User's manual of MTPR-810Hc transformer protection and monitoring device V1.03

Zhuhai Wanlida Electrical Automation Co., Ltd. http://www.zhwld.com User’s manual of MTPR-810Hc transformer protection and monitoring device Prepared by： Zhu Yanan Proofed by： Li Changwen Approved by： Lin Cunli Document No.: WLD [K]-JY-311-2018 Version No.: V1.03.01 Date of publication: June, 2018 Copyright: Zhuhai Wanlida Electrical Automation Co., Ltd. Note: Our Company reserves the right to modify this manual. For any inconsistency between the product and this manual, please contact us for relevant services. Technical support hotline: 0756-3395398 Fax: 0756-3395111 Foreword F o r e w o r d 1. Model description MTPR-810Hc is the microcomputer transformer protection and monitoring device, the structural type of the MTPR-810Hc series protection is Hc. MTPR-810Hc supports A, B, C three-phase current protection, also supports A, C two-phase current protection. When ordering, please specify. 2. Standards referenced General specification for static protection, security and automatic equipment, DL 478-2001 Technical code for relaying protection and security automatic equipment GB/T 14285-2006 Protective relay and automatic equipment design rules of power equipment GB50062-92 Transformer substation correspondence network and system DL/T 860 Intelligent substation technology norms Q／GDW 383 -2009 Intelligent substation relay protection technical specifications Q／GDW_441-2010 IEC61850 engineering application model Q／GDW 396-2010 3. Caution  Negative sequence voltage involved in this device of protection function is combined with phase voltage, all of low voltage component depend on line voltage in compound voltage block, if one of the three line voltages is lower than low voltage setting, low voltage component will operates and unblocks over current protection.  There are 4 standard curves of inverse protection involved in this device of protection function, if the fault current is higher than 15 times of the rated current, the inverse protection component will be exported according to the action time of 15 times of rated current.  The appearance should be inspected before power is applied, to ensure that the panel is OK without scratch, the screws are tightened, the device is grounded firmly, all screws of plug-ins are tightened and in good contact.  When power is applied, the “Run” indicator on the panel should flash, protection and measuring data are displayed on the LCD in cycle.  The terminal D25～D28 are measuring circuit of 4～20mA DC signal, when testing, Signal should be supplied by special equipment, the behavior of applying the signal of relay protection tester directly is prohibited. (Optional)  When the device is equipped with ungrounded system, terminal D07, D08 are zero sequence 2 Foreword small current input terminal, the AC current input should be limited within 2A, the measuring current input should be limited within 6A. When testing, pay attention to avoid large signal applied so as to avoid damage to components.  Operating circuit inside the device is only applicable to DC power supply, if AC power is used, it should be applied with rectifier and filter.  It is prohibited to plug or unplug the plug-ins, in order to avoid damage to the device.  It is prohibited to do digital output test when the device is running with primary equipments. 3 MTPR-810Hc transformer protection and monitoring device WLD[K]-JY-311-2018 1. Product description 1.1 Scope of application The MTPR-810Hc protection and monitoring device applies to the line protection and monitoring in ungrounded systems, systems grounded via an arc suppression coil or resistor with voltage ratings, or grounded system solidly of below 110kV. 1.2 Function and specification 1.2.1 Protective function  3-step compounded voltage block directional over-current protection（Three-step OC）  Inverse time limit overcurrent protection  Negative sequence overcurrent protection  Overload protection  High-voltage side ground protection  Low-voltage side ground protection  Undervoltage protection  Overvoltage protection  Body protection  Non-electric quantity protection（2 ways）（Can be selected or not）  Under-frequency unloading protection(Under-frequency) 1.2.2 Auxiliary function  Harmonic spectrum analysis  Phase display  Fault recorder  Integral energy  Self-checking fault alarm of device  Remote calling and modification of protection’s settings  One way (or two ways) programmable output of 4～20mA  Network print  Virtual correspondent node remote test 1.2.3 Monitoring function  Electric quantity（remote measuring quantity）：voltage, current, active power, reactive power, active energy, reactive energy, power factor, grid frequency, non-electric quantity measuring (optional), etc.  Remote binary quantity: the device has 25-way binary input, in which: 20-way for external gathering, and 5-way for internal gathering. 1.2.4 Communication capability  With industrial Ethernet port and standard RS485 multipoint communication port. Supports 3 MTPR-810Hc transformer protection and monitoring device WLD[K]-JY-311-2018 MODBUS、IEC-60870-5-103（RS485 communication mode）、IEC-61850-5-104（Industrial Ethernet communication mode） standard communication protocol and a new generation of substation’s communication standard IEC 61850.  Supports single and dual network communication, it is fully qualified for network redundancy and backup 1.2.5 GPS clock synchronization function  The device is able to receive GPS clock second synchronization or IRIG-B through RS485 differential voltage, and it can be done with monitoring system to accomplish GPS precise clock synchronization or Ethernet-based SNTP synchronization. 1.2.6 Device specifications  32-bit POWERPC microprocessor  Real-time multi-task operating system and C++ program techniques, realizing online programming  320*240 LCD display, easy for inspection  One or two ways 4~20mA DC quantity output, which can be set flexibly as any corresponding electric quantity (such as current, voltage, power etc.)  Collecting 2 ways of 4~20mA DC quantities for measurement of non-electric quantities, such as temperature, pressure, and realizing online monitoring. (optional)  Having the electric energy quality analysis function and perfect harmonic analysis function  Integrating perfect metering functions and Metrology Function  Support network printing function, include two ways: real-time print and artificial print  Support virtual correspondent node remote test, including remote communication to correspondent node, remote measure to correspondent node, event to correspondent node, can online testing, it is convenient for debugger to debug the device on-site.  Excellent hardware interchangeability, user maintenance is easily and it reduced quantity of spare parts  Protection output relays can be configured flexibly for user convenience  Using a 6U, 19/3” standard enclosure in a rear plug-in structure. the device can be installed in site on a switchboard or combined in a centralized manner 1.2.7 Main technical specifications  Rated data Power supply: DC/AC 86~265V Operating voltage: DC 220V or DC 110V AC voltage: 100/ 3 V or 100V AC current: 5A or 1A Frequency: 50Hz  Power consumption DC circuit: <10W (normal operation). <15W (protection operation) AC voltage circuit: <0.5VA/phase AC current circuit: <1VA/phase (In = 5A). <0.5VA/phase (In = 1A).  Overload capability 4 MTPR-810Hc transformer protection and monitoring device WLD[K]-JY-311-2018 AC voltage circuit: 1.2Un, continuous operation Current measuring circuit: 1.2 In, continuous operation Protective current circuit: 2In, continuous operation 10In, allowing 10s 40In, allowing 1s  Range and error of setting value  Maximum range of setting value: Voltage element: 1V~120V Current element: 0.1In~20In Frequency: 45.00Hz~55.00Hz Timing element: 0.00s~100.00s  Error of setting value: Current and voltage setting value: ≤±3% of setting value Frequency setting value: ≤±0.02Hz Angle setting value: ≤±2° Whole-group operation time (including relay’s intrinsic time): Intrinsic operating time of current instantaneous over-current protection: not greater than 40ms at 1.2 times the setting value  Measuring accuracy AC current: Class 0.2 AC voltage: Class 0.2 4~20mA DC quantity input: ≤±1% Power: Class 0.5 Integral energy: Class 1 (active), Class 2 (reactive) Frequency: ≤±0.02Hz SOE resolution: ≤2ms Pulse width of pulse quantity: ≥10ms 4~20mA DC quantity output: ≤±1%  Capacity of trip/closing output contact Can be connected to DC 250V, 8A for prolonged periods.  