RCS中文说明书
RCS-931G系列(V)_说明书_国内中文_国内标准版_R1.00_(ZL_XLBH3114.1106)
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2.1 机械及环境参数 .......................................................................................................................................... 3 2.2 额定电气参数 .............................................................................................................................................. 3 2.3 主要技术指标 .............................................................................................................................................. 3
南瑞RCS产品说明
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RCS-9000测控装置RCS-9000单元测控装置适用于各种电压等级变电站。
可就地安装也可组屏安装。
RCS-9701测控装置主要监控对象为变电站内的开关单元,主要功能有:1)16路开关量变位遥信,开关量输入为220V/110V光电隔离输入;2)一组电压、一组电流的模拟量输入,其基本内容有电流、电压、电度计算、频率、功率及功率因素;3)6路断路器遥控分合,空接点输出,出口动作保持时间可程序设定;4)4路脉冲累加单元,空接点开入;5)遥控事件记录及事件SOE;6)1路检同期合闸;7)支持电力行业标准DL/T667-1999(IEC60870-5-103标准)的通讯规约,配有WORLDFIP高速现场总线,双网,,支持变压器隔离的双绞线或光纤通讯接口;8)逻辑闭锁功能。
RCS-9702测控装置主要用于变电站公共信号的监控,主要功能有:1)88路开关量变位遥信,开关量输入为220V/110V光电隔离输入;2)模拟量输入设计主要针对14路电压;3)8路断路器遥控分合,空接点输出,出口动作保持时间可程序设定,其中前三路可配置为双跳圈或双合圈输出;4)4路脉冲累加单元,空接点开入;5)遥控事件记录及事件SOE;6)支持电力行业标准DL/T667-1999(IEC60870-5-103标准)的通讯规约,配有WORLDFIP高速现场总线,双网,,支持变压器隔离的双绞线或光纤通讯接口。
RCS-9703测控装置主要用于站内主变本体测控,装置拥有单线路测控、分接头的调节、地刀的控制及与用于温度、直流系统测量的常规变送器的接口,主要功能有:1)40路开关量变位遥信,开关量输入为220V/110V光电隔离输入;2)一组电压、一组电流的模拟量输入,其基本内容有电流、电压、电度计算、频率、功率及功率因素;3)15路变送器接口单元;4)遥控输出可配置16路遥控分合,1~3,9~11对象可配置为双跳圈或双合圈输出,遥控出口为空接点,出口动作保持时间可程序设定;5)遥控事件记录及事件SOE;6)支持电力行业标准DL/T667-1999(IEC60870-5-103标准)的通讯规约,配有WORLDFIP高速现场总线,双网,,支持变压器隔离的双绞线或光纤通讯接口;7)逻辑闭锁功能。
上海瑞业RCS主机遥控装置用户说明书
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四 、组件说明......................................................................................10
4.10.1.主机 ..................................................................................................................................... 16 4.10.2.齿轮箱 ................................................................................................................................. 16
RCS 主机遥控装置
使用说明书
图号: RY-RCS-90A
第3页 共50页
安全注意事项
为避免电击事故,请不要试图打开、拆卸设备或对设备作任何的改动,如果发生故障 请专业人员修理.
请不要将盛有液体的容器放在设备上,以避免液体进入设备,造成设备损坏或火灾. 为保证船舶和人员安全,请经常检查确认设备工作状态良好,并定期请专业人员保养 设备.
4.1.主机遥控操作面板 ............................................................ 10 4.2.遥控主控制箱 ................................................................ 11 4.3.遥控操纵手柄 ................................................................ 12 4.4.主车钟报警面板 .............................................................. 12 4.5.机旁控制箱 .................................................................. 13 4.6.测速单元 .................................................................... 14 4.7.主机遥控电源单元 ............................................................ 14 4.8.气源处理单元 ................................................................ 15 4.9.蓄气瓶 ...................................................................... 15 4.10.主机及齿轮箱的配合条件 ..................................................... 16
RCS-9000辅助装置技术和说明书
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RCS-9698CD_X_说明书_国内中文_国内标准版_X_R1.00_(ZL_TXZZ0121.1208)
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南京南瑞继保电气有限公司
目录
RCS-9698C/D 远动通信Байду номын сангаас置
前言.................................................................................................................................................... i 目录.................................................................................................................................................. iii 第 1 章 概述...................................................................................................................................... 1
警示! 意味着如果安全预防措施被忽视,则可能导致轻微的人身伤害或设备损坏。 本条特别适用于对装置的损坏及可能对被保护设备的损坏。
警告!
为增强或修改现有功能,装置的软硬件均可能升级,请确认此版本的使用手册和您手中的产品 兼容。
警告!
电气设备在运行时,这些装置的某些部件可能带有高压。不正确的操作可能导致严重的人身伤 害或设备损坏。
只有具备资质的合格专业工作人员才允许对装置或在装置临近工作。工作人员需熟知本手册中 所提到的注意事项和工作流程,以及安全规定。
特别注意,一些通用的工作于高压带电设备的工作规则必须遵守。如果不遵守可能导致严重的 人身伤亡或设备损坏。
RCS生产管理手册
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RCS生产管理手册1. 引言本手册旨在规范和指导RCS(Manufacturing Company)的生产管理流程和操作方法。
通过遵循本手册的准则,有助于提高生产效率、优化资源利用,确保产品质量和安全,减少生产过程中的错误和损失。
2. 背景RCS是一家制造公司,专注于生产高品质的产品。
为了保证产品质量和交付时间,我们需要一个有效的生产管理系统,以确保生产流程的顺畅运行,随时满足客户需求。
3. 生产管理流程3.1 订单接收•客户提出订单需求•销售团队确认订单信息,包括产品规格、数量、交付时间等•销售团队将订单信息录入系统3.2 产品设计•技术团队根据订单需求进行产品设计•设计团队制定设计方案、图纸等•设计团队与销售团队确认设计方案并进行修改(如果需要)3.3 原材料采购•采购团队根据产品设计需求制定采购计划•采购团队与供应商洽谈价格、交货时间等细节•确定供应商后,采购团队下达采购订单3.4 生产安排•生产计划部门根据订单需求制定生产计划•生产计划部门与生产部门协调生产排程•确定生产排程后,通知相关部门和人员3.5 生产过程•生产员工根据生产计划进行生产操作•生产过程需要严格遵守操作规程和安全规范•生产过程中产生的产品需要经过质量检验3.6 产品质量控制•质量控制部门进行产品质量检验•如果产品不符合质量标准,需要进行整改或重新生产•符合质量标准的产品进入下一步流程3.7 产品包装和交付•包装部门负责对产品进行包装•销售团队安排物流和交付事宜•订单完成后,销售团队将订单状态更新为已交付4. 资源管理为了保证生产管理的顺利进行,我们需要合理管理和利用各种资源。
•人力资源:制定员工培训计划,提高技能水平和生产效率•设备和设施:定期维护和保养,确保设备正常运行•原材料和库存:建立库存管理制度,及时补充和利用原材料5. 安全管理安全管理是生产管理的重要方面。
我们将重视以下安全措施:•建立健全的安全制度和操作规程•提供员工安全培训和个人防护装备•定期检查和维护生产设备的安全性•加强生产现场的安全监控和事故预防6. 结论本生产管理手册旨在为RCS的生产管理流程提供准确、标准和安全的指导,以确保产品质量、提高生产效率。
ABB Robot Containerization System (RCS) 用户手册说明书
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Industriesike all businesses today, the USPS must remain responsive andflexible to the changing business environ-ment, ensuring along the way that it has all the capability it needs to satisfy a growing, increasingly demanding market.The USPS is satisfied that ABB’s Robot Containerization System (RCS) will let them do just that.First, though, a lengthy list of USPS requirements had to be met. For example, the RCS had to be easily replicable as 100 installations were planned. Customer site development was required for each installation because each site has its own unique characteristics, and provision had to be made for these during the installation phase. In addition, a system standard was required for the 100 installations.This had to cover: s Softwares In-feed/recirculation conveyorss Mechanical grippers for handling all types of intermixed mail trays s Human-machine interface (HMI)s Overhead gantry-mounted robots s All equipment and hardware (barcode readers, docking stations, etc)s Peripheral guarding sAcceptance testss On-site system training/support for operators, maintenance staff, etc. sDocumentation, including manuals and videos, tailored to the exact needs of USPS