[69]窦晓波,吴在军,胡敏强等.IEC61850标准下合并单元的信息模型与映射实现[J].电网技术,2006,30(2)：80-85
[70]李芙英,陈勇亭.应用于光电式电流互感器的悬浮式电源的设计[J].继电器,2000, 27(1)：40-42
[71]李芙英,朱小梅,纪昆等.一种应用于高电压侧测量系统中电源[J].高电压技术,2002,28(3)：43-47
[72]凌子恕.高压互感器技术手册[M].北京：中国电力出版社,2005.88-92
[73]阳靖,周有庆,刘琨等.电子式互感器相位补偿方法研究[J].电力自动化设备,2007,27(3)：45-47
[74]Ulmer E. A high-accuracy optical current transducer for electric power system. IEEE trans.Pwr.Delivery,2000,5(2):892-898.
[75]TEPT-12型电子式电压互感器[EB/OL], http://www. cnshangao. com/productview.asp?id=954
[76]LZC-40.5型电子式电流互感器[EB/OL], http://www.xgydq.diytrade.com/sdp/324529/2/pd-1353530/1323605-0.html
[77]CYET1-10电子式电流电压组合互感器[EB/OL], http://www. chuangy. com/chinese/product.asp?mstype=38
[78]余恒洁.数字化变电站中电能计量装置的应用[J].云南电力技术,2008,36(10)：64-66
[79]王乐仁.配电网中的互感器及其未来[J].环球表计,2005,(3)：14-15
[80]姚建歆,施伟斌,江秀臣等.变电站出线的分布式电能计量系统研究与应用[J].供用电.2009,26(12)：49-51
[81]胡顺.高压电能表研制报告.武汉国测科技股份有限公司,2008
[82]毛晓波,李志辉,张震等.电能脉冲的软件产生方法[J].电力自动化设备,2006,(09)：55-58
[83]王毅.电能计量装置介绍[J].电力自动化设备,2007,(11)：25-27
[84]江正平.电容器加速寿命试验的电压加速指数[J].电力电容器,2007,(1)：44-46
[85]Tortai J, Denat A, Bonifaci N. Self-healing of capacitors with metallized film technology:experimental observations and theoretical model[J]. Journal of Electrostatics,2001,53:159-169
[86]Reed W, Cichanowski W. The fundamentals of aging in HV polymer-film capacitors[J]. IEEE Trans on Dielectrics and Electrical Insulation,1994,11 (5):904-972
[87]Heywang H. Physical and chemical changes in self-curing plastic capacitors[J] Colloid and Polymer Science,1976,254:138-147
[88]Joubert C, Beroual A, Rojat G. Electric field and equivalent circuit in all-film capacitors[J]. Appl Phys,1997,81(10):6579-6584
[89]李化,陈耀红,林福昌等.金属化膜脉冲电容器寿命特性[J].强激光与粒子束,2007,22(4)：773-776
[90]G.J.Levenbach. Accelerated Life Testing of Capacitors[J]. IRE Tram. On Reliability. June 1957
[91]林青.加速寿命试验数据的快速图解处理法[J].电力电容器.2007(1)：25-27
[92]张曦,张庆伟,张源斌等.混合式OCT高压侧电路的供电方式[J].高电压技术,2002,28(12)：14-15
[93]T C Banwell, R C Estes,L A Reith,etal. Powering the Fiber Loop Optically—A Cost Analysis [J]. Journal of Lightwave Technology,1993,11(3):481-494
[94]胡彬,周有庆,钟选书等.电子式电流互感器高压侧电源的研究与实[J].电气应用,2006,25(5)：99-102
[95]刘忠战.电子式电流互感器高压侧自励源供能方法研究[J].高压电器,2006,42(1)：55-57
[96]聂一雄,尹项根,李伟等.有源光电式互感器工作电源设计[J].电力自动化设备,2003,23(12),49-51
[97]李丽,王代华,张志杰等.基于射频芯片CC1020的无线数传系统的设计[J].国外电子测量技术,2008,27(05).71-74
[98]蒋博.nRF905的无线数据传输系统[J].工业仪表与自动化装置,2006,(03).59-60
[99]李洪智.基于红外通信技术无线局域网的实现[J].山东通信技术,2008,28(2),41-43
