IEC61850通信规约转换软件Demo使用手册xt

PTC-101系列IEC61850-3乙太網路轉光纖媒體轉換器特色與優點•10/100BaseT(X)自動協商和自動MDI/MDI-X•支援故障轉移(LFPT)功能•透過繼電器輸出發出電源故障告警（僅限LV型號）•-40°C至85°C操作溫度範圍•備援雙直流電源輸入（僅限LV型號）•整合式高可靠性電源，不需要外接電源變壓器認證簡介PTC-101乙太網路轉光纖媒體轉換器可將10/100BaseT(X)轉換為100BaseFX。

此系列轉換器具備光纖用的SC、ST或LC接頭可供選擇。

PTC-101轉換器除了讓您省去額外的電線配置，也同時支援IEEE802.3和IEEE802.3u/x協定，提供10/100M、全/半雙工和MDI/MDI-X自動感應等功能，為工業乙太網路應用提供完整的解決方案。

PTC-101符合IEC61850-3規範中有關操作溫度、電源輸入電壓、突波、ESD和振動的強制要求，並且採用敷形塗層和隔離式電源，讓這台媒體轉換器更適合用在各種工業應用。

規格Ethernet Interface10/100BaseT(X)Ports(RJ45connector)1100BaseFX Ports(multi-mode SC connector)PTC-101-M-SC-HV/M-SC-LV:1100BaseFX Ports(multi-mode ST connector)PTC-101-M-ST-HV/M-ST-LV:1100BaseFX Ports(single-mode SC connector)PTC-101-S-SC-HV/S-SC-LV:1100BaseFX Ports(single-mode ST connector)PTC-101-S-ST-HV/S-ST-LV:1100BaseFX Ports(multi-mode LC connector)PTC-101-M-LC-HV/M-LC-LV:1100BaseFX Ports(single-mode LC connector)PTC-101-S-LC-HV/S-LC-LV:1Magnetic Isolation Protection 1.5kV(built-in)Optical FiberWavelength1300nm1310nmMax.TX-10dBm0dBmMin.TX-20dBm-5dBmRX Sensitivity-32dBm-34dBmLink Budget12dB29dBTypical Distance 5km a4km b40km cSaturation-6dBm-3dBma.50/125µm,800MHz x km fiber optic cableb.62.5/125µm,500MHz x km fiber optic cablec.9/125µm single-mode fiber optic cabled.9/125µm single-mode fiber optic cable(80km)Power ParametersInput Voltage LV-DC models:20to72VDCHV-AC models:100to240VACHV-DC models:88to300VDCInput Current LV-DC models:150mA@20to72VDCHV-AC models:200to350mA@100to240VACHV-DC models:47mA@88VDCOverload Current Protection SupportedPower Consumption LV-DC models:150mA@20to72VDCHV-AC models:200to350mA@100to240VACHV-DC models:47mA@88VDCPhysical CharacteristicsHousing MetalDimensions152.15x126.46x66.65mm(5.99x4.86x2.62in)Weight Packaged:875g(1.92lb)Product only:690g(1.52lb)Installation DIN-rail mountingEnvironmental LimitsOperating Temperature-40to85°C(-40to185°F)Storage Temperature(package included)-40to85°C(-40to185°F)Ambient Relative Humidity5to95%(non-condensing)Standards and CertificationsEMC EN55032/24EMI CISPR32,FCC Part15B Class AEMS IEC61000-4-2ESD:Contact:8kV;Air:15kVIEC61000-4-3RS:80MHz to1GHz:3V/mIEC61000-4-4EFT:Power:4kV;Signal:4kVIEC61000-4-5Surge:Power:4kV;Signal:4kVIEC61000-4-6CS:150kHz to80MHz:10V/m;Signal:10V/mIEC61000-4-8PFMFIEC61000-4-11Environmental Testing IEC60068-2-1IEC60068-2-14IEC60068-2-2IEC60068-2-3Safety EN60950-1,UL60950-1Vibration IEC60068-2-6Power Substation IEC61850-3MTBFTime1,211,613hrsStandards MIL-HDBK-217FWarrantyWarranty Period5yearsDetails See /tw/warrantyPackage ContentsDevice1x PTC-101Series media converterDocumentation1x quick installation guide1x warranty card尺寸PTC-101-M-ST-HV（可依照需求提供其他型號）訂購資訊PTC-101-M-SC-LV Multi-mode SC20-72VDC PTC-101-M-ST-LV Multi-mode ST20-72VDC PTC-101-M-LC-LV Multi-mode LC20-72VDC PTC-101-S-SC-LV Single-mode SC20-72VDC PTC-101-S-ST-LV Single-mode ST20-72VDC PTC-101-S-LC-LV Single-mode LC20-72VDCPTC-101-M-SC-HV Multi-mode SC 85-264VAC 88-300VDCPTC-101-M-ST-HV Multi-mode ST 85-264VAC 88-300VDCPTC-101-M-LC-HV Multi-mode LC 85-264VAC 88-300VDCPTC-101-S-SC-HV Single-mode SC 85-264VAC 88-300VDCPTC-101-S-ST-HV Single-mode ST 85-264VAC 88-300VDCPTC-101-S-LC-HV Single-mode LC 85-264VAC 88-300VDC配件（選購）DIN-Rail Mounting KitsDK-DC50131-01DIN-rail mounting kit,6screwsWireless AP Mounting KitsDK-DC50131DIN-rail mounting kitWall-Mounting KitsWK-51-01Wall mounting kit with2plates(51.6x67x2mm)and6screws©Moxa Inc.版權所有.2020年12月22日更新。