personnel and processessDocumented technical dataPost-hasteBruce A. MeyerSpot welding, machine tending, material handling, picking, packing, painting, palletizing,assembly... the list of tasks being performed by ABB robots keeps on growing.Adding to this already impressive portfolio is a new Robot Containerization System (RCS)that ABB developed specifically for the United States Postal Service (USPS). The RCS has brought new levels of speed, accuracy, efficiency and productivity to the process of sorting and containerizing mail and packages. Recently, the 100th ABB RCS was installed at the USPS processing and distribution center in Columbus, Ohio.L100th robotic containerization system installed in US mail sorting centerUSPS processing and distribution center in Santa Ana, CaliforniaThe 100 systems were delivered to50 facilities and installed at the rate of two per week during the program.Sorting and handling mailThe place to go to better understand the benefits of the RCS is the Chicago Metro Surface Hub (CMSH) in Elk Grove, Illinois,which covers some 465,000 square feet (43,200 square meters). The CMSH processes incoming and outgoing mail for postal delivery centers throughout the metropolitan Chicago area. 650 people work here in three eight-hour shifts,receiving and dispatching mail through 70 loading dock doors. With nearly 100%uptime, the ABB RCS works around the clock, providing better real-time collec-tion of operating and performance data to help CMSH match staffing levels to expected volumes.According to Surjit Grewal, CMSH Maintenance Manager, the RCS that seesmost work is the one used primarily for sorting incoming mail. This system handles an average of 80,000 to 100,000mail trays per month. A unique, patented sorting system integrated in the RCS is easily able to cope with the varying input and maintain throughput at an optimum level. Designed for RCS installations with multiple locations, this dynamic sorting system allows the USPS to change sorting schemes very quickly based on incoming mail and volumes. Each of the locations may be assigned its own loading rate.The system can be preprogrammed with a simplified, base scheme of destinations.Grewal notes that the RCS’s accuracy in sorting has been perfect.The RCS sorts mail into 24 different containers, including general-purpose mail containers, eastern regional mail containers, and pallets. The robotautomatically senses the container type and adapts the handling operation to it.Another unique sorting feature of the RCS is its Off-Line Sort Scheme Capa-bility. This allows the creation, modifi-cation and file transfer of sort schemes from an office PC to one of CMSH’s several RCS installations.The RCS also allows greater flexibility as there is no need to clear the cart/pallet location in the cell when a destination in the new scheme is assigned to the same location as in the old scheme. Partially full containers can therefore be safely left in the system when a new sort scheme is selected – the RCS ensures that the mail is sent to the correct facility.These features together demonstrate the RCS’s ability to meet the USPS’s 100%sort accuracy requirement. By ensuring that mail is not misrouted to the wrong facility – something which happens in manual operations – it saves the CMSH costly re-work. Considering that 3000 to 4000 trays are typically handled per day,even a 1% mis-sort rate could result in 30 to 40 trays being misrouted each day at an average cost of approximately $40per tray. While actual data for mis-sort rates is difficult to obtain, ABB believes the figure for manual operations to be higher than the 1% mentioned – perhaps as high as 3–5%. Assuming just a 1%mis-sort rate, the estimated annual savings could be as high as $390,000.Other design featuresThe innovative double-gantry design of the RCS has been another big plus for the USPS. On each side of the RCS, an overhead, gantry-mounted robot retrieves trays from the in-feed conveyor and loadsMail tub being picked up by the RCS gantry systemIndustriesthem into containers. The two robotseach have a telescopic arm equipped with a unique mechanical gripper designed to sense and handle all types of intermixed mail trays (sleeved orunsleeved, open or topped mail tubs).The trays and tubs are handled just once to maximize efficiency, while top loading eliminates the need to move the containers into a specific position. Metal fingers on each gripper support trays from beneath for secure handling, and a containment plate on top holds mail in place on open trays. With its robotic arm, the RCS can even determine the position of the shelf in a container, automatically lower the shelf once the container is half full, and then finish loading the container. Each of these two robotic gantrysections is in turn divided into two zones.This allows one zone of the gantry to continue sorting operations while the other zone is undergoing cart exchange or maintenance. Any incoming trays destined for the zone the operator has entered continue to recirculate on alooping conveyor until the operator removes the filled container and closes the gate. This recirculation prevents trays from blocking robot operations during container exchanges, thereby minimizing downtime and maximizing throughput.“We like the fact that we can constantly work and continue to process mail even if one zone is disabled,” Grewal says.