GSP clock synchronization error Clock synchronization error≤2ms  Environmental conditions 　 Ambient temperature: 　 Operating：-20℃～+55℃. Storage：-25℃～+70℃, rainproof and snow-proof rooms with relative humidity not greater than 80%, ambient air free of acid, alkaline or other corrosive and explosive gas. No excitation quality is applied at the limits, the device shall not have any irreversible change. After temperature restoration, the device shall operate properly. Relative humidity: 5 MTPR-810Hc transformer protection and monitoring device WLD[K]-JY-311-2018 The average relative humidity of the most humid month shall not be greater than 90%, the average minimum temperature of this month not lower than 25℃ and there shall be no surface condensation. At the highest temperature of +40℃, the average maximum humidity shall not exceed 50%. Atmospheric pressure: 80kPa~110kPa (below relative altitude of 2KM) 1.2.8 Hardware structure The device uses a 6U, 19/3” standard enclosure, with aluminum alloy casing and installed by overall embedding. The display panel is mounted in the front, and the other plug-in modules are rear mounted. From the rear view, I/O, the power, CPU and AC plug-in modules are from the left to the right.  External dimensions and boring diagram Structural and dimensional diagram Boring diagram for installation Devices fabricated on-screen steps: first release on-screen stents unfastening screws, remove the stents. Install the device on the screen from the front and push until close to the fixed plate. Install the stent 2, and then stent 1, and then use fastening screw to insertion hole from rear of stent1, and then screwed into stent 2 and tighten screw. The stents from up and down are installed in the same way. Use grounding screws to connect grounding line. 6 MTPR-810Hc transformer protection and monitoring device WLD[K]-JY-311-2018 2. Function of device 2.1 3 sections of compounded voltage block overcurrent protection This device has 3 sections of compounded voltage block overcurrent protection. They are instantaneous over-current protection, the time-limit instantaneous over-current protection, over-current definite-time limit protection respectively. The current and time setting values of each section can set separately. When the maximum phase current is greater than the setting value of the current, and the negative sequence voltage (the negative sequence voltage is synthesized from the phase voltages) or Under-voltage (being the line voltage; if one or more of the 3 line voltages is/are less than the Under-voltage setting value, Under-voltage component operates to open the over-current protection) condition is met, it will operate on trip after a delay. The protection operation logic is shown in figure 2-1（using instantaneous over-current protection as an example）. Note: the negative sequence voltage (U2) is compound by each phase voltage, low voltage is the minimum value of three phase line voltage. 7 MTPR-810Hc transformer protection and monitoring device WLD[K]-JY-311-2018 Umin<Low-voltage compounded setting value voltage block On/Off O ver-current U2>negative sequence ≥1 instantaneous voltage setting value protection On/Off Protection Ia≥Over-current & T output instantaneous setting value sequence Ib≥Over-current instantaneous setting value ≥1 Ic≥ Over-current instantaneous setting value Figure 2-1 Operation logic of compounded voltage lock over-current protection 2.2 Inverse time limit over-current protection As stipulated by the IEC (IEC255-4), the following 4 standard characteristic equations are usually used. The user may select one as the case may be: t 0.14 0.02  p Standard inverse time limit: ( I / I p )  1 （1） 13.5 Unusual inverse time limit: t  ( I / I )  1  p （2） p t 80 2  p Extreme inverse time limit: ( I / I p )  1 （3） 120 Long inverse time limit: t  (I / I )   1 p （4） p Where: I is the fault current, Ip is the setting value of the inverse time limit starting current, τp is the transformer’s overcurrent inverse time limit constant, corresponding to the overload capacity of the transformer, derived from calculation. When the amplitude of the inverse time limit overcurrent of any of phases A, B and C is greater than the setting value of the inverse time limit starting current, the device will operate on trip according to the inverse time limit characteristic curve. The software makes selection by inverse time limit characteristic control word. The protection operation logic is shown in Figure 2-2.  Note: Imax=max{Ia，Ib，Ic}，the same below Inverse time limit over- T Imax>Ip current On/Off Protection output sequence Figure 2-2 Operation logic of inverse time limit over-current 2.3 Negative sequence overcurrent protection By processing of the currents of Phases A, B and C, the negative sequence current is calculated. The negative sequence overcurrent protection is available in the definite time limit and inverse time limit modes. Negative sequence overcurrent definite time limit：If the negative sequence current exceeds the setting of negative sequence current, the device will operate on trip. 8 MTPR-810Hc transformer protection and monitoring device WLD[K]-JY-311-2018 Negative sequence overcurrent inverse time limit：Having four characteristic curves for choice, the same as the high voltage side inverse time limit overcurrent protection. To avoid any potential protection false operation arising from the asynchronism of the 3 phases upon closing of the circuit breaker, the set delay shall not be less than 0.2S. 2.4 Overload protection For Phases A, B and C, when the maximum phase current is greater than the overload setting value, there will be an operation after a delay. The protection output may elect to operate on signal or trip. The protection operation logic is shown in Figure 2-3. Overload On/Off Imax>Overload T Protection output setting value sequence Figure 2-3 Operation logic of overload protection 2.5 High-voltage side ground protection It includes a section of definite time limit Zero sequence Overvoltage protection and 3 sections of zero sequence overcurrent protection. The zero sequence voltage is from the PT opening triangle. When the circuit breaker is closed, the zero sequence voltage exceeds the setting value and the setting delay is reached, the protection will operate. The protection output may elect to operate on signal or trip. The zero sequence Overvoltage trip is blocked via the position of the switch. The zero sequence current uses special zero sequence CT, which can detect the primary cable zero sequence CT current accurately. When the current exceeds the setting value and the setting delay is reached, the protection will operate. The protection output may operate on signal or trip. For ungrounded systems, when a ground fault occurs in the system, the zero sequence current of the ground fault point is basically a capacitive current with small amplitude. If a zero sequence overcurrent relay is used to protect it from ground faults, its selectivity can hardly be guaranteed. The device uploads the amplitude and direction of the zero sequence current by communication, and the upper computer performs low current ground wire selection. The protection operation logic is shown in Figure 2-4. I0> zero sequence Protection On/Off T Protection output curre nt setting value sequence Figure 2-4 Operation logic of high-voltage side ground protection 2.6 Low-voltage side ground protection The low-voltage zero sequence overcurrent protection is available in the definite time limit and inverse time limit modes, the same as the negative sequence overcurrent protection. 9 MTPR-810Hc transformer protection and monitoring device WLD[K]-JY-311-2018 2.7 Voltage protection 2.7.1 Under voltage protection The device judges the maximum line voltage value, if it is lower than the setting value and the setting delay is reached, the protection will operate on trip and is blocked by the switch position, and PT failure. The protection operation logic is shown in Figure 2-5. Circuit breaker at closed position Umax<Uddy & Undervoltage on/off Protection & T output PT failure PT failure block sequence Figure 2-5 Operation logic of Under-voltage protection To avoid any potential protection false operation upon closing of the circuit breaker, the setting delay shall not be less than 0.2S. 2.7.2 Overvoltage protection The device judges the maximum line voltage value, if it is greater than the setting value and the setting delay is reached, the protection will operate on trip and is blocked by the switch position. The protection operation logic is shown in Figure 2-6. C ircuit breaker at closed position Over-voltage on/off & T Protection Um ax〉Ugdy output on/off Figure 2-6 Operation logic of Overvoltage protection 2.8 Body protection The device has 5 body protections, such as heavy gas trip, light gas alarm, Over temperature trip, temperature alarm and pressure relief protection. The operation contact signal operates on trip or alarm subject to CPU processing, and its operating time is recorded by the software. 