The document summarizes relay protection testing performed at the CH Restitucion substation. Tests were conducted on the 110Vcc and 48Vcc circuit relays and auxiliary service relays. The tests included ramp, timing, and operation tests to verify the correct pickup values and time delays. Test reports provide details of the test configurations, parameters, results and evaluations for each relay tested. Sign off was obtained from the test executor, EDP specialist and Electroperu supervisor to approve the tests.
This document summarizes the testing and calibration of protection relays for Generator 2 at the CH Restitucion power plant. It details 13 different protection relay tests, including tests for minimum impedance, loss of excitation, reverse power, overvoltage, ground fault, thermal, and overcurrent relays. The tests were performed on November 30, 2019 by technicians from Electroperu and were supervised by engineers from Estudios Supervision. All relays passed testing.
This document provides the results of relay protection testing conducted on the generators and transformers at the CH Restitucion power plant. It details the testing of 13 different relays for Generator 3, including relays for minimum impedance, loss of excitation, reverse power, overvoltage, ground fault, thermal overload, and negative sequence current. For each relay, it lists the test configuration, measurements taken during testing against expected thresholds, and whether the relay passed or failed each test. The tests were approved by three signatories on November 24, 2019.
Original MOSFET N-CHANNEL FQP70N10 70N10 TO-220 70A 100V NewAUTHELECTRONIC
This document summarizes the specifications and characteristics of the FQP70N10 100V N-Channel MOSFET from Fairchild Semiconductor. It is an enhancement mode power MOSFET produced using Fairchild's proprietary DMOS technology to minimize on-state resistance and provide superior switching performance. Key features include a maximum drain current of 57A, on-resistance of 0.023 ohms, and avalanche tested capability. Electrical characteristics, switching characteristics, thermal characteristics and maximum ratings are provided.
This document contains test protocols and results for protection relays of Generation Unit 1 at the CH Restitution power plant. It provides details of impedance testing and timing tests conducted on the 21G-R and 21G-S relays, including test configurations, element settings, and evaluation of test results. Sign-off was provided by three parties approving, conditionally approving, or not approving the tests and their results.
Original N Channel Mosfet IRF3710PBF IRF3710 3710 37A 100V NewAUTHELECTRONIC
Original N Channel Mosfet IRF3710PBF IRF3710 3710 37A 100V New
https://authelectronic.com/original-n-channel-mosfet-irf3710pbf-irf3710-3710-37a-100v-new
This document summarizes the testing and calibration of protection relays for Generator 2 at the CH Restitucion power plant. It details 13 different protection relay tests, including tests for minimum impedance, loss of excitation, reverse power, overvoltage, ground fault, thermal, and overcurrent relays. The tests were performed on November 30, 2019 by technicians from Electroperu and were supervised by engineers from Estudios Supervision. All relays passed testing.
This document provides the results of relay protection testing conducted on the generators and transformers at the CH Restitucion power plant. It details the testing of 13 different relays for Generator 3, including relays for minimum impedance, loss of excitation, reverse power, overvoltage, ground fault, thermal overload, and negative sequence current. For each relay, it lists the test configuration, measurements taken during testing against expected thresholds, and whether the relay passed or failed each test. The tests were approved by three signatories on November 24, 2019.
Original MOSFET N-CHANNEL FQP70N10 70N10 TO-220 70A 100V NewAUTHELECTRONIC
This document summarizes the specifications and characteristics of the FQP70N10 100V N-Channel MOSFET from Fairchild Semiconductor. It is an enhancement mode power MOSFET produced using Fairchild's proprietary DMOS technology to minimize on-state resistance and provide superior switching performance. Key features include a maximum drain current of 57A, on-resistance of 0.023 ohms, and avalanche tested capability. Electrical characteristics, switching characteristics, thermal characteristics and maximum ratings are provided.
This document contains test protocols and results for protection relays of Generation Unit 1 at the CH Restitution power plant. It provides details of impedance testing and timing tests conducted on the 21G-R and 21G-S relays, including test configurations, element settings, and evaluation of test results. Sign-off was provided by three parties approving, conditionally approving, or not approving the tests and their results.
Original N Channel Mosfet IRF3710PBF IRF3710 3710 37A 100V NewAUTHELECTRONIC
Original N Channel Mosfet IRF3710PBF IRF3710 3710 37A 100V New
https://authelectronic.com/original-n-channel-mosfet-irf3710pbf-irf3710-3710-37a-100v-new
Original IGBT RJH60D3DPP -M0 RJH60D3 600V 17A TO-220 Newauthelectroniccom
This document provides preliminary datasheet information for an IGBT (Insulated Gate Bipolar Transistor) device. The IGBT has a 600V blocking voltage, can handle up to 17A of current, and features a built-in fast recovery diode. It uses trench gate and thin wafer technologies for high speed switching. Absolute maximum ratings, electrical characteristics, switching characteristics and package details are provided. Testing information is also included to characterize parameters such as switching times, reverse recovery time and thermal performance.
Original Mosfet F3205S 3205 IRF3205S IRF3205 55V 110A D2Pak NewAUTHELECTRONIC
This document provides information on IRF3205 power MOSFETs from International Rectifier. It summarizes the key specifications and performance characteristics of the MOSFETs, including an on-resistance of 8.0 mOhms, a continuous drain current of 110A, and an operating junction temperature range of -55°C to +175°C. The document also provides the package details, electrical characteristics, and test conditions/diagrams to evaluate the switching performance and safe operating area of the devices.
Original N Channel Mosfet FQPF12N60 12N60 12A 600V New FairchildAUTHELECTRONIC
Original N Channel Mosfet FQPF12N60 12N60 12A 600V New Fairchild
https://authelectronic.com/original-n-channel-mosfet-fqpf12n60-12n60-12a-600v-new-fairchild
Original N-Channel Power MOSFET IRF1010EPBF IRF1010 1010 60V 84A TO-220 New I...AUTHELECTRONIC
Original N-Channel Power MOSFET IRF1010EPBF IRF1010 1010 60V 84A TO-220 New International Rectifier
https://authelectronic.com/original-n-channel-power-mosfet-irf1010epbf-irf1010-1010-60v-84a-to-220-new-international-rectifier
Original N-Channel Mosfet 7N65L-TF1-T UTC7N65L 7.4A 650V TO-263 New UTCAUTHELECTRONIC
The 7N65 power MOSFET from Unisonic Technologies is a high-voltage transistor designed for switching applications. It has a maximum voltage rating of 650V, continuous current rating of 7.4A, and features low on-resistance, fast switching times, and high ruggedness. The document provides detailed specifications, characteristics, test methods and typical performance curves for the device.
Original N-Channel Mosfet FQP8N60C 8N60C 8N60 600V 7.5A TO-220F NewAUTHELECTRONIC
This document provides information on 600V N-Channel MOSFET products from Fairchild Semiconductor, including:
- The FQP8N60C and FQPF8N60C devices which use Fairchild's proprietary DMOS technology to minimize resistance and maximize