“That helps us with our run times and our throughput.”For maximum packing efficiency,containers are filled with open trays to a specific height, rather than the trays being counted. This nesting allows greater packing efficiency. When a container is completely filled, the operator requests and obtains access to that zone of the RCS. All operations in the zone come to a halt, the gate is unlocked, and the operator enters the RCS. With a footprint of just 900 square feet (83.6 squaremeters),including guarding, the compact,rectangular shape of the RCS helps to conserve floor space. Its small sizeensures there will be ample room around the sides and ends for operator access and container removal.All RCS functions are controlled via a user-friendly graphic interface. This provides users with a clear visual representation of the system, showing the locations of the containers and pallets, the number of trays and their positions, and the status of each location.Sort schemes are easily created on the interface, and operators can obtain information about the system’s overall status.Improved ergonomicsOne of the many important benefits robotic automation brings to mail sorting and containerizing is improvedergonomics. By eliminating the manual lifting of heavy mail trays and tubs,robotic systems help to reduce worker injuries and the associated costs. The RCS handles light to heavy loads with the same throughput, allowing for more predictable production times. With an RCS, productivity as measured by pieces per hour for dispatch operations is higher than with comparable manual methods. “Before, everything was done manually, so there were someproblems,” Grewal says. “Now, with the robots, we don't have as many people lifting so many heavy trays and tubs.” Through a variety of devices, every precaution has also been taken to ensure operator safety. The perimeter guarding enclosing the system provides a hard surface barrier, sliding gates and anRCS cellGantry robot picking up a half-tray from a recirculating conveyorgate securely locked. These interlocks can be deactivated whenever an operator has to enter the RCS to remove a container or carry out maintenance.Multiple buttons and safety pull-cords can be used to initiate an emergency stop, bringing all hazardous motion within the RCS to an immediate halt. Vertical light curtains further safeguard operators during container exchanges, and multiple floor-level sensing beams detect the presence of anyone inside the RCS during operation.Satisfaction guaranteed “Overall, we’re very satisfied with the RCS,” was Grewal’s answer when asked how the USPS felt about the new system.them with a flexible solution able tomeet changing market demands.Improvements it has brought include:s Increased speed:Trays/tubs arehandled faster.s Increased accuracy:No mis-sortingof trays.s Increased productivity:Efficiency ishigher than with manual methods.s Improved ergonomics:Manual liftingof heavy mail trays and tubs is elim-inated, reducing work-related injuries.s More predictable production:Heavyloads are handled with the samethroughput.s On-time dispatch:Predictable,consistent production facilitates reliabledispatch planning.s High flexibility:Fast changeoverbetween tasks makes the systemresponsive to changing requirements.s Improved product tracking:Automaticidentification increases ID accuracy forproduct routing, which reduces re-routemistakes and related costs.s Reduced product damage:AdvancedRCS software and a unique gripperdesign minimize damage to products.s Higher equipment utilization:Withuptime nearly 100%, the RCS workspractically around the clock.s Better reporting:Real-time collectionof operating and performance dataallows businesses to match staffing levelsto expected volumes.The number of moving parts in the RCShas been minimized and provencomponents and technology have beenused wherever possible. The result is aremarkably reliable system with veryhigh uptime. According to Grewal:“There were a few issues that had to beworked out just after the installation, butoverall we’ve had no major problemswith downtime. Right through theChristmas rush – when a small problemcould have been a big headache – theyworked great.”。
RCS中文说明书
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F0/23B(C)、H3/36B、C7030电气系列F0/23B(C)、H3/36B、C7030Electrical series使用说明书成都久和传动机械有限责任公司地址:成都市双流县彭镇燃灯社区5组电话(Phone):(028)67028807传真(FAX):(028)85847360邮编(ZIP code):610203一.使用环境1.周围空气温度周围空气温度不超过+40℃,周围空气温度的下限为-25℃。
且在24h周期内平均温度不超过+30℃。
2.海拔高度安装地点的海拔不超过2000m。
3.大气条件空气清洁,而其相对湿度在最高温度为+40℃,不超过50%,在较低温度时,亦允许有较大的相对湿度,如最湿月平均温度为+20℃,月平均最大相对湿度不超过90%,并注意因温度变化产生在产品表面的凝露。
4.供电电网质量供电电网容量应保证满足塔机功耗,进线电压波动范围须保证不超过额定电压值的±10%。
起升电控柜(L柜)适用于交流50Hz/380V、60Hz/440V三相电源。
5.安装条件垂直安装倾斜度不超过5°;安装牢固,在主机工作过程中不会发生相对于主机的平移和垂直跳动;安装部位最高震动条件为:5~13Hz时,位移为1.5mm;13~15Hz时,震动加速度为1.0g。
二.阅读电气原理图的方法1. 符号表示各个部分字母表示见下列表格:a)操作,检测,指示b) Ⅰ部分c)Ⅱ或Ⅲ部分d)方向或速度2 . 工作顺序、工作原理及符号不同的工作阶段用下面两种不同的形式表示:在开关转换顺序中A)在工作顺序示意图中,采用下面符号:接触器或继电器进入“工作状态”:PV接触器或继电器进入“停止状态”:PVPV表示两种工作状态。
B)在开关转换顺序中,采用下面符号:接触器或继电器进入“工作状态”并通过同一机械或电气连锁保持:●接触器或继电器进入“停止状态”:○3. 动作特性和各机构功能F0/23B(C)、H3/36B、C7030等塔式起重机电气控制柜可工作在交流50Hz/380V、60Hz/440V的额定电压条件下。
RCS-9698GH通信装置说明书
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司公限 有气 电保 继瑞 南京南
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。坏损备设的重严 或�害伤身人的重严 ,亡死员人致导会则�视忽被施措防预全安果如着味意 !险危
�义定准标和记标示指下以到用会将中册手本 告警及导指作操 。容内关相作操悉熟�书明说本读阅细仔须必员人业专关相�前作操何任做置装本对在 。责负应相担承不司公我�害损何任的成造作操当不因�明说示警关相中书明说略忽 。解理分充且读阅部全须必容内章本�时用使和装安在。议建防预全安的前品产用使了述叙章本 l
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5 ............................................................................................................................... 数参术技 章 2 第 4 ......................................................................................................................... 型选货订 2 .................................................................................................................................点特 1 .................................................................................................................................能功 1 .................................................................................................................................用应 4.1 3.1 2.1 1.1
RCS-915GB_X_说明书_国内中文_标准版_X_R1.02_(ZL_YJBH0312.1009)
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RCS-915GB 型 微 机 母 线 保 护 装 置
技术和使用说明书
南瑞继保电气有限公司版权所有 2010.9 本说明书和产品今后可能会有小的改动,请注意核对实际产品与说明书的版本是 否相符。 更多产品信息,请访问互联网:
目录
1 概述 .........................................................................................................................................................1 1.1 应用范围 ..............................................................................................................................................1 1.2 保护配置 ..........................................................................................................................................1 1.3 性能特征 ..........................................................................................................................................1 1.4 其他功能和特点 .................................