2.9 Non-electric quantity protection（Can be selected or not） The device has the 2-way non-electric quantity protection function, switched on/off by control word, which are used for trip. 2.10 PT failure alarm The judgment criterion of PT failure depends on the wiring mode. When the PT failure block function is enabled, if PT failure occurs, the device will exit from judgment of Undervoltage protection and compounded voltage block component. The judgment criterion of PT failure is as follows:  V-V wiring mode The current value of the phase with the maximum current is less than the maximum load 10 MTPR-810Hc transformer protection and monitoring device WLD[K]-JY-311-2018 current (using the setting value of the overload current). ① Maximum inter-phase voltage < 30V, and current of any phase > 0.1In; ② Negative sequence voltage > 8V If any of the above conditions is met, the delay (settable) will report PT failure, and will return when failure disappears.  Y-Y wiring mode The current value of the phase with the maximum current is less than the maximum load current (using the setting value of the overload current). ① When |Ua+Ub+Uc| >7V, and the modulus difference between the maximum and minimum line voltages is greater than 18V, single-phase or 2-phase failure occurs; ② |Ua+Ub+Uc| >7V, the minimum line voltage is less than 18V, used for detecting 2-phase failure. ③ When MAX{Uab, Ubc, Uca}<7V, and the current of any phase > 0.1In, it is regarded as PT 3-phase failure. If any of the above conditions is met, and the time delay reached, the device reports PT failure, the alarm will return when failure disappears. Max{Ia，Ib，Ic}<Igfh MaxU<30V & Max{Ia,Ib,Ic}>0.1*In ≥ PT failure U2>8V on/off& & V -V wiring    ≥ | U a  U b  U c | 7V |MaxU-MinU|>18V & PT failure    TPT operation | U a  U b  U c | 7V & information MinU<18V & ≥ MaxU<7V MaxU=Max(Uab,Ubc,Uca) Max{Ia,Ib,Ic}>0.1*In & MinU=Min(Uab,Ubc,Uca) Figure 2-7 PT failure judgment logic 2.11 Operate circuit break This function can be selected or not..When this function be selected, the device monitoring the HWJ and TWJ states. If HWJ and TWJ both On or Off, the delay (settable) will report operate circuit break, and will return when failure disappears. 2.12 Integral energy 11 PT failure component MTPR-810Hc transformer protection and monitoring device WLD[K]-JY-311-2018  Integral energy The software accumulates active and reactive powers into active and reactive energy in real time. 2.13 Fault recorder See the communication coding table for the protection voltage and current waveform data collected by the recording unit. 2.14 Network print Device supports network printing function, can print remote control information, soe information and the setting parameter list. The printer IP address must been set rightly on the device (the network segment of printer must be as same as that of device IP addresses), then connect a printer, put on "real-time report print ", it can print the current remote control information or SOE information when device is connected to the back-ground (including remote communication shift, protection action), and can print the current SOE information when device is not connected to the background. In addition, when press the "ok" button in the "print report" or "print setting value" menu, it can print the all setting parameter or the all report information, including action value. 2.15 Virtual correspondent node remote test The function is used to complete the communication node remote test of the device, do not need to access the actual analog electric quantity or the input quantity. Specific operation as follows, connect to the background, In the remote test menu, operate the “virtual input test”, the “virtual measure test” and the “virtual SOE test” menu in the “remote test” menu, press the "OK" button after the modification of various settings, then by observing the background pop-up warning window or the change of the corresponding value, to determine whether the device communication node is right. It is convenient for debugger to debug the device on-site. When you are in the mode of remote test, the all protect must be off. 2.16 GPS clock synchronization The GPS clock synchronization signal is input as rs485 differential voltage, the device is able to receive GPS clock second synchronization. If there is GPS signal, there will be flashing on the bottom of cycle menu. Otherwise won’t. The principle of GPS clock synchronization: The second pulse or minute pulse act with the monitoring system, the time base with second precision is sent by monitoring system, when the GPS second differential signal arrives, the time base is unified and the milliseconds are cleared. The device is able to receive GPS clock second synchronization or IRIG-B through RS485 differential voltage, and it can be done with monitoring system to accomplish GPS precise clock synchronization or Ethernet-based SNTP synchronization. 2.17 Overhaul status When the device put into overhaul plate, remote sign, remote measure can uploading background computer. But the device can’t remote control by background computer. The SOE event、Alarm event、Trip event, etc also can’t uploading background computer. 12 MTPR-810Hc transformer protection and monitoring device WLD[K]-JY-311-2018 2.18 Under-frequency unloading protection(Under-frequency) The frequency is derived from software calculation, use the frequency of UAB. The unloading protection is blocked by under-voltage block, under-current block or slip block, in which slip block can be switched On/Off. The operation logic of under-frequency unloading is shown in Figure 2-8. F<Fdpjz Low-frequency Df/dt<Dfdt unloading protection on/off Tdpjz Protection output Imax>Idzh & sequence Uab>Udz Figure 2-8 Operation logic of under-frequency unloading 3. Setting of parameters and setting values of the device 3.1 System parameters Parameter Range Description Settings of setting value zone number（Setting Zone No.） Setting value zone 0-7 Set step:1（factory default 0） number(Setting Zone No.) Communication settings（Comm. Setting） Set step :1 (factory default 1) NET Protocol 0-2 （0-Quit;1-IEC104; 2-IEC61850） Set step :1 (factory default 0) RS485 Protocol 0-2 （0-Quit;1-IEC103; 2-Modbus） RS485 address(RS485 1-99 Set step:1（factory default 1） Address) RS485 baud rate(RS485 Set step:1（factory default 2）0：2.4KB;1：4.8KB; 0-5 Baudrate) 2：9.6KB;3：19.2KB;4：38.4KB;5：115.2KB; IP address(IP Address) One section set step:1（factory default 192.168.0.253） SNTP Address (SNTP It has four One section set step:1（factory default 192.168.0.254） Address) sections. The KW default value(KW range of every One section set step:1（factory default 12.8.6.1） Default) section is Printer IP address(Printer 0-255 One section set step:1（factory default 192.168.0.099） IP) 13 MTPR-810Hc transformer protection and monitoring device WLD[K]-JY-311-2018 Parameter Range Description Coefficient of transformer PT Ratio 1-1500 Set step: 1 (factory default 100) CT Ratio 1-5000 Set step: 1 (factory default 100) Setting of basic parameters(B. Parameters) Rating Current（In） 0-1 Set step: 1 (factory default 0) 00: 5A. 01: 1A CT Wiring Mode 0-1 Set step: 1 (factory default 0) 00: 3-phase. 01: 2-phase PT Wiring Mode 0-1 Set step: 1 (factory default 0) 00: Y-Y. 01: V-V For harmonic calculation, select the corresponding Harmonic Channel 0-12 reference quantity: 0：exit from harmonic calculation function 1:Ia,2:Ib, 3:Ic,4:I0,5:IA,6:IB,7:IC,8:Ua,9:Ub,10:Uc,11:U0,12:UL Wave Record 0-1 Set step:1（factory default 0）00：Off;01：On Earth Mode 0-1 00：No Earth, 01：Earth Remote communication 10-100ms Set step: 1 (factory default 40ms) ack time (input ack time) Measure IB Set step: 1 (factory default 0) 0-1 compound(IB compound) 00：non-compound；01：compound Remote/Local switch 0-1 Set step: 1 (factory default 0) 00：exit；01：on Real-time print report 0-1 Set step: 1 (factory default 0) 00：exit；01：on on/off(auto print report) D/A channel setting(D/A Setting) Select DA1~2 to output corresponding reference quantities: 0: No D/A output 1:IA, 2:IB, 3:IC, 4:Ua, 5:Ub, 6:Uc, 7:Uab, 8:Ubc,9:Uca,10:P,11:Q Voltage reference quantity: 0-120V corresponding to 4mA-20mA. Rating 5A： DA1~2 Channel Current reference quantity: 0-6A corresponding to 0-11 Selection 4mA-20mA, Power reference quantity: 0-1000W corresponding to 4mA-20mA. Rating 1A： Current reference quantity: 0-1.2A corresponding to 4mA-20mA, Power reference quantity: 0-200W corresponding to 4mA-20mA. 14 MTPR-810Hc transformer protection and monitoring device WLD[K]-JY-311-2018 Parameter Range Description DA1～2 Adjustment 0.05-1.5 Adjust D/A channel 1～2（4-20mA） parameters Factor Integral Energy 0-4294967.295k Positive active energy Wh 0-4294967.295k Positive reactive energy vh Set step:0.001 0-4294967.295k Press “confirm” for reservation, and revert to last menu. Negative active energy Wh 0-4294967.295 Negative reactive energy kvh Channel factor setting(Channel Coef.) Set step:0.001（factory default 1） Channel data 1～12 0.5-5 Channel data 1-12 are corresponded to the channel factor of analog quantity 1-12. Set step:0.001（factory default 1） Channel data 13～14 0.5-5 Channel data 13,14 are corresponded to channel factor of DC quantity 1,2. 