been intimately involved since its incep-tion. “Communication networks and sys-tems for power utility automation,” as the IEC document is properly known, is a comprehensive standard broken down into components that, for example, specify how the functionality of substa-tion devices should be described – how they should communicate with each o ther, what they should communicate and how fast that communication should be. All of this is critical to realizing the benefits of a truly digital substation.At the station level, things are generally digital, even in relatively old installations. SC ADA (supervisory control and data a cquisition) systems usually demand Digital signaling offers excellent reliability and capacity, and has been in use in power infra-structure for decades. Most existing electricity grids employ digital f iber-optic networks for the reliable and efficient transport of operation and su-pervision data from automation systems in substations – and even power line net-works carry tele-protection signals these days. But only now are the advantages of standardized digital messaging start-ing to extend into the deeper substation environment.IEC 61850Without standards, the adoption of digi-tal messaging for intrasubstation com-munication was piecemeal and fragment-ed, with mutually incompatible signaling creating an assortment of messaging within vertical silos. ABB has long cham-pioned industry adoption of IEC 61850, a standard with which the company has STEFAN MEIER – The concept of a digital substation has long been an insubstantial thing – an ideal vision of all-knowing substations networked into an intelligent grid. But the concept is now a lot more practical so the specifics of what makes a substation “digital,” and why that is such a desirable thing, can be discussed.The smarter grid needs a smarter substation, and it has to be digital Enabling digital substations Title picture Technology is now available to allow substations to be completely digital – right down to the currenttransformers. The advantages of having a digital substation are manifold.FOCS Robustness and reliability requirements apply to new technologies such as ABB’s fiber-optic current sensor (FOCS) too. A FOCS [1] can directly monitor current running through a high-voltage line with-out having to involve a current trans-former (CT) to step down the current to a measurable value. Eliminating the C T also eliminates the risk of open C T cir-cuits, in which life-threatening voltages can occur, and so increases safety.A FOCS exploits the phase shift in polar-ized light introduced by an electromag-netic field (the Faraday effect). The shiftis in direct proportion to the current flow-ing in the high-voltage line, around whichthe fiber carrying the light is wrapped.The measurement is digitized right atthe source and transmitted as a digitalsignal, via the process bus, to the pro-tection and control IEDs, as well as therevenue meters.Such an optical C T takes up a lot lessspace than its analog equivalent. It caneven be integrated into a disconnectingcircuit breaker (as ABB did in 2013) tocombine the functions of circuit breaker,current transformer and disconnector inone device – halving the size of a newsubstation.The FOCS is one of a range of noncon-ventional instrument transformers (NCITs)that can make things entirely digital.NCITs have to be every bit as reliable asthe equipment being replaced – and theydigital information and ABB has been selling fiber-optic “backbones” for more than two decades.Between the station level and the bays, fibers can carry digital data – conforming to IEC 61850 – but to become a true digital substation the standard has to e xtend even further.Deep digitalThe world beyond the bays is still pre-dominately analog. The conventional pri-mary equipment, like current and voltage transformers, is connected back to intel-ligent electronic devices (IEDs) using par-allel copper wires carrying analog voltage signals ➔1a. The IEDs receiving that data perform first-level analysis and often pro-vide the gateway into a digital world.But there is little advantage in keeping the data in analog form for so long and to properly earn the title of “digital substa-tion” the transition to digital must takeplace as soon as the data is gathered ➔1b.Through permanent system supervision, digital equipment reduces the need for manual intervention and the adoption of the all-digital process bus allows sensitive equipment to be relocated into the bays. The digital equipment that has to bel ocated out in the yard must be easy to fit, and every bit as robust and reliable as the analog equipment it is replacing or inter-facing to ➔2.Digital signaling offers excellent reliability and capacity, and has been in use in power infrastruc-ture for decades.1a Today 1b Tomorrow670 series 670 series REB500REB500650 series 650 seriescurrent transformer, arcing may occur as dangerously high voltages build and a copper line can suddenly carry high volt-age, putting