RCS Sure 100安装手册说明书
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RCS Sure 100 Installation ManualIn the maintenance and operation of mechanical equipment, SAFETY is the basic factor which must be considered at all times. Throughthe use of the proper clothes, tools and methods of handling, serious accidents causing injury to you or your fellow workers can be prevented.Throughout this manual are listed a number of safety precautions. Study them carefully and follow them; also insist that those working for you do the same. Remember, an accident is usually caused by someone’s carelessness, neglect or oversight.Safety FirstInstallationNote: SurePowr actuators can be supplied for clockwise or counter-clock-wise spring driven rotation (viewed from the top of the actuator). The spring drive rotation is noted on the actuator name tag and wiring diagram. Ensure that the actuator has been supplied with the proper spring drive operation for the application prior to installation on the driven device.1. The actuator is shipped in the power off (fail) position.Ensure that the driven device is orientated to its fail positionprior to installation of the actuator.2. Care should be taken to maintain proper alignment betweenthe actuator and the device shaft. If the actuator is not in thecorrect alignment with the device shaft, repeat theprocedure in Step 1.3. Mount the actuator to the device. Ensure the actuator iscentered properly with the device shaft, and then tighten allbolts and nuts evenly.4. Remove the cover bolts located around the actuator motorand control cover flange.5. Terminate field wiring per the appropriate RCS wiringdiagram, supplied with the actuator. Use a minimum of #18AWG stranded wire.Note: Ensure the driven device is properly positioned in its full fail position. If it is not, use the adjustable end of travel stop on the Sure 100 (see figure 4) to properly adjust the fail end of travel stop. Only the fail end of travel may be adjusted. Loosen the lock nut to free the adjusting screw, then use a wrenchto turn the screw. The total adjustment available is +/- 5 degrees.Figure 1Switch adjustments for clockwise spring fail operation (viewed from the top of the actuator)a. Ensure actuator is de-energized and positioned in the clockwise (fail) position. Ensure the end of travel stop is properlyadjusted. Loosen the jam nut, and then rotate the screwclockwise to move the actuator output shaft in acounter-clockwise direction. Rotate the screwin a counter-clock wise direction to move the actuatoroutput shaft in a clockwise direction. Loosen the setscrewson Cams 1 and 3. Rotate both counter-clockwise until theyclear the switch arm rollers of Switches 1 and 3.b. Rotate Cam 1 clockwise until it comes in contact with Switch1’s arm roller and the switch “breaks”. A light “click” can beheard. Tighten the set-screws on Cam 1. Use careto not over-tighten the set screws.c. Rotate Cam 3 clockwise until it comes in contact with Switch3’s arm roller and the switch just “breaks”. A light “click” canbe heard.d. Rotate Cam 3 slightly further in the clockwise direction. Thisensures that Switch 3 will “break” just prior to the actuatorreaching the full fail position. Use care to not over-tightenthe set screws.Tighten the setscrews on Cam 3. Energize theactuator. Use care to not over-tighten the set screws. This willmove the actuator to the opposite end of travel.e. Upon reaching the opposite end of travel, Cam 2 should just engage the roller on Switch 2 so that the switch just “breaks”. This action will stop the actuator. Check that the actuator has properly positioned the driven equipment.f. If actuator travel is insufficient, rotate Cam 2 slightly clockwise until the cam just clears the roller of Switch 2. As soon as the cam clears the roller, the actuator will “bump” electrically towards the end of travel. Continue until the actuator reaches the full end of travel.g. If the actuator has over-traveled, rotate Cam 2 slightly counter-clockwise, then move the actuator towards the fail position electrically. Stop and electrically reverse the direction of travel. Move the actuator until Cam 2 operates Switch 2 and the actuator stops. Repeat this procedure until the actuator is properly positioned.h. Rotate Cam 4 until it comes in contact with Switch 4’s arm roller and the switch just “breaks”. A light “click” can be heard. Rotate the cam slightly counter-clockwise. This ensures that Switch 4 will “break” just prior to the actuator reaching the extreme opposite end of travel. Tighten thesetscrews on Cams 2 and 4.Switch adjustments for counter-clockwise spring failoperation (viewed from the top of the actuator)a. Ensure the actuator is de-energized and positioned in the counter-clockwise (fail) position. Ensure the end of travel stop is properly adjusted. Rotate the screw counter-clockwise to move the actuator output shaft in a counter-clockwise direction. Rotate the screw in a clockwise direction to move the actuator output shaft in a clockwise direction. Loosen the setscrews on Cams 2 and 4. Rotate both clockwise until they clear the switch arm rollers of switches 2 and 4.b. Rotate Cam 2 counter-clockwise until it comes in contact with Switch 2’s roller arm and the switch “breaks”. A light “click” can be heard. Tighten the setscrews on Cam 2.c. Rotate Cam 4 counter-clockwise until it comes in contact with Switch 4’s arm roller and the switchjust “breaks”. A light “click” can be heardd. Rotate Cam 4 slightly further in the counter-clock wise direction. This ensures that Switch 4 will ”break” just prior to the actuator reaching the full fail position. Tighten the setscrews on Cam 4. Use care to not over-tighten the set screws.Energize the actuator. This will move the actuator to the opposite end of travel.e. Upon reaching the opposite end of travel, Cam 1 should just engage the roller on Switch 1 so that the switch just “breaks”. This action will stop the actuator. Check that the actuator has properlypositioned the driven equipment.f. If actuator travel is insufficient, rotate Cam 1slightly counter-clockwise until the cam just clears the roller of Switch 1. As soon as the cam clears theroller, the actuator will “bump” electrically towards the end of travel. Continue until the actuator reaches the full end of travel. If the actuator has over-traveled, rotate Cam 1 slightly