3.2 List of setting values Setting value Range Description Instantaneous Overcurrent Protection 1/0 1/0：On/Off (factory default Off) On/Off (Inst.PROT) The time Delay Instantaneous Overcurrent Protection 1/0 1/0：On/Off (factory default Off) On/Off (Delay Inst.PROT) Overcurrent Definite-time Limit 1/0 1/0：On/Off (factory default Off) Protection On/Off (DT Overcurrent) 15 Protection on/off word MTPR-810Hc transformer protection and monitoring device WLD[K]-JY-311-2018 Setting value Range Description Instantaneous Overcurrent Compounded Voltage 1/0 1/0：On/Off (factory default Off) Lock On/Off (Inst. CV Lock) The time delay Instantaneous Compounded Voltage 1/0 1/0：On/Off (factory default Off) Lock On/Off (Delay CV Lock) Overcurrent Definite-time Limit Compounded Voltage 1/0 1/0：On/Off (factory default Off) Lock On/Off (DT OC CV Lock) Inverse time Limit Overcurrent Protection 1/0 1/0：On/Off (factory default Off) On/Off (IT Overcurrent) Zero Sequence Overcurrent Section I 1/0 1/0：On/Off (factory default Off) On/Off (ZS OC 1 Trip) Zero Sequence Overcurrent Section II 1/0 1/0：On/Off (factory default Off) On/Off (ZS OC 2 Trip) Zero Sequence Overcurrent Section III 1/0 1/0：On/Off (factory default Off) Alarm On/Off (ZS OC 3 Alarm) Zero Sequence Overcurrent Section III 1/0 1/0：On/Off (factory default Off) Trip On/Off (ZS OC 3 Trip) Zero Sequence Overvoltage Alarm 1/0 1/0：On/Off (factory default Off) On/Off (ZS OV Alarm) Zero Sequence Overvoltage Trip On/Off 1/0 1/0：On/Off (factory default Off) (ZS OV Trip) Overload Alarm On/Off 1/0 1/0：On/Off (factory default Off) (Overload Alarm) 16 MTPR-810Hc transformer protection and monitoring device WLD[K]-JY-311-2018 Setting value Range Description Overload Trip On/Off 1/0 1/0：On/Off (factory default Off) (Overload Trip) Undervoltage Protection On/Off 1/0 1/0：On/Off (factory default Off) (Undervoltage) PT Failure Alarm On/Off 1/0 1/0：On/Off (factory default Off) (PT Failure Alarm) PT Failure Block On/Off 1/0 1/0：On/Off (factory default Off) (PT Failure Lock) Non-electric Quantity 1 Protection On/Off 1/0 1/0：On/Off (factory default Off) (Non-electric 1) Non-electric Quantity 2 Protection On/Off 1/0 1/0：On/Off (factory default Off) (Non-electric 2) Overvoltage Protection On/Off 1/0 1/0：On/Off (factory default Off) (Overvoltage) Negative Sequence Overcurrent Definite 1/0 1/0：On/Off (factory default Off) Time Limit On/Off (NS OC DT) Negative Sequence Overcurrent Inverse 1/0 1/0：On/Off (factory default Off) Time Limit On/Off (NS OC IT) Undervoltage Zero Sequence DefiniteTime Limit Overcurrent 1/0 1/0：On/Off (factory default Off) On/Off (UV ZS OC DT) Undervoltage Zero Sequence Inverse Time Limit Overcurrent 1/0 1/0：On/Off (factory default Off) On/Off (UV ZS OC IT) Heavy Gas Trip On/Off 1/0 1/0：On/Off (factory default Off) (Heavy Gas Trip) Light Gas Alarm On/Off 1/0 1/0：On/Off (factory default Off) (Light Gas Alarm) Over temperature Trip On/Off 1/0 1/0：On/Off (factory default Off) (Over Temp.Trip) Temperature Alarm On/Off 1/0 1/0：On/Off (factory default Off) (Temperature ALM) Pressure Relief Trip On/Off 1/0 1/0：On/Off (factory default Off) (P-relief Trip) 17 MTPR-810Hc transformer protection and monitoring device WLD[K]-JY-311-2018 Setting value Range Description Under-frequency unloading 1/0 1/0: On/Off (factory default Off) (Under-frequency) Slip block(Slip Lock) 1/0 1/0: On/Off (factory default Off) Overcurrent protection Undervoltage block 10.00－90.00V Set step:0.01V(factory default 90V) (Undervoltage) Negative sequence voltage block 2.00-30.00V Set step:0.01V(factory default 10V) (NS Voltage) Instantaneous current 0.10-100.00A Set step:0.01A(factory default 100A) (Inst.Current) Instantaneous delay 0.00-100.00s Set step:0.01s(factory default 100s) (Inst.Time) The time delay instantaneous current 0.10-100.00A Set step:0.01A(factory default 100A) (Delay Inst.C) The time delay instantaneous delay 0.00-100.00s Set step:0.01s(factory default 100s) (Delay Inst.Time) DT overcurrent 0.10-100.00A Set step:0.01A(factory default 100A (DT Overcurrent) DT overcurrent 0.00-100.00s Set step:0.01s(factory default 100s) (DT OC Time) Overcurrent inverse time limit protection Inverse time limit characteristic curve 1-4 Set step:1(factory default 1) (IT Trait Curve) Inverse time limit constant 0.00-1.00s Set step:0.01S (factory default 1s) (IT Time Contant) Inverse time limit starting current 0.10-100.00A Set step:0.01A(factory default 10A) (IT Start Current) Negative sequence overcurrent Negative sequence current 0.10-100.00A Set step:0.01A(factory default 100A) (NS DT Current) 18 MTPR-810Hc transformer protection and monitoring device WLD[K]-JY-311-2018 Setting value Range Description Negative sequence overcurrent Set step:0.01s(factory default 100s) delay 0.00-100.00s (NS DT Time) Negative sequence inverse time Set step:1(factory default 1) limit characteristic curve 1-4 (NS IT Curve) Negative sequence inverse time limit constant 0.00-1.00s Set step:0.01S (factory default 1s) (NS IT Constant) Negative sequence inverse time limit starting current 0.10-100.00A Set step:0.01A(factory default 10A) (NS IT Start C) Overload Overload current 0.10-100.00A Set step:0.01A(factory default 100A) (Overload Current) Overload delay 0.00-100.00s Set step:0.01s(factory default 100s) (Overload Time) Zero sequence Overvoltage Zero sequence Overvoltage 5.00-100.00V Set step: 0.01V (factory default 100V) (ZS OV Value) Zero sequence Overvoltage delay 0.10-100.00s Set step: 0.01S (factory default 100s) (ZS OV Time) High-voltage side zero sequence overcurrent Setting value of Zero sequence overcurrent Section I Set step: 0.01A 0.00-100.00A (factory default 2A) (ZS Overcurrent 1) Zero sequence overcurrent Set step: 0.01S Section I delay 0.00-100s (factory default Standard products (ZS OC 1 Time) 100s) are designed based Setting value of Zero sequence on a neutral point overcurrent Section II Set step: 0.01A 0.00-100.00A (factory default 2A) ungrounded (ZS Overcurrent 2) Zero sequence overcurrent system. Specify Set step: 0.01S Section II delay 0.00-100s (factory default any other mode (ZS OC 2 Time) 100s) upon ordering if any Setting value of Zero sequence overcurrent Section III Set step: 0.01A 0.00-100.00A (factory default 2A) (ZS Overcurrent 3) Zero sequence overcurrent 0.00-100s Set step: 0.01S (factory default 19 MTPR-810Hc transformer protection and monitoring device WLD[K]-JY-311-2018 Setting value Range Description Section III delay 100s) (ZS OC 3 Time) Low-voltage side zero sequence overcurrent Setting value of low-voltage zero sequence current 0.10-100.00A Set step: 0.01A (factory default 10A) (DT Current) Definite time limit delay 0.00-100.00s (DT Time) Set step: 0.01s (factory default 10s) Inverse time limit characteristic curve selection 1-4 Set step: 1 (factory default 1) (IT Trait Curve) Inverse time limit constant 0.00-1.00s Set step: 0.01S (factory default 1s) (IT Time Contant) Inverse time limit starting current 0.10-100.00A Set step: 0.01A (factory default 10A) (IT Start Current) Voltage protection Undervoltage setting value 10.00-90.00V Set step: 0.01V (factory default 90V) (Undervolt. Value) Undervoltage delay 0.10-100.00 s Set step: 0.01S (factory default 100s) (Undervolt. Time) Overvoltage setting value 90.00-150.00V Set step: 0.01V (factory default 120V) (Overvolt. Value) Overvoltage delay 0.10-100.00s Set step: 0.01S (factory default 100s) (Overvolt. Time) PT failure setting value PT failure delay 0.50-100.00s Set step:0.01s(factory default 10s) DC protection DC 1 value (DC 1 Value) 4.00-20.00mA Set step:0.01mA(factory default 20mA) DC 1 time 0.00-100.00s Set step:0.01s(factory default 100s) DC 2 value (DC 2 Value) 4.00-20.00mA Set step:0.01mA(factory default 20mA) DC 2 time 0.00-100.00s Set step:0.01s(factory default 100s) Under-frequency unloading Setting value of under-frequency unloading 45.00-50.00Hz Set step: 0.01Hz (factory default 48Hz) (Under-freq.Value) Setting value of under-frequency unloading 0.50-100.00S Set step: 0.01S (factory default 