[100]叶丹,黄荷,刘楷等.配网架空线路数据红外串行通信系统的开发[J].福建电力与电工,2008,28(2),34-36
[101]瞿清昌.高压电能计量关键技术和量值溯源的研究[J].中国计量,2006,(11)：49-51
[102]GB/T 16934-1997,电能计量柜[S]
[103]黄伟.电能计量技术[M].北京：中国电力出版社,2004
[104]陈学斌.配电计量[M].北京：中国电力出版社,2006
[105]郭琳云,徐芝贵,张乐平等.高压电能计量装置整体误差校验台[J].电测与仪表,2010,47(01)：18-21
[106]王鹏,张贵新,朱小梅等.基于故障模式与后果分析及故障树法的电子式电流互感器可靠性分析[J].电网技术,2006,23(12)：16-20
[107]Nicholson G. Reliability considerations optical sensors for the control and measurement of power. IEEE Transmission and Distribution Conference and Exposition,Atlanta,2001,41(3):122-126
[108]Vaurio J K. Treatment of general dependencies in system fault-tree and risk analysis[J]. IEEE Trans on Reliability,2002,51 (3):278-287
[109]Bono R, Alexander R, Dorman A, etal. Analyzing reliability-a simple yet rigorous approach[J]. IEEE Trans on Industry Application,2004,40(4):950-957
[110]赵鹏飞.关于工频交流耐压试验的分析[J].电器制造,2007(09)：86-88
[111]钟敬显,王贵玲.浅析电气设备交流耐压试验[J].农村电工,2006,(07)：24
[112]张纯.局部放电试验典型放电和干扰图谱分析[J].电力学报,2010,25(2)：51-55
[113]DL/T 417-2006电力设备局部放电现场测量导则[S].北京：中国电力出版社,2006
[114]陈化钢.电力设备预防性试验方法及诊断技术[M].北京：中国科学技术出版社,2001
[115]孙锋.浅谈雷电冲击试验[J].电气制造,2009,(06)：68-69
[116]高自伟,秦军,勾忠,单银忠等.雷电全波冲击试验的波形调节[J].黑龙江电力,2006,(04)：259-260
[117]朱士全.大型冲击电压发生器及其试验回路电感的估算与实例[J].变压器,1994(3)：27-29
[118]李孛.10kV配电线路防雷措施研究[D].长沙理工大学,2009
[119]IEC 61000-2-5 Electromagnetic compatibility-Part 2:Environment-Section5: Classification of Electromagnetic Environment,1995
[120]Ari n, Blumer w. Transient Electronmagetic Fields Due to Switching Operations in Electric Power System,IEEE Transactions On Electronmagetic Compatbility,1987, 29(3):233-237
[121]Cortins R.Evaluation of the Electromagnetic Interference on the Power Plant and Substation Auxiliary Equipment.CIGRE Report,1988,12(1):45-55
[122]Han Qing.Transient Pulse Disturbs and Its Suppressive Technology[A].Proceedings of the Conference on EM Environment and EMC,2002,11(2):102-107
[123]沈小宇.电磁兼容学科综述[C],电气技术发展综述,2004,73-76
[124]杨克俊.电磁兼容原理与设计技术[M].人民邮电出版社,2005
[125]罗志坤,滕召胜,万全等.高压电能计量装置远程校验与监测系统及其应用[J].电子测量技术,2007,31(2)：172-175
[126]白洋.电能计量装置远程校验监测系统[J].电测与仪表,2005,42(1)：30-32
[127]曹敏,梁仕斌,李毅等.云南电网电能计量装置在线监测系统研究[J].电测与仪表,2007,44(3)：40-42
[128]Branislav Djokic, Eddy So. Ottawa,Canada. A high-resolution hybrid digital wattmeter for measurement at high voltage[C]. IEEE Instrumentation and Measurement Technology Conference Proceedings,12-15 May,2008:1885-1888
[129]吴小美.防丢窃电的技术措施与管理[J].电测与仪表,2003,40(2)：8-10
[130]戚栋,王宁会,黄耀等.防窃电智能检测系统的研制[J].电测与仪表,2002,39(10)：21-23