counter-clockwise, then move the actuator towards the fail position electrically. Stop and electrically reverse the direction of travel. Move the actuator until Cam 1operates switch 1 and the actuator stops. Repeat this procedure until theactuator is properly positioned.g. If the actuator has over-traveled, rotate Cam 1 slightly clockwise, then move the actuator towards the fail position electrically. Stop and electrically reverse the direction of travel. Move the actuator until Cam 1 operates switch 1 and the actuator stops. Repeat this procedure until the actuator is properly positioned. h. Rotate Cam 3 until it comes in contact with Switch 3’s arm roller and the switch just “breaks”. A light “click” can be heard. Rotate the cam slightly further in the clockwise direction. This ensures that Switch 3 will “break” just prior to the actuator reaching the extreme opposite end of travel. Tighten the setscrews on Cams 1 and 3. Use careto not over-tighten the set screws.6. Operate the actuator electrically several times to ensure proper operation and to verify that travel limits and stops are correctly set.7. De-energize the actuator to verify proper spring failure operation. Ensure the driven device is properly positioned in the spring failure position.8. If the actuator is supplied with an optional feedback potentiometer and/or position controller, verify proper calibration of input and output signals after making cam andstop bolt adjustments.9. Replace the actuator cover and cover screws. Before installing the cover, make sure both flange surfaces are clean and free of any deris, and that the cover o-ring is in the machined groove in the lower housing and properly seated. Also make sure that the indicator beacon is in the proper orientation. 10.The actuator is now ready for electrical operation.Wiring DiagramsSpring Drive CW On Loss of Power Spring Drive CCW On Loss of PowerFigure 3Figure 2• Power to terminal 1 & 3 will motor drive and brake hold actuatorin CW most position if the brake is energized at terminal 1 & 5when switch N.O. of SW1 closes.• Power to terminal 1 & 5 will brake hold actuator in whateverposition it is in at the time.• Power to terminal 1 & 2 will motor drive and spring hold actuatorin CCW most position.• Loss of power will spring drive and spring hold actuator in CCWmost position.• Power to terminal 1 & 2 will motor drive and brake hold actuatorin CCW most position if the brake is energized at terminal 1 & 4when switch N.O.of SW2 closes.• Power to terminal 1 & 4 will brake hold actuator in whateverposition it is in at the time.• Power to terminal 1 & 3 will motor drive and spring hold actuatorin CW most position.• Loss of power will spring drive and spring hold actuator in CWmost position.NEMA 4, 6, 7 & 9 Dimensional Information""""""""""""""""Notes:1. Direction of rotation is based on viewing actuator from top.2. Actuator shown in power fail position.*3. Two keys are recommended for driving device.Figure 4Figure 5OperationPower On: The electric motor drives the gear train, which inturn winds the spring and turns the device. An internal limit switch de-energizes the motor and the brake, which holds the return spring and device in position.Power Off: When the current is interrupted by either a control signal or a power failure, the return spring drives the device to its original position.Note: It is recommended that the actuator be driven electrically in both directions for normal operation to prolong cycle life.MaintenanceGear train is permanently lubricated at the factory for the average life of the actuator. No further attention is required.Thermal OverloadThe internal thermal overload switch de-energizes the motor and prevents overheating of the motor windings due to excessive operation, stalling or high ambient temperatures.D u t y C y c l eThe maximum duty-cycle to be expected without interruption by thermal cut-off at an ambient temperature of 65C° is 25% (3 “OFF” times for every 1 “ON” time) for the 10 second design, and 50% (1 “OFF” time for every 1 “ON” time) for the 30 second design.StorageThe Surepowr actuator must be stored in a clean, dry, temperature controlled building which is protected from the weather. Precautions shall be taken to prevent condensation inside or outside the actuator. If there is insufficient external temperature and humidity control, internal heaters must be installed and energized to protect the unit against condensation from extreme temperature variations. The actuators shall be stored off the floor on suitable pallets and must be covered with an unsealed dust protector allowing side and bottom ventilation.Isolation RelaysTo operate multiple actuators in parallel from a single signal requires isolating relays in the field wiring. Consult Factory. Troubleshooting (New Unit)Note:Most actuator problems occur due to incorrect cam/travel limit switch setting, or the use of an external travel stop on the devicethat the actuator is operating.Problem 1: Actuator is receiving electric power but the motordoes not respond.Instructions:1a. Check actuator nameplate to insure correct model,voltage type and spring return direction.1b. Check all wiring against installation wiring diagram.1c.Actuator with clockwise fail position: Using a voltmeter, check that power is available between terminals1 and 2. Then check the voltage between terminal1 (common) and the two legs of the motor and capacitor.The meter should indicate a value equal to or greater thanthe supply voltage indicated on the actuator nametag.Actuator with counter-clockwise fail position: Using a voltmeter, check that power is available between terminals 1and 3. Then check the voltage between terminal 1 (common)and the two legs of the motor and capacitor. The metershould indicate a value equal to or greater than thesupply voltage indicated on the actuator nametag.If power is not present at the motor or capacitor leads:• Cam adjustments are required• Switch malfunction• Improper wiringProblem 2: Actuator is receiving electric power but the motor onlyhums.Instructions:2a. Perform steps 1a through 1c listed above.2b. Check to insure the brake is completely disengagedwhen power is appliedProblem 3: Actuator runs but operation is erratic.Instructions:3a. Perform steps 1a through 1c listed above.3b. Check ambient temperature. Standard Surepowractuators have a