100S) delay(Under-freq.Time) 20 MTPR-810Hc transformer protection and monitoring device WLD[K]-JY-311-2018 Setting value Range Description Setting value of under-frequency unloading low current block(Low 0.2-5A Set step: 0.01A (factory default 2A) Current Lock) Setting value of under-frequency unloading under-voltage 1.00-90.00V Set step: 0.01V (factory default 90V) block(Undervolt. Lock) Setting value of under-frequency unloading 0.5-10.00Hz/s Set step: 0.01Hz/s (factory default 1Hz/s) slip block(df/dt Lock) Operate circuit break Operate CIR Time 0.00-100.00S Set step:0.01s(factory default 3s) 4. Description of binary input, output and analog quantity 4.1 Monitoring of analog quantities Analog quantities can be monitored under the [Protection Data], [Measured Data] and [Pulse Energy] menus in the [Run States] menu, press the “”, “” keys to flip over. The factory precision of the device has been calibrated. The protection current is calibrated at double the rated current and the measuring current at a single rated current. The list is as follows: Note: for protection CT 3-phase, PT Y-Y wiring. due to the under-frequency unloading protection of this device, the frequency display is put in the protection data. Analog quantity Analog quantity Test method terminal name Protective Phase A Add double the rating, displayed deviation not Terminals D01、D02 current (Ia) exceeding 1% Protective Phase B Add double the rating, displayed deviation not Terminals D03、D04 current (Ib) exceeding 1% Protective Phase C Add double the rating, displayed deviation not Terminals D05、D06 current (Ic) exceeding 1% Zero sequence Terminals D07、D08 Add 1A, displayed deviation not exceeding 0.2% current (I0) Measured Phase A Terminals D09、D10 Add rating, displayed deviation not exceeding 0.2% current (IA) Measured Phase B Add a single rating, displayed deviation not exceeding Terminals D11、D12 current (IB) 0.2% Measured Phase C Add a single rating, displayed deviation not exceeding Terminals D13、D14 current (IC) 0.2% Terminals D15、D16 Phase A voltage (Ua) Add 50V, displayed deviation not exceeding 0.2% Add 50V 50Hz, displayed deviation not exceeding Uab System frequency F ±0.02Hz 21 MTPR-810Hc transformer protection and monitoring device WLD[K]-JY-311-2018 Analog quantity Analog quantity Test method terminal name Phase B voltage Terminals D17、D18 Add 50V, displayed deviation not exceeding 0.2% (Ub) Terminals D19、D20 Phase C voltage (Uc) Add 50V, displayed deviation not exceeding 0.2% Zero sequence Terminals D21、D22 Add 50V, displayed deviation not exceeding 0.2% voltage (U0) Low-voltage side Terminals D23, D24 zero sequence Add double the rating, displayed deviation not current (I0L) exceeding 1% Add 50V 50Hz, displayed deviation not exceeding Terminals D23、D24 Line frequency（F） ±0.02Hz 4～20mA DC Input Terminals D25、D26 Add 10mA, displayed deviation not exceeding 1% 1 4～20mA DC Input Terminals D27、D28 Add 10mA, displayed deviation not exceeding 1% 2 Terminals D09、 D10;D13、D14 add Add a single rating to current and 100V to line voltage current by polarity;D15、 3-phase active power Alter phase angle, displayed power deviation not D16;D17、D18;D19、 exceeding 0.5% D20 add voltage by polarity Terminals D09、 D10;D13、D14 add Add a single rating to current and 100V to line voltage current by polarity;D15、 3-phase reactive Alter phase angle, displayed power deviation not D16;D17、D18;D19、 power exceeding 0.5% D20 add voltage by polarity 4.2 Monitoring of binary input Binary input can be monitored under the [Binary input] menu in the [Run States] menu, press the “”, “” keys to flip over. Binary input Binary input name Test method terminal B01 Common terminal of binary input - External power supply of 220V or 110V DC （Should be connected to DC220V can be applied, connect the negative terminal or DC110V to terminal B01, positive terminal to terminal 22 MTPR-810Hc transformer protection and monitoring device WLD[K]-JY-311-2018 negative terminal of external power B02～B21, in [Binary input] menu in the supply） [Run States], the status of binary input can be B02 Breaker position seen. B03 Trolley run position The device also has a 24V DC supply, if B04 Trolley test position it is used, terminal B22 can be connected to B05 Earth switch position terminal B02～B21, in [Binary input] menu in B06 Spring is not energized the [Run States], the status of binary input can B07 Heavy gas trip be seen. (Heavy Gas) “Manual Trip”, “Manual Close” , “TWJ” , B08 Light gas warning “HWJ” are taken from the operate circuit to (Light Gas) monitoring the status. B09 Over temperature trip Connect the negative terminal to terminal (Over T Trip) A11 (-KM), positive terminal to terminal A06 B10 Temperature warning (Manual Close), A08(Manual Trip),in [Binary (Temp. Alarm) input] menu in the [Run States], the status of binary input can be seen. B11 Input 10 Connect the positive terminal to terminal B12 Input 11 A12(+KM), negative terminal to terminal B13 Input 12 A05(TWJ),A04(HWJ),in [Binary input] menu B14 Input 13 in the [Run States], the status of binary input B15 Input 14 can be seen. B16 Input 15 Connect the negative terminal to terminal B17 Input 16 A11(-KM),positive terminal to terminal B18 Input 17 A14(Remote common),in [Binary input] B19 Input 18 menu in the [Run States], the Remote/Local B20 Input 19 status of binary input can be seen. B21 Overhaul Please note about the binary input voltage Binary input Manual Trip upon ordering, it is set to DC220V by default. of Operate Manual Close circuit HWJ TWJ Remote/Local B22 Positive terminal of internal 24V power supply 4.3 Monitoring of binary output Binary output can be monitored under the [Binary output] menu, press the ““, ““ keys to flip over. 23 MTPR-810Hc transformer protection and monitoring device WLD[K]-JY-311-2018 Binary output terminals Binary output name Test method B23-B24 Trip Signal B23-B25 Alarm Signal B23-B26 Operate CIR Signal A17-A18 PROT Output 1 A19-A20 PROT Output 2 Select open and close menu, use “+”, “-” A21-A22 Output 3 key to operate and test the corresponding A23-A24 Output 4 terminals. A29-A30 and A31-A32 are A25-A26 Output 5 common open terminals that should close. A27-A28 Output 6 A29-A30 Output 7 A31-A32 Output 8 A14-A16 Remote Trip A14-A15 Remote Close 5. Operation instructions 5.1 Control panel of device  320*240 matrix LCD (The LCD will go off after a period of absence of keyboard operation. the LCD will be illuminated automatically when any key is pressed or in case of protection trip or alarm.)  Signal indicator: run, communication, trip, alarm, device fail, backup, remote.  Key pad: , , , , Cancel, -, +, Enter, Revert 24 MTPR-810Hc transformer protection and monitoring device WLD[K]-JY-311-2018 5.2 Instructions for use of key pad and LCD display During the device’s normal operation, it will display the primary measuring current、voltage、 power, secondary protective data、measuring data、device address、time and statue (indicating whether reclosure charging is finished) in cycle. Press the “Enter” key to enter the main menu, which is a multi-level tree menu. Press the ““, ““ keys to move the cursor to the desired entry, press the “Enter” key to enter this entry, and press the “Cancel” key to return to the next higher level of screen. If this screen is still a menu, continue to press the ““, ““ key to select the desired entry, press the “Enter” key to enter the next level of screen, and press the “Cancel” key to return to the next higher level of menu. If there is no menu screen, be sure to press the “Cancel” key to return to the next higher level of menu. The main menu is shown at the center of the following figure, with the corresponding submenus on both sides. 01.Run States -1/8- Main menu 05.Report Dis. -1/4- Protection Data Trip Report Measuring Data Binary Report Binary Input 01.Run Status Event Report Soft Strap 02.Run Parameters Print Report Pulse Energy Harmonic Data 03.Setting View 06.Parameters -1/6- DC Input Data Comm. Setting AD Volt.Data 04.Setting Value Transformer Coe. B. Parameters 02.Run Param. -1/3- 05. Report Manage D/A Setting  Setting Zone No. Pulse Energy PROT On/Off 06. SYS Parameters Channel Coe. Clock Setting 07.DeviceTest. -1/2- 03.Setting View-1/16- 07.Device Test  Output Test  3-overcurrent Lamp Test Inverse time limit 08.PassWord overcurrent N-seq. overcurrent 09.Version Info. 08.Password □□□□ ...... 10.Comm Test PROT AUTO DEV V2.00 04.Setting Value-1/16- Type:MTPR-810Hc  3-overcurrent ID:□□.□□.□□ Inverse time limit 10.Comm test CRC:□□□□□□□□ overcurrent Input Test Date:20XX-XX-XX N-seq. overcurrent Measure Test ...... SOE Test  Note 1:For the Setting menu, see the description of each device.  