workers and equipment at risk. Less copper brings greater safety.The digital substation dispenses with cop-per by using the digital process bus, which might use fiber optics or a wireless net-work, such as ABB’s Tropos technology.Just the removal of copper can, in some circumstances, justify the switch to digital. Going digital can cut the quantity of cop-per in a substation by 80 percent – a sub-stantial cost saving and, more importantly, a significant safety enhancement.The process bus also adds flexibility: Digital devices can speak directly to each other ➔3. For this, IEC 61850 defines the GOOSE (generic object-orientatedsubstation events)protocol for fasttransmission of bi-nary data. Part 9-2of the standard de-scribes the trans-mission of sampledvalues over Ether-net. These principlesensure the timelydelivery of high-pri-ority data via other-wise unpredictableEthernet links. ABB’s ASF range of E thernet switches fully supports this crit-ical aspect of substation messaging.are: Over the past decade ABB has sup-plied more than 300 NC ITs (combined current and voltage sensors fitted into gas-insulated switchgear) for use in Queensland, Australia, and the utility has yet to see a single failure in the primarysensor. Extensive use of NCITs makes a substation simpler, cheaper, smaller and more efficient.Not everything can be digital – analog data will continue to arrive from conven-tional current and voltage transformers, for example. But there is no reason for wholesale replacement when a stand-alone merging unit can perform the tran-sition to digital right beside the existinginstrument transformer. Fiber optics can then replace the copper cables connect-ing the primary equipment to the protec-tion and control IEDs.Process bus As a conductor, every bit of copper in a substation is a potential risk. For exam-ple, where current is incorrectly discon-nected, such as with an open secondary A FOCS can direct-ly monitor current running through a high-voltage line without having to involve a current transformer to stepdown the current to a measurable value.2 New equipment destined for use out in the yard is exposed to the elements so has to be very robust.ABB has long championed industry adoption of IEC 61850, a standard with which the company has been intimately involved since its inception.Installations ABB has been heavily involved in IEC 61850 since its inception. The stan-dard is essential to ensure that utilities can mix and match equipment from dif-ferent suppliers, but, through compli-ance testing, it also provides a bench-mark against which manufacturers can be measured.ABB deployed the first commercial IEC 61850-9-2 installation in 2011 at the Loganlea substation, for Powerlink Queens-land. The use of ABB’s IEC 61850-9-2- compliant merging units and IEDs, not to mention NCITs, makes the deployment a landmark in the evolution of substation design.That project was part of an upgrade of an existing station, an upgrade that saw it move into an IEC 61850 future, adopting digital standards for effective future-proof-ing. ABB created a retrofit solution based on specifications from Powerlink that can be applied to another five Powerlink substa-tions when they are ready for refitting.Two of those stations, Millmerran and Bulli Creek, were already upgraded in 2013 and 2014, respectively. The refurbished sub-stations have a MicroSCADA Pro SYS600 system and RTU560 gateway that manage Relion 670 protection and control IEDs, with REB500 busbar protection. These all communicate over IEC 61850-9-2 to the merging units and over IEC 61850 to the station-level devices. A fully digital substation is smaller, more reliable, has a reduced life-cycle cost and is simpler to maintain and extend than an analog one. It offers increased safety and is more efficient than its ana-log equivalent.Not every substation needs to be cata-pulted into a wholesale digital world – it depends on the substation size and type, and whether it is a new station or a retrofit of the secondary system. Different ap-proaches and solutions are required. ABB’s extensive IEC 61850 experience and portfolio of NCITs, merging units, pro-tection and control IEDs as well as station automation solutions eases utilities into the digital world. Flexible solutions allow utilities to set their own pace on their waytoward the digital substation.3 IEC 61850 makes the fully digital substation a reality.Stefan MeierABB Power Systems Baden, Switzerland *******************.com An optical CT takes up a lot less space than its analog equivalent and can even be integrated into a disconnecting circuit breaker to combine the func-tions of circuit breaker, current transformer and disconnector in one device – halv-ing the size of a new substation.Reference [1] S. Light measures current – A fiber-optic current sensor integrated into a high-voltage circuit breaker. Available: /global/scot/scot271.nsf/veritydisplay/0d948cedb40451cec1257ca900532dd0/$file/12-17%201m411_EN_72dpi.pdf。