maximum ambient operating temperaturerating of 65°C.c. Check duty cycle (frequency of operation). See above for3details.3d. Ensure that actuator is not continuously stalled.3e. Ensure that all wiring connections are secure.Problem 4: Motor runs continuously in spring return directionafter actuator output shaft has stopped.Instructions:4a. Adjust spring return side travel cam/switch so that thecam trips the switch before the shaft stops motion.Problem 5: Motor runs continuously but output shaft does notturn.Instructions:5a. Check for power to the bridge rectifier and clutchsolenoid.Note: Standard Surepowr actuators are manufactured with thermaloverload protectors in series with the motor common. Shouldany of the above problems cause the protector to open, it willautomatically reset when the motor temperature is lowered to asafe level.Locating and Ordering PartsFor ease and accuracy in identifying and ordering spare or replace-ment parts, submit the following information from unit nameplate.1. Serial Number2. Model Number3. VoltageRCS Actuators16240 Port Northwest DriveHouston, TX 77041T: 832-590-2306Toll Free: 1-800-945-9898F: 713-849-2879© 2021 Natural Gas Solutions North America, LLC – All rights reserved. DresserUtility Solutions reserves the right to make changes in specifications and featuresshown herein, or discontinue the product described at any time without noticeor obligation. Contact your Dresser Utility Solutions representative for the mostcurrent information. The Dresser Logo and all Trademarks containing the term“Dresser” are the property of Dresser, LLC, a subsidiary of Baker Hughes.RCS Sure 100 IOM Manual NGS.IPG.0039b06.21。
RCS 中文版
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man pages(说明页) 有详细资料.
ci(1)和 co(1)有不同的选项针对 和非互动的使用.再一次,看 ci(1)和 co(1)
man pages(说明页) 有详细资料.
6. 修订版本的历史记录.
rlog(1)程式提供资料关於收集 档案和的各修订版本的记录储存在其中.命令如下
rlog work_file_name
将会列印档案的版本历史记录,各修订版的创造 日期和作者的 userids和是谁锁
定那 档案.你可以详细说明档案合集的属性和修订版本参数来检视.
7. 在工作文件中包含 RCS 资料.
这些和别的关键字也许是使用当做是 RCS 的档案合集的搜索条件 .看
ident(1)man page(说明页) 可以知道进一步的细节.
8. RCS和 emacs(1)版本控制.
emacs(1)的版本控制便利性可用作是 RCS 的前端 .这资料运用特别地针对版本
19.34 的 GNU Emacs,在主要 Linux distributions 中有提供.当 使用emacs(1)
The RCS MINI-HOWTO
Robert Kiesling
$Id: RCS-HOWTO.sgml,v 1.4 1997/08/14 15:09:56 rak Exp rak $
统设定 RCS .在来源目录有程序档 configure 来完成它,这个首先你需要 执行
它.这将要产生一个 Makefile和 适当的 conf.sh针对你的系统.你能够然後键入
make install
它将会建立二进位元可执行档.在一些地方你也许需要 su 改变身份成为 root 那
RCS9611B使用说明书
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RCS-96XXB 保护测控装置使用说明书本说明书以RCS-9611B为例,说明RCS-96XXB系列保护测控装置的功能范畴、操作使用。
其他类型的装置功能与此类似。
有单独使用说明书的以单独说明书的解释为准。
1 装置面板布置●8×4汉字显示液晶:液晶的背景光在无键盘操作一段时间后将自动关掉的,当按动任意键或当跳闸或自检报警后背景光会自动点亮。
●信号指示灯:“运行”灯在装置正常运行时点亮,装置闭锁时熄灭。
“报警”灯在发生报警事件时点亮,报警事件返回后自动熄灭。
“跳闸”和“合闸”灯分别在保护跳合闸出口回路闭合时点亮并自保持,在所有保护跳闸元件返回后按复归按钮后熄灭。
“跳位”和“合位”灯指示对应断路器的当前位置。
●3×3键盘:在正常显示或在主动显示跳闸报告/自检报告时,按↑键可进入主菜单。
进入菜单功能后,在一段长时间内未操作按键,装置将自动熄灭液晶背景光,退出菜单功能,返回至正常显示或主动显示跳闸报告/自检报告状态。
四个方向键用于菜单选择,加减键用于修改数字,“确认”键用于确认菜单操作,“取消”键用于取消菜单操作或退回上一级菜单。
“复位”键用于复位装置,对于运行装置禁止使用此键。
信号复归按钮:用于复归主画面显示的跳闸/自检报告和“跳闸/合闸”信号灯。
2.液晶显示2.12.2跳闸报告显示2.3 自检报告显示说明:装置正常运行时主画面显示时间、电流、电压、频率、重合闸充电标志、装置通讯状态标志、对时状态标志。
当有保护动作时,液晶自动显示跳闸报告;当装置检测运行异常或硬件故障时,液晶自动显示自检报告。
当既有新的保护动作报告,又有新的装置自检报告时,液晶显示保护动作报告。
系统频率显示实时线电压平均值 电池形图案空心时表示重合闸未充好电,实心时表示重合闸充电完毕非线路保护此图案无用。
实时保护CT 的A 、C 相电流平均值 保护实时时钟月、日、时、分、秒显示装置通讯状态 ”.”表示总线正在通讯 ”-”表示串口正在通讯 ”*”在通讯中断小数点前三位为整组动作的序号,由装置启动到装置返回为一次整组动作。
RCS300310_RX 控制器说明书
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RCS300310_RX1.Transmitter code memorization●“K1”Output1.Keep P1 pressed down until the LED switch on(it will blink if therelay is in latch mode), release P1 and push the key of the transmitter.2.The K1 relay makes a pulse (K1 will latch if the relay is in latchmode).3.LED will remain lit for 4 seconds (LED will blink 4 times if the relayis in latch mode).●“K2”Output1.Keep P2 pressed down until the LED switch on (it will blink if therelay is in latch mode), release P2 and push the key of the transmitter.2.The K2 relay makes a pulse (K2 will latch if the relay is in latchmode).3.LED will remain lit for 4 seconds (LED will blink 4 times if the relayis in latch mode).2.Relay programming(Pulse/Latch)It is possible to set the operating mode of each relay : pulse or latch.●In pulse mode the relay remains excited as long as the transmitter keyremains activated.●In latch mode, the relay is activated at the first pulse of the transmitter andreleases of the next pulse.K1 Pulse modeThe default operating mode for K1 is Latch.Programming K1 to Pulse mode1.Keep P1 pressed down until LED blinks quickly.2.Release P1 and push it again for a while. LED remains lit for further 2seconds and then switches off.In this way the relay K1 is set to pulse mode.In order to restore the previous mode, repeat the same sequence:1.Keep P1 pressed down until LED switches on.2.Release P1 and push it again for a while. LED will start to blink quickly for2 seconds and then switches off.At this point the latch mode has been restored.K2Pulse modeThe default operating mode for K2 is Latch.Programming K2to Pulse mode1.Keep P2 pressed down until LED blinks quickly.2.Release P2 and push P1 again for a while. LED remains lit for further 2seconds and then switches off.In this way the relay K2 is set to pulse mode.In order to restore the previous mode, repeat the same sequence:1.Keep P2 pressed down until LED switches on.2.Release P2 and push P1 again for a while. LED will start to blink quicklyfor 2 seconds and then switches off.At this point the latch mode has been restored.3.Memory erasureIt is possible to delete either the single transmitter key or the complete memory.Single transmitter key erasure1.Select the relay on which the transmitter key has been memorized.2.Keep P! or P2pressed down until the LED switches on (It will blink if therelay is in latch mode).3.Release the button and push the key of the transmitter to erase.4.The LED switches off for a while, then switches on and remains lit againfor 4 seconds.At the end transmitter key has been erased.Full memory erasure1.Keep P1 pressed down until LED switch on.2.Release P1 and then press P! and P2 down simultaneously until LED flash 6times.At that point the memory has been completely erased.4.Transmitter number displayIt is possible to display how many transmitter keys are stored in the memory.The number is display, in binary notation (0 or 1), by a sequence of led flashes.A