Run Status The [Run Status] menu contains 8 submenus, including protection data, measuring data, binary input, soft strap, pulse energy, harmonic data, DC measurement and trip statistics, AD voltage data. It is described as follows: 25 MTPR-810Hc transformer protection and monitoring device WLD[K]-JY-311-2018 PROT Data -1/14- Ia = □□□·□□ A 000.0° Protection CT secondary current value Ib = □□□·□□ A 000.0° Ic = □□□·□□ A PT secondary line voltage value 000.0° Uab = □□□·□□ V 000.0° Zero sequence current Ubc = □□□·□□ V 000.0° Negative sequence current Uca = □□□·□□ V 000.0° I0 = □□□·□□ A U0 = □□□·□□ V ...... Meas. Data -1/10- IA = □□□·□□ A 000.0° IB = □□□·□□ A 000.0° Measuring CT secondary current value IC = □□□·□□ A 000.0° Ua= □□□·□□ V 000.0° Ub= □□□·□□ V 000.0° PT secondary phase voltage value Uc= □□□·□□ V 000.0° P = □□□□·□ W Converted to PT, CT secondary active power Q= □□□□·□ var Converted to PT, CT secondary reactive power Cosφ = □·□□□ Cosine function for included angle of voltage and current. for -90°<φ<90°, COSφ is positive. for 90°<φ<270°, COS φ is negative At Closed, breaker is at closed position. at Open, breaker Binary Input -1/25- is at open position. Break :□ Note: The position of the breaker relates to protection logic, with fixed position. Trolley Run :□ When Closed, trolley at running position Trolley Test :□ When Closed, trolley at test position Earth Switch :□ Spring :□ When Closed, earth switch at closed position Heavy Gas :□ When Closed, energy storage not completed Light Gas :□ Over T Trip :□ Description varies with model, see corresponding terminal Temp. Alarm :□ diagram for details ......  Note: In the standard configurations, the input circuit has the connection to an external 220VDC control power supply. When no DC control power supply or control system is available on site, but a 110VDC control power supply is available, a 110VDC control power supply may be used for direct connection through local hardware adjustment, or the 24V power supply of the device may be used as the input power supply (when the input common terminal is +24V, terminal number: B22, Terminal B01 is kept float). However, this must be specified upon ordering. 26 MTPR-810Hc transformer protection and monitoring device WLD[K]-JY-311-2018 Soft Strap -1/43- Inst. PROT Off Delay Inst. PROT Off ...... Pulse Energy -1/4- Accumulation of the device’s real-time active and ＋□□□□□□□·□□□kWh reactive calculations over time, + for positive ＋□□□□□□□·□□□kvh direction, - for negative direction. －□□□□□□□·□□□kWh －□□□□□□□·□□□kvh Harmonic Data -1/10- 2nd ： □□□·□□% 3rd ： □□□·□□% 4th ： □□□·□□% 2~11 harmonics for which analog channels 5th ： □□□·□□% ...... have been selected in system 11th ：□□□·□□% DC Input Data -1/2- DC1：□□□·□□mA External DC input 4~20mA (2-way) DC2：□□□·□□mA AD Volt. Data -1/2- AD1：□□·□□□V AD Voltage Check AD2：□□·□□□V  Run Parameters In the [Run Parameters] menu includes 3 submenus,including [Settng Zone No.]、[PROT On/Off]、[Clock Setting], The screen Content is as follows:  Setting Zone No. :Range 00~07.  PROT On/Off:The device protect plate can be select in this menu. PROT On/Off -1/43- Parameter Modify Inst. PROT On Off ◇Enter ◆Cancel Press “+”, “-” keys to select the protection function On or Off. The interface will eje ct the window as right chart show when you press the “Enter” key. Move the cursor to t he desired position for modification by pressing the “”, “” keys. Press the “Enter” key to complete setting, and the device will prompt modifying success or not. If the “Cance 27 MTPR-810Hc transformer protection and monitoring device WLD[K]-JY-311-2018 l” key is pressed, the protect plate status setting will be cancelled and the menu will retur n previous menu.  Clock setting: A battery-back real-time clock is provided in the device, which can perform time adjust remotely via the communication network or in-site time adjust in the [Time Setting] menu. Enter this menu and press the “Enter” key, the clock will stop refreshing and a cursor will Clock setting appear. Move the cursor to the desired position for modification by pressing the “”, “” keys, modify to the desired value with Date：20□□－□□－□□ the “+”, “-” keys. Press the “Enter” key to complete setting. If Time： □□：□□：□□ the “Cancel” key is pressed, the setting will be cancelled and the screen continues to refresh the clock.  Setting View This meun just for query.You can’t modif the value to prevent faulty operation.  Setting Value After entering the password, you can enter the [Setting Value] menu. See the settings description of the protection device for the detailed description.  Report Manage The [Report Manage] menu includes 4 submenus, including trip report, binary report, event report and print report. Event recording includes: device self-check fault, device setting value modification, system parameter modification and setting zone number modification, etc. Trip report can be record for the last 50 events, binary report for 100, event report for 30 at most. Beyond this, the latest report will overwrite the earliest one. Press the “Enter” key to enter the corresponding [To view xx report, please enter report number: 00] menu, and enter any figure within storage volume, press the “Enter” key to display the contents of that report. The screen is as follows: Report No.：□□ ↓ Report No. of this report Year, month, day, hour, minute, second and 20□□-□□-□□ millisecond when it took place □□：□□：□□：□□□ □□□□□□ Press  key to see the specific operation value. Press  and  keys to flip over. Operation values. Action value view Ia = □□□·□□ A Ib = □□□·□□ A Protect CT secondary current value Ic = □□□·□□ A Uab = □□□·□□ V Ubc = □□□·□□ V Protect PT secondary voltage value Uca = □□□·□□ V …… 28 MTPR-810Hc transformer protection and monitoring device WLD[K]-JY-311-2018  System parameters After entering the [SYS Parameters] menu, the correct password is required to enter the [SYS Parameters] menu. It displays the following: Parameters -1/6- Comm. Setting Transforrmer Coe. B. Parameters D/A Setting Pulse Energy Channel Coef.  Communication Setting Comm. setting -1/8- NET Protocol 00:Quit; 01:IEC104; 02:IEC61850; □□ RS485 Protocol 00:Quit; 01:IEC103; 02:Modbus; □□ RS485 Address □□ RS485 Baud rate Communication address of device 01～99 □□ 00：2.4KB;01：4.8KB;02：9.6KB;03： IP Address □□□ □□□ □□□ □□□ 19.2KB;04：38.4KB;05：115.2KB . . . SNTP Address □□□. □□□. □□□. □□□ For Ethernet communication K W Default □□□. □□□. □□□. □□□ Printer IP □□□. □□□. □□□. □□□  Transform Coefficient TransformCoe -1/2- PT Ratio □□□□ CT Ratio □□□□ Max：1500 Min：0001 It will prompt maximum value and minimum value of each parameter below the window.  Setting of basic parameters (see the description of the protection device for basic parameters) B.Parameters: -1/11- Rating Current □□ Setting the CT secondary current rating 00: 5A. 01: 1A CT Wiring Mode □□ Setting the CT secondary wiring mode00: 3-phase. 01: 2-phase PT Wiring Mode □□ Setting the PT secondary wiring mode00: Y-Y. 01: V-V Harmonic Channel □□ Setting analog quantity channels 0~11 for harmonic monitoring, select 0 ...... to exit from the harmonic calculation function 29 MTPR-810Hc transformer protection and monitoring device WLD[K]-JY-311-2018  D/A setting The device has two 4~20mA outputs. The DA1~DA2 adjustment factor is used to adjust the accuracy of the channel output. The DA1~DA2 channel selection is used to select the corresponding analog quantity channel (see the description of the protection device for specific reference quantities). In the accuracy test, make sure the field ground is in good contact. otherwise the accuracy might be affected.  Pulse energy setting Energy base numbers can be set, including positive active energy, positive reactive energy, negative active energy and negative reactive energy.  Channel Coefficient The device can adjust channel coefficient by this menu to raise Sample size.  Device test After entering the [Device Test] menu, the correct password is required to enter the [Device Test] menu. It’s have two menu include [Output Test] and [Lamp Test].  Output Test Enter [Output Test] menu, It displays the following: Output Test -1/14- Remote Close Remote Trip Press “Enter” key Remote Close Trip Signal 1 On Off Trip Signal 2 Note: …… Node:A14,A15 Open Operate All Press “Cancel” key (Note: When the test is performed on the 6 protection outputs, the starting relay will be in the “Closed” state automatically. The “+”, “-” keys are used for switching between the “Close/Open” control.)  Lamp Test Lamp Test ◇Light ◆Quench Used for testing Stand or fall of all LED lights.  