IEC61850通信规约转换软件Demo使⽤⼿册xt IEC61850通信规约转换Demo软件使⽤⼿册北京华睿信通科技有限公司2016-3-13修订历史记录A - 增加M - 修订D - 删除⽬录IEC61850通信规约转换软件 (1)1.引⾔ (4)1.1编写⽬的及使⽤对象 (4)2.系统简介 (4)2.1产品特点 (4)2.2 性能 (4)2.3软件组成模块 (4)2.4软件运⾏环境 (5)3. 智能终端IEC61850通讯规约转换软件使⽤说明 (5)3.1 软件组成 (5)3.2第⼀次使⽤ (6)3.3⼯程配置 (9)3.3.1新增采集设备 (10)3.3.2修改采集设备 (16)3.3.3配置信息向装置下载 (16)1.引⾔1.1编写⽬的及使⽤对象本⽂档介绍智能电⼦设备IEC61850规约转换软件的组成模块，性能指标和主要功能，并详细介绍modbus规约转换为IEC61850规约的使⽤⽅法，适⽤于⼯程技术⼈员使⽤。

2.系统简介2.1产品特点●满⾜最新DL/T 860（IEC61850）通讯标准●完全⽀持国际标准IEC61850规约，并可实现其它规约对IEC 61850规约的转换。