long flash of LED gives a binary“0”.Rapid flash (3 times) of LED give a binary“1”.The complete sequence is composed by LED remain lit for further 4 seconds then switches off.According to its position, each flash has a different“weight”First flash:20= 1Second flash 21= 2Third flash : 22= 4Fourth flash : 23= 8Fifth flash : 24= 16Sixth flash : 24= 32Procedure1.Keep P1 or P2 pressed down until LED switches on (It will blink if therelay is in latch mode).2.Release the button and then push P2 for a while before LED switches off. At this point begins the sequence of flashes.Take a note of the sequence to calculate the corresponding decimal number shown in the following examples.Examples: Memory emptyWeights: 1 2 4 8 16 32Sequence:------Final number: 0 + 0 + 0 + 0 + 0 + 0 = 0Examples: 1 Transmitter keysWeights: 1 2 4 8 16 32Sequence:--------Final number: 1 + 0 + 0 + 0 + 0 + 0 = 1Examples: 5 Transmitter keysWeights: 1 2 48 16 32Sequence:----------Final number: 1 + 0 + 1 + 0 + 0 + 0 = 5。
RCS4电缸RCS4-SA4C 说明书
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11 RCS4-SA4C①行程阵容③选项名称选项记号参考页驱动轴规格项目内容(※1)[ ]内为高精度规格的数据。
(※2)基准额定寿命为5,000km时的力矩值。
行走寿命因运行条件、安装状态不同而发生变化。
请在2017综合目录1-328页确认行走寿命。
允许负载力矩方向、负载伸出长请在2017综合目录1-92页的图表确认。
①行程对应①行程对应装使用时,根据机种不同,有不同的使用限制。
详细内容请参考138页的选型注意。
②电缆长(※2)部分导程不能选择。
(参考第150页)种类电缆记号CJT 上侧32基座安装用沉孔详图润滑脂注油口RCS4-SA4C 外观注 根据控制器类型不同,13 RCS4-SA6C①行程阵容驱动轴规格项目内容(※1)[ ]内为高精度规格(导程3、6、12、20)的数值。
(※2)基准额定寿命为5,000km时的力矩值。
行走寿命因运行条件、安装状态不同而发生变化。
请在2017综合目录1-328页确认行走寿命。
允许负载力矩方向、负载伸出长请在2017综合目录1-92页的图表确认。
①行程对应①行程对应装使用时,根据机种不同,有不同的使用限制。
详细内容请参考138页的选型注意。
②电缆长种类电缆记号R16(16m)~R20(20m)③选项名称选项记号参考页双滑块规格时不能选择高精度规格。
(※2)部分导程不能选择。
(参考第150页)CJT 上侧32基座安装用沉孔详图RCS4-SA6C 外观注 根据控制器类型不同,15 RCS4-SA7C①行程阵容③选项驱动轴规格项目内容(※1)[ ]内为高精度规格(导程4、8、16)的数值。
(※2)基准额定寿命为5,000km时的力矩值。
行走寿命因运行条件、安装状态不同而发生变化。
请在2017综合目录1-328页确认行走寿命。
允许负载力矩方向、负载伸出长请在2017综合目录1-92页的图表确认。
①行程对应①行程对应装使用时,根据机种不同,有不同的使用限制。
详细内容请参考138页的选型注意。
RCS Hy-Q-52 用户手册说明书
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min -10°CDisplay FunctionsDisplay shows weight in kilograms Display shows weight in pounds Display shows net weight Display shows tare weightDisplay shows subtotal memory active Move forks slower Move forks fasterTry constant speed Operate the forks with a more constant speedZero out of range Make sure the truck is unloaded while setting a new zero Make sure the mast is vertical No calibration has been savedScroll through button menuAdd weightto active total Manual tare Manual zeroPrint Wifi3. The yellow arrow guides you in operating thetruck to complete a correct weighing.Go up Go down7. The indicator shows the weight after completing your zero check. 8. If the weight is red, the weighing was notcorrect. If the indicator does not show zero, a new zero must be set manually. See: 3.4.23.5 Perform a weighing cycle1. A weighing cycle can be started at any time in weighing mode. As soon as you lift the weight and pass the first sensor the indicator starts measuring.2. To perform a weighing cycle, pick up the load and lift with constant speed for as long as the yellow arrow keeps blinking in upward direction. If the arrow turns in the opposite direction lower the forks until the weight appears in the display.For detailed explanation see: 3.4.1 step 3-63.6 Error messagesWhenever a weighing was not done correctly the weight will turn red and the error is displayed.1. Error: Too slowMove forks faster through weighing trajectory.2. Error: Too fastMove forks slower through weighing trajectory.3. Error: Try constant speedTry to move the forks faster with a constant speed through weighing trajectory.4. Error: Out of level- Level switch is optional:make sure the mast is vertical.9. Bad calibration.There is no calibration saved.3. The indicator is set to zero.The ‘NET’ sign shows that the tare weight is activated.‘Tare:860kg’ shows the tare weight.4. The system is now ready to perform a weighing cycle.4.2 Net weighing: manual tare (Preset Tare) 1. Press the TARE field3. If the preset tare you select is empty you have to enter the tare value. Confirm with ‘Enter’.4. Name your Preset Tare value (max. 14 characters).7. The indicator now shows the NET weight. NOTE: To reset the tare see: 4.3 Reset tare.3. The indicator will switch back to the weighingmode and is ready for the next weighing.NET sign is gone. In the tare field ‘None’ is active.4.3.2 option 21. Press the preset tare button.3. If you press on the right side of the button anID entry field pops up, which allows you to select one of the 10 preset ID codes.Note: they must be named first on a new system. To change a name, press the settings symbol.4. Enter ID code or name (max. 14 characters).7. Your active ID codes will now be showed on the print out, or when transferrring data.←3. The weight has been added to the selectedtotal memory.6.2 Change active total memory 1. If preferred you can select a total memory, press the total field.3. The indicator is now printing.4. The weight is printed and the indicator isready for the next weighing.6.4 Send WiFi1. First a new weight must be on the display.2. The indicator is sending.Press the WiFi button.6.5 Edit, clear and print total registers1. Press the total field.2. Select the total memory you want to print orclear and press the settings symbol.3. Press Print Total to get a total print out of the4. The indicator is printing your receipt.selected total register.8. Change the name of the selected total register.7. Press Clear if you wish to erase allinformation in this total register. Or go back ifyou don’t wish to change the register.9. You can edit the name, press ‘Enter’ if you arefinished.3After saving the weighing data, place a USB stick in the indicator.Before inserting the stick please read the notes written at nr. 3 of this chapter!After completing your weighings, press the → Σ ← key to save all data on the indicator.NOTES:1) Make sure the stick is empty or does notcontain former weighing data information!2) Insert the stick only when the indicator isturned on!3) Indicator only works with USB stick formatFAT32.Press the arrow down 2 times to scroll through the buttons.Press the settings symbol.Now press ‘User Menu’. 