Password The [Password] menu is used to modify the password for entry into the Settings, System parameters and Output Test submenus. The initial password is provided by the factory. The universal password is “1000”. Move the cursor to the desired position for modification by pressing the ““, “” keys, Input password modify to the desired password with the “+”, “-” keys. Press the 0 0 0 0 “Enter” key to enter the new password setting menu as above. Press the “Cancel” key to cancel the setting.  Version information 30 MTPR-810Hc transformer protection and monitoring device WLD[K]-JY-311-2018 In the main menu, after entering the [Version Info.] menu, the Type, ID, CRC and Date of the software will be displayed. PROT AUTO DEV V2.00 Type:MTPR-810Hc ID:□□.□□.□□ CRC:□□□□□□□□ Date:20XX-XX-XX Note: For a corresponding nonstandard model, the device’s displayed Type does have to be changed.  Comm test When debugger debug the device on-site in the case of no-accessing the actual analog electric quantity or the input quantity, [Comm Test] is used to do the test of the communication node of the device. 6. Check of protection function 6.1 Check of overcurrent protection (Overcurrent) Overcurrent protection has three segments; these are instantaneous overcurrent protection, the time delay instantaneous protection overcurrent definite-time limit protection. It can be set and put in/off respectively. The three protections have same principle. Take instantaneous overcurrent protection as an example to explain. Connect as figure 6-1, put instantaneous overcurrent protection and instantaneous overcurrent compounded voltage block in running. MTPR-810Hc Ia(Ib,Ic) D1(3,5) Ia’(Ib’,Ic’) D2(4,6) B29 Ua D15 Power supply Ub D17 Uc D19 B30 Ua’(Ub’、Uc’) D16(18,20) Figure 6-1 Set in accordance with the table as follow, take the operating value and keep it in the table. When instantaneous overcurrent protection is operated, terminals A17-18，A19-A20 and B23-B24 should be connected. Overcurrent setting value（A） 1 In 2 In 5 In 10 In Overcurrent operation value（A） 31 MTPR-810Hc transformer protection and monitoring device WLD[K]-JY-311-2018 6.2 Check of inverse time limit overcurrent protection (IT Overcurrent) Connect as figure 6-1. Put inverse time limit overcurrent protection in running. Choose a kind of curve in inverse time limit characteristic curve setting（01:Standard inverse time limit;02:Unusual inverse time limit;03:Extreme inverse time limit;04:Long inverse time limit），set inverse time limit constantτp 0.50s，inverse time limit current Ip 5A.Inverse time limit settings are in accordance with table as follow. When the inverse time limit overcurrent protection is operated, terminals A17-18，A19-A20 and B23-B24 should be connected. Curve The operating current（A） 2Ip(A) 3Ip(A) 5Ip(A) 01:Standard Theoretical operating time（s） 5.105s 3.15s 2.140s inverse Ip=5A，τp=0.5s The real operating time（s） 02:Unusual Theoretical operating time（s） 6.750s 3.375s 1.688s inverse Ip=5A，τp=0.5s The real operating time（s） 03:Extreme Theoretical operating time（s） 13.333s 5.000s 1.667s inverse Ip=5A，τp=0.5s The real operating time（s） 04:Long inverse Theoretical operating time（s） 60.000s 30.000s 15.000s Ip=5A，τp=0.5s The real operating time（s） 6.3 Check of negative sequence overcurrent protection (NS Overcurrent) The negative sequence current is calculated by protection currents. Connect as figure 6-1. 6.3.1 Negative sequence overcurrent definite time limit protection Put negative sequence overcurrent definite time limit protection in running, input three protection currents as negative sequence mode. Set in accordance with the table as follow, take the operating value and keep it in the table. Negative sequence current (A) 0.2In 0.4 In 0.6 In 0.8 In Negative sequence delay (s) 10 5 2 1 Negative sequence current operating value (A) Negative sequence delay operating time (s) 32 MTPR-810Hc transformer protection and monitoring device WLD[K]-JY-311-2018 6.3.2 Negative sequence overcurrent inverse time limit protection Put negative sequence overcurrent inverse time limit protection in running, input three protection currents as negative sequence mode. Inspect this protection according as overcurrent inverse time limit protection table. When negative sequence overcurrent protection is operated, terminals A17-18， A19-A20 and B23-B24 should be connected. 6.4 Check of overload protection (Overload) Overload protection uses the maximal current to judge, trip or alarm can be chosen， If put overload trip in running, alarm function exits automatically. Connect as figure 6-2, put overload alarm in running. MTPR-810Hc Ia(Ib、Ic) D1(3,5) B29 Power supply D2(4,6) Ia’(Ib’、Ic’) B30 Figure 6-2 Set in accordance with the table as follow, take the operating value and keep it in the table. When overload alarm is operated, terminals B23-25 should be connected. Put overload trip in running, when overload trip is operated, terminals A17-18， A19-A20 and B23-B24 should be connected. Overload current(A) 5 10 15 20 Overload delay(s) 10 5 2 1 Overload current operating value (A) Overload delay operating value (s) 6.5 Check of zero sequence Overvoltage protection (ZS Overvoltage) Zero sequence Overvoltage protection uses open mouth triangle voltage from outside. Trip or alarm can be chosen， If put overload trip in running, alarm function exits automatically. Connect as figure 6-3, put Zero sequence Overvoltage alarm in running. 33 MTPR-810Hc transformer protection and monitoring device WLD[K]-JY-311-2018 MTPR-810Hc U0 D21 B29 U0’ D22 Power supply +WC B02 B30 B01 -WC Figure 6-3 Set in accordance with the table as follow, take the operating value and keep it in the table. When Zero sequence Overvoltage alarm is operated, terminals B23-25, should be connected. Put Zero sequence Overvoltage trip in running, When Zero sequence Overvoltage trip is operated, terminals A17-18，A19-A20 and B23-B24 should be connected. Zero sequence 10 20 30 50 Overvoltage (V) Zero sequence 1 10 50 100 Overvoltage delay(s) Zero sequence Overvoltage operating value (V) Zero sequence Overvoltage delay operating value (s) 6.6 Check of zero sequence overcurrent protection (ZS Overcurrent) Zero sequence overcurrent protection has three segments. It can be set and put in/out respectively. These three protections have same principle，take zero sequence overcurrent protection I as an example to explain. Connect as figure 6-4, put zero sequence overcurrent protection I in running. MTPR-810Hc 3 I 0 D 0 7 3 I 0 D 0 8 B 2 9 P o wer supply B30 Figure 6-4 Set in accordance with the table as follow, take the operating value and keep it in the 34 MTPR-810Hc transformer protection and monitoring device WLD[K]-JY-311-2018 table. When zero sequence overcurrent protection is operated, terminals A17-18， A19-A20 and B23-B24 should be connected. Zero sequence current 2 5 10 15 setting (A) Operating value 6.7 Check of low voltage side zero sequence overcurrent protection(UV ZS OC) Connect as figure 6-5, to inspect low voltage side zero sequence overcurrent protection. 6.7.1 Low voltage side zero sequence overcurrent with definite-time delay Put low voltage side zero sequence overcurrent with definite-time delay protection in running, input currents, Set in accordance with the table as follow, take the operating value and keep it in the table. Low-voltage zero 5 10 15 20 sequence current (A) Definite time 10 5 2 1 limit delay (s) Low-voltage zero sequence current operating value (A) Definite time limit delay operating value (s) 6.7.2 Low voltage side zero sequence overcurrent with inverse-time delay Put low voltage side zero sequence overcurrent with inverse-time delay protection in running, input currents, checkout method refers to inverse time limit overcurrent protection. MTPR-810Hc I0L D23 B29 Power supply I0L D24 B30 Figure 6-5 When low voltage side zero sequence overcurrent protection is operated, terminals A17-18，A19-A20 and B23-B24 should be connected. 