●⽀持modbus TCP/IP ，modbus RTU2.2 性能a.系统容量●同时接⼊的终端装置数⽬：100（在pc机下vmvare fedora7 cpu2G 内存2G）b.时间特性●随系统⾃动启动●默认检索实时数据的周期为最⼩30秒钟，此参数可以设置●检索报警数据的周期为即时上送c.计算机系统（在pc机下vmvare fedora7 cpu2G 内存2G）●系统可⽤率≥99%●CPU负荷率≤25%●⽹络负荷率≤5%d.通讯能⼒●⽀持⽹络●⽀持串⼝2.3软件组成模块IEC61850规约转换Demo软件主要实现由modbus协议转换成IEC 61850协议，其数据的交换通过共享内存⽅式来实现，涉及到三个模块采集模块、实时库和61850服务模块。

I E C61850建模工具软件用户手册IEC 61850建模工具用户手册山东理工大学2013.03目录1.简介 ........................................................................................................................- 1 -2. IEC 61850配置功能 ..............................................................................................- 1 -2.1 界面..............................................................................................................- 1 -2.2 CID文件配置...............................................................................................- 2 -2.3 CID文件树形结构.......................................................................................- 3 -2.4 逻辑数据配置..............................................................................................- 5 -2.4.1 增加...................................................................................................- 5 -2.4.2 修改...................................................................................................- 7 -2.4.3 删除...................................................................................................- 8 -2.4.4 导出...................................................................................................- 9 -2.4.5 导入...................................................................................................- 9 -2.5逻辑设备维护 .......................................................................................... - 10 -2.5.1 增加................................................................................................ - 11 -2.5.2 删除................................................................................................ - 12 -2.5.3 修改................................................................................................ - 13 -2.6逻辑节点维护 .......................................................................................... - 13 -2.6.1 增加................................................................................................ - 14 -2.6.2 删除.................................................................................................- 17 -2.6.3 修改.................................................................................................- 17 -3.CID文件生成....................................................................................................... - 18 -4. CID文件格式...................................................................................................... - 18 -4.1 CDC、FC配置文件内容........................................................................... - 18 -4.2 CID文件模版内容.....................................................................................- 20 -4.3 生成CID文件内容....................................................................................- 20 -1.简介主要完成61850FTU逻辑数据的配置，配置信息生成excel文件，61850FTU配置程序通过读取excel信息保存到配置文件中。

NS3000数字化变电站自动化系统调试作业指导书(后台部分)1 目的指导NS3000数字化变电站自动化系统的后台部分的组态与调试，以规范自动化系统的调试过程，从而保证系统的质量，提高系统的可靠性与稳定性2 适用岗位本指导书适用于工程部从事数字化变电站自动化系统工程开发调试的工程部经理、项目负责人、项目工程师和调试人员3 调试流程3.1调试前准备3.1.1 检查用户资料是否齐全3.1.2 根据合同、技术协议、发货清单等资料，到库房领用项目所须硬件，并清点•SCADA机数目、配置•工作站数目、配置•打印机数目、配置•显示器数目、配置•UPS数目、配置•网络设备数目、配置•其他外设数目、配置3.2 系统安装NS3000计算机系统对计算机配置的要求•硬件：PentiumIV 1.6G以上，内存512M以上，硬盘40G 以上。

•操作系统：Windows 2000专业版或者Windows XP专业版。

•SCADA机需安装SQL Server2000的服务器及客户端工具,及SQL Server2000 SP3.•工作站需安装SQL Server2000的客户端工具, 以及SQL Server2000 SP3.•安装WINDOWS的消息队列组件.•NS3000计算机系统的安装.•若本项目有两台计算机作为远动工作站，请将这两台计算机作为一个独立的双SCADA服务器与后台双SCADA服务器分开，其安装序列号需要额外申请•安装详细步骤可参见<<NS2000安装手册>>需说明的是:目前还未将61850的相关后台程序、文件整合到NS2000后台安装盘中。

需要将bin、config文件夹下的相关程序、文本更新，使其成为支持61850的NS3000后台。

3.3 操作系统最大连接数破解功能简介：Windows XP系统限制了操作系统对外的最大连接数，默认为10（Windows 2000操作系统不存在这样的情况）。