5Press ‘Service Help’.Press ‘Alibi’.7The information of the last weighing isshown on the display.By pressing ‘Prev’ you switch to weighingsperformed prior to the last weighing.3. Press the user settings symbol.4. Select ‘User menu’.5. Select the parameter you wish to change.6. For this example we change the time.7.2 Changing the accuracy modeDefault the system is set to ‘Easy’ mode. This will open up the speed window of your measurements, and makes it possible to lift and lower faster.If you need to perform a lot of weighing cycles and wish to have the weighing actions shorter you can leave the Weighing mode on ‘easy’.Note: This may cause the system to be slightly less accurate. If a higher accuracy is needed you can set it to ‘Accurate’.1. Press ‘Weighing mode’.2. Select ‘Accurate’ and press ‘Enter’.3. Select the preferred language and press ‘Enter’.3. Select Function.4. Check the boxes of the actions you want tohappen after pressing the ‘Printer’ button.5. When you are finished, press ‘Enter’. Thechanges will be saved.3. If a button is not in use, because in this example the printer is installed after delivery. The default location is None.4. Select the row and button position on which the printer button should be located. Save changes by pressing ‘Enter’.5. The printer button is now present on button row 1.3. The checkbox for ‘Key Functions’ is checked, meaning the buttons are always present.4. Uncheck the box to hide the buttons onstart-up. Press ‘Enter’ to save the changes.5. The weight will be displayed bigger without the buttons active. If you need the buttons, press ‘>’.From the app you can:• enter the ID of an operator or device• enter tares (automatically or manually)• zero the weighing systemDate and time are automatically generated. If your Android device has an integrated barcode scanner, you can use it to enter product IDs.The RAVAS WeightsApp can be downloaded for free from Google Play and the Apple Store.For instructions for the use of the RAVAS WeightsApp see .。
RCS915CD-CT说明书
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RCS-915CD/CT 微机母线保护装置技术说明书使用说明书调试大纲(3.××版)南瑞继保电气有限公司南瑞继保电气有限公司版权所有2004.6(V3.2)此说明书对应版本号为3.00的程序。
本说明书和产品今后可能会有小的改动,请注意核对实际产品与说明书的版本是否相符。
更多产品信息,请访问互联网:目录1概述 (1)1.1应用范围 (1)1.2保护配置 (1)1.3性能特征 (1)2技术参数 (1)2.1额定参数 (1)2.2功耗 (1)2.3电源 (1)2.4主要技术指标 (2)2.5环境参数 (2)2.6电磁兼容 (2)2.7绝缘试验 (2)2.8机箱参数及安装方式 (2)2.9通讯 (2)3工作原理 (2)3.1装置硬件配置 (2)3.2原理说明 (3)4装置整体介绍 (4)4.1输出接点 (4)4.2装置接线端子 (5)4.3结构与安装 (9)5整定方法及用户选择 (11)5.1装置参数定值 (11)5.2系统参数定值 (12)5.3母差保护定值 (15)5.4失灵保护定值 (17)6装置使用说明 (25)6.1装置液晶显示说明 (25)6.2命令菜单使用说明 (29)7调试大纲 (32)7.1试验注意事项 (32)7.2交流回路校验 (32)7.3输入接点检查 (32)7.4整组试验 (32)7.5输出接点检查 (35)7.6开关传动试验 (35)7.7带负荷试验 (35)8装置的运行说明 (36)8.1装置的组成 (36)8.2装置异常信息含义及处理建议 (36)8.3安装注意事项 (38)8.4保护运行注意事项 (38)附录1:模拟盘简介 (39)附录2:程序版本更新情况 (41)1概述1.1 应用范围RCS—915CD/CT微机母线保护装置,主要适用于各种电压等级的双母单分段主接线方式,母线上允许所接的线路与元件数最多为18个(不包括母联和分段开关),并可满足有母联兼旁路运行方式主接线系统的要求。
RCS-974G说明书
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RCS-9652_060469备用电源自投装置说明书
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RCS-9652_060469备用电源自投与测控装置RCS-9652_060469备用电源自投与测控装置(程序版本:V3.32.1)1基本配置及规格1.1基本配置保护方面的主要功能有:1)两种方式的进线自投功能;2)两种方式的分段(桥)开关自投功能;3)增加自投方式5、6(用于远方备投或手拉手备投)。
测控方面的主要功能有:1)3路遥信开入采集、装置遥信变位、事故遥信;2)2组遥控输出,可作为桥开关及其隔离刀闸的遥控分合;3)分段开关P、Q、I A、I B、I C、COSФ等模拟量的遥测;4)事件SOE等。
1.2 技术数据1.2.1 额定数据直流电源: 220V,110V 允许偏差 +15%, -20%交流电压: 100V交流电流: 5A,1A频率: 50Hz1.2.2 功耗:交流电压: < 0.5VA/相交流电流: < 1VA/相 (In =5A)< 0.5VA/相 (In =1A)直流:正常 < 15W跳闸 < 25W1.2.3 主要技术指标:①自投时间:0~30S电压定值误差:< 5%时间定值误差:< 0.5%整定值②无流0.02In③遥测量计量等级:电流0.2级其他:0.5级④遥信分辨率: < 2ms信号输入方式:无源接点2 装置原理2.2模拟量输入外部电流及电压输入经隔离互感器隔离变换后,由低通滤波器输入模数变换器,CPU经采样数字处理后形成各种保护继电器,并计算各种遥测量。
Ua1、Ub1、Uc1为Ⅰ母电压输入,Ua2、Ub2、Uc2为Ⅱ母电压输入。
Ux1、Ux2为两进线线路PT的电压输入,其额定电压可为100V或57.7V,可通过“装置整定-装置参数”菜单中“线路PT额定二次值”项的整定来选择。
I1、I2为两进线一相电流,用于防止PT断线时装置误起动。
I A、I B、I C为专用测量CT输入。
2.3软件说明装置引入两段母线电压(Uab1、Ubc1、Uca1、Uab2、Ubc2、Uca2),用于有压、无压判别。
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F0/23B(C)、H3/36B、C7030电气系列
F0/23B(C)、H3/36B、C7030Electrical series
使
用
说
明
书
成都久和传动机械有限责任公司
地址:成都市双流县彭镇燃灯社区5组
电话(Phone):(028)67028807
传真(FAX):(028)85847360
邮编(ZIP code):610203
一.使用环境
1.周围空气温度
周围空气温度不超过+40℃,周围空气温度的下限为-25℃。
且在24h周期内平均温度不超过+30℃。
2.海拔高度
安装地点的海拔不超过2000m。
3.大气条件
空气清洁,而其相对湿度在最高温度为+40℃,不超过50%,在较低温度时,亦允许有较大的相对湿度,如最湿月平均温度为+20℃,月平均最大相对湿度不超过90%,并注意因温度变化产生在产品表面的凝露。
4.供电电网质量
供电电网容量应保证满足塔机功耗,进线电压波动范围须保证不超过额定电压值的±10%。
起升电控柜(L柜)适用于交流50Hz/380V、60Hz/440V三相电源。
5.安装条件
垂直安装倾斜度不超过5°;安装牢固,在主机工作过程中不会发生相对于主机的平移和垂直跳动;安装部位最高震动条件为:5~13Hz时,位移为1.5mm;13~15Hz时,震动加速度为1.0g。
二.阅读电气原理图的方法
1. 符号表示
各个部分字母表示见下列表格:
a)操作,检测,指示
b) Ⅰ部分
c)Ⅱ或Ⅲ部分
d)方向或速度
2 . 工作顺序、工作原理及符号
不同的工作阶段用下面两种不同的形式表示:
在开关转换顺序中
A)在工作顺序示意图中,采用下面符号:
接触器或继电器进入“工作状态”:PV
接触器或继电器进入“停止状态”:PV
PV表示两种工作状态。
B)在开关转换顺序中,采用下面符号:
接触器或继电器进入“工作状态”并通过同一机械或电气连锁保持:●
接触器或继电器进入“停止状态”:○
3. 动作特性和各机构功能
F0/23B(C)、H3/36B、C7030等塔式起重机电气控制柜可工作在交流50Hz/380V、60Hz/440V的额定电压条件下。
电气控制柜分A、L、HF柜,分别有供电,吊钩升降,小车变幅、回转几大系统。
供电系统(A柜)供电源给塔机各机构的用电、并起电路的短路、过载保护作用。
吊钩升降(L柜)控制塔机的吊钩起升、下降;小车变幅系统(HF柜)控制塔机的小车变幅(前后);回转系统(HF柜)控制塔机的回转。
3.1 起升机构(L柜)特性见表1、表2,开关序列见表3、表4:
表1
表2
上升工况电器元件动作程序:
表3
下降工况电器元件动作程序:
表4
注:吊钩升降2、3档为转换切换过渡档位,操作使用时,不能长时间运转。
3.2 回转机构(HF柜)特性见表5:
表5
3.3 小车变幅(HF柜)特性见表6(H24):
表6 3.4 小车变幅(HF柜)特性见表7(X96):
表7
3.5 供电系统(A柜)特性见表8:
表8
4. 保护型式
4.1 各限位器作用
SLChPv 重量限位器。
当起重负荷达到额定起重量的100%时,该限位器动作,限制重物上升。
SLMo 力矩限位器。
在起重力矩达到额定值的100%,该限位器动作,防止超载,实现力矩保护。
SLH 上升行程限位器。
重物被提升到设定高度时,限位器动作,重物将不能被继续被提升。
SLD 下降行程限位器。
重物下降到设定高度后,限位器动作,限制重物继续下降。
SLChGv 重量限位器。
当负荷达到50%以上时,限制重物高速提升。
RXDAr 行程向内变幅减速限位器。
SDAr 向内变幅限位器。
SDAv 向外变幅限位器。
SDMo 100%力矩限制器(向外)。
RDMo 重量限高速限位器(向外)。
RXDAv 行程向外变幅减速限位器。
SRD 左回转限位器。
SRG 右回转限位器。
4.2电气控制柜的线路保护分别有短路、过载保护,通过断路器的工作特性来实现。
电机有过载过热保护是由温度控制器监测电机的热敏电阻来实现。
三、电气控制柜原理图
L柜(起升)的控制原理图、元件位置图见附图。
HF柜(小车变幅回转)的控制原理图、元件位置图见附图。
A柜(电源)的控制原理图、元件位置图见附图。
四. 安装与调整
1. 电气控制柜安装前应注意下列事项:
a、检查电气控制柜,确认箱体及各元器件无损伤;
b、检查电气控制柜铭牌是否与所使用的正常工作条件相符合;
c、检查电气控制柜,确认各电气元器件间及端子的连接线正确,各固定件无
松动;
d、测量其绝缘电阻,600V以下电压等级产品应不小于1.5MΩ,如达不到要
求时,控制柜应进行干燥处理。
2.电气控制柜安装时应注意下列事项:
a、按图样文件规定的正常工作位置正确安装;
b、注意接线端子的标志,各处接线正确无误;
c、电气控制柜盘面设有接地螺栓,并有明显的接地标志,安装使用电气控制
柜时应保持接地螺钉的接触表面导电良好,接地可靠。
3.电气控制柜的调整
3.1 起升机构时间继电器的调整,CXL2、CXL3为通电延时1S。
XL3、XL4、
XL5为断电延时1S。
3.2 小车变幅机构时间继电器的调整,DPv为通电延时1S。
DFa为通电延时1S.
3.2 塔机风标机构时间继电器的调整,XRGi1为通电延时1S。
五.使用与维护
1.电气控制柜在运输和保管过程中,均不得受雨水侵袭,产品应放置在无雨雪侵入空气流通的地方,月平均湿度不大于90%,空气温度不高于+40℃与不低于-25℃的库房中。
2.电气控制柜在运行中,应定期检查,检查周期可视工作条件决定,检查时应切断电源。
检查的主要项目如下:
a、清除灰尘污物,尤其注意清除进出线的污物,以防止造成相互短路,同时
注意清理主接触器(LC1-F或D系列交流接触器)、继电器铁芯极及导轨部分的污物;
b、清除主接触器(LC1-F或D系列交流接触器)灭弧罩内的炭化物,金属颗
粒;
c、清除主接触器(LC1-F或D系列交流接触器)触头表面(不允许修锉)。
当触头有轻微烧伤及触头表面发黑时,可以不清理。
当发现触头磨损严重而不能继续使用时,应及时更换新触头或整台更换;
d、拧紧所有紧固件。
注意事项: 1.用户在接收到电控柜后,应检查其所有接线有无松动,如果有请先拧紧所有螺钉,方可使用。
2.所附电气原理图仅供维修参考。