35 MTPR-810Hc transformer protection and monitoring device WLD[K]-JY-311-2018 6.8 Check of voltage protection (Voltage Protect) 6.8.1 Check of Undervoltage protection Undervoltage protection uses the maximal line voltage to judge, it can choose PT failure to block Undervoltage protection. Connect as figure 6-6, put Undervoltage protection, PT failure alarm and PT failure block in running. MTPR-810Hc Ua(Ub,Uc) D1(3,5) B29 Ua’(Ub’,Uc’) D2(4,6) Power supply -WC B01 B30+WC B02 Figure 6-6 Set in accordance with the table as follow, take the operating voltage and keep it in the table. When Undervoltage protection is operated, terminals A17-18，A19-A20 and B23-B24 should be connected. Simulate PT failure, When PT failure happens, Undervoltage protection will be blocked. Undervoltage 95 90 85 80 setting value (V) Undervoltage delay (s) 10 5 2 1 Undervoltage operating value(V) Undervoltage delay operating value (s) 6.8.2 Check of Overvoltage protection() Overvoltage protection uses the maximal line voltage to judge. Connect as figure 6-6, put Overvoltage protection in running，and simulate the breaker closed. Set in accordance with the table as follow, take the operating voltage and keep it in the table. When Overvoltage protection is operated, terminals A17-18，A19-A20 and B23-B24 should be connected. Overvoltage 105 110 115 120 setting value (V) Overvoltage delay (s) 10 5 2 1 Overvoltage operating value(V) Overvoltage delay 36 MTPR-810Hc transformer protection and monitoring device WLD[K]-JY-311-2018 operating value (s) 6.9 Check of body protection Put heavy gas trip, light gas alarm, Over temperature trip，temperature alarm and pressure relief trip in running, connect terminal B01 with the cathode of the DC power supply（Take binary input connecting with DC220V power as an example）,anode connects terminals B07～B11 respectively. When heavy gas trip, Over temperature trip, pressure relief trip protection is operated, terminals A17-18，A19-A20 and B23-B24 should be connected; When light gas alarm, temperature alarm protection is operated, terminals B23-B25 should be connected. 6.10 heck of non-electric quantity protection (Non-electric) Connect as figure 6-7, put non-electric quantity protection in running; take non-electric quantity protection 1 as an example. MTPR-810Hc DCSIn+ D25 B29 Power supply D26 DCSIn- B30 Figure 6-7 Set in accordance with the table as follow, take the operating value and keep it in the table. When the protection is operated, terminals A17-18，A19-A20 and B23-B24 should be connected. Setting value of non-electric quantity 5 10 15 18 1 current (mA) Delay of non-electric 10 5 2 1 quantity 1 current (s) Non-electric quantity 1 operating value (mA) Non-electric quantity 1 delay operating value (s) 37 MTPR-810Hc transformer protection and monitoring device WLD[K]-JY-311-2018 6.11 heck of PT failure and CT failure (PT/CT Failure) Connect as figure 6-1, simulate PT failure, then the device will send alarm signal, terminals B23-B25 will be connected. 6.12 Operate Circuit Break Operate circuit break output be controlled by software.When this function be selected. Connect the negative terminal to terminal A11 (-KM), positive terminal to terminal A12. Connect the negative terminal to terminal A05(TWJ),A04(HWJ) to make HWJ or TWJ action.The device monitoring operate circuit normatlity.When you turn off A05(TWJ),A04(HWJ) to connect the negative terminal or connect the negative terminal both of them, The operate circuit break will action after delay time. Measuring terminals B23-B26 should be shorted. 38 MTPR-810Hc transformer protection and monitoring device WLD[K]-JY-311-2018 Addendum 1: Terminal diagram of the device I/O POWER CPU A C Input comon A01 Common point- B01 point- A02 Trip position B02 Breaker NET D01 Ia Ia' D02 A03 Closure position B03 Trolley Run A04 Closed position D03 Ib Ib' D04 Trolly Test monitoring B04 A05 Trip position B05 Earth Switchmonitoring D05 Ic Ic' D06 A06 Manual closing B06 Springinput A07 Closed coil B07 Heavy Gas D07 I0 I0' D08 A08 Manual NET2Light Gastripping input B08 D09 IA PROT tripping IA' D10A09 B09 Over-T Tripinput A10 Trip coil B10 Temp. Alarm D11 IB IB' D12 A11 KM B11 Input 10 A12 D13＋KM B12 Input 11 IC IC' D14 A13 B13 Input 12 D15 Remote control Ua Ua' D16A14 common terminal B14 Input 13 A15 Remote control Run Light B15 Input 14 D17 Ub Ub' D18closing contact A16 Remote controltrip contact B16 Input 15 D19 Uc Uc' D20 DEBUG D21 U0 U0' D22 D23 I0L I0L' D24 A17 PROT Output 1 B17 Input 16 C01 GPS-A A18 PROT Output 1 B18 Input 17 C02 GPS-B A19 PROT Output 2 B19 Input 18 C03 A20 PROT Output 2 B20 Input 19 C04 COM1A A21 Output 3 B21 Overhaul C05 COM1B A22 Output 3 B22 （+24V） C06 Shielded ground D25 DCSIN1+ A23 Output 4 B23 Common terminal C07 COM2A D26 DCSIN1-A24 Output 4 B24 Trip Signal C08 COM2B A25 Output 5 B25 Alarm Signal C09 DCS1+ D27 DCSIN2+ A26 Output 5 B26 Operate CIR C10 DCS1- A27 Output 6 B27 Power off C11 DCS2+ D28 DCSIN2- A28 Output 6 B28 Power off C12 DCS2- 1.Ia,Ib,Ic are protection currents. A29 B29 Power 2.I0 is zero-sequence current.Output 7 3.IA,IB,IC are measuring current. A30 Output 7 B30 Power 4.Ua,Ub,Uc are bus voltages. 5.U0 is zero-sequence voltage. A31 Output 8 B31 6.I0L is zero-sequence current at low voltage side. A32 Output 8 B32 Shielded ground 7.DCSIn is 2-way 4～20mA DC input. 8.Net1,Net2 are ethernet interfaces, COM1,COM2 are 485 interfaces. 9. If +24V on power board is standard configuration or not,it is used as an input power supply only when using internal 24V. Figure 1 Terminal diagram of MTPR-810Hc transformer protection and monitoring device 39 MTPR-810Hc transformer protection and monitoring device WLD[K]-JY-311-2018 Addendum 2: Typical wiring diagram of the device 断 路 器 a a b b c c a a b b c c A A B B C C Zero-sequence Zero-sequence Bus voltage voltage Protective current Measuring currentcurrent Line current AC plug-in unit PROT Output1 MTPR-810Hc microcomputer transformer PROT Output2 protection and monitoring device Output 3 Output 4 Net1 Output 5 Net2 Output 6 Debugging port Output 7 Output 8 C O M A C 05 CO M B Trip PO W ER plug-in unit Shielded ground position CO M A 屏蔽地 Closure C O M B position DCSOut1+ Closed positionmonitoring DCSOut1- Trip coil DCSOut2+ Trip position monitoring DCSOut2- Closed coil -KM -W C Remote common terminal SA Remote closing Manual closing input DCSIn1+ SA DCSIn1- Remote Tripping DCSIn2+ Manualtripping input DCSIn2- SA+KM W C Note： 1.As shown in the figure,w hen the SA is connected to 5 ,6 contact， the SA is a t the “R em ote” position, the pow er of the rem ote control circuit w ill be sw itched on, c losing and trip w ith rem ote control. w hen the SA is connected to 9 ,10 contact, the SA is in m anual closing state. w hen the SA is connected to 1,2 contact, the SA is in m anual Tripping state. 2.As shown in the figure,PT secondary is star connection,when V－V w iring is present, term inals D 15,D16 are connected to phase A of PT secondary,terminals D17,D18 to phase B of PT secondary,terminals D19,D20 to phase C of PT secondary. Figure 2 Typical wiring diagram of MTPR-810Hc transformer protection and monitoring device 40 AC plug-in unit CPU plug-in unit Input common WC terminal- Input 18 WC Breaker Input 19 Trolley run Overhaul Trolley test 24V+ Signal common GEarth Switch terminal Spring Trip Signal Heavy Gas Alarm Signal Light Gas Operate CIR Over-T Trip Power off Temp. Alarm Power off Input 10 Power+ Input 11 Power- Input 12 Input 13 Shielded ground Input 14 Input 15 Input 16 Input 17 I/O plug-in unit MTPR-810Hc transformer protection and monitoring device WLD[K]-JY-311-2018 Addendum 3: Operating circuit of MXPR-800Hc series device Traditional operating circuits are started by current, while a voltage maintaining circuit realizes electric trip prevention. An anti-trip relay will be selected depending on the current of the trip/closing circuit of the circuit breaker. However, this has poor generality and can hardly be realized for circuit breakers with low trip and closing currents (such as 10KV circuit breakers from AEG Company in Germany, whose trip and closing currents are not greater than 0.2A). To simplify wiring and design finalization, and to improve the generality of the product, we offer a new operating circuit shown below. Schematic diagram of operating circuit 41 MTPR-810Hc transformer protection and monitoring device WLD[K]-JY-311-2018 Permanent magnetic breaker operating circuit In the diagram, When the SA is connected to 5,6 contact，The SA is at the “Remote” position, the power of the remote control circuit will be switched on, closing and trip with remote control. when the SA is connected to 9,10 contact, The SA is in manual closing state. when the SA is connected to 1,2 contact, The SA is in manual Tripping state. 42 MTPR-810Hc transformer protection and monitoring device WLD[K]-JY-311-2018 Note: The dotted line outlines the internal circuit of the protection device. All our devices marked with “anti-trip circuit” are designed on this operating circuit. Terminals Tn1, Tn2 corresponding to the protection relay Jn are determined by the corresponding protection output control word. Jn can be any one or more of Protection outputs 1-8. Whether local or remote control, the precondition to jump is Terminal A06 of the device is always connected to +KM. After manual or remote controlled closing, if a short-circuit fault occurs, the protection will operate to trip the circuit breaker. Though Terminal A06 of the device is connected to +KM, the closing circuit is disconnected by TBJ1 and will not be closed again. In this way, circuit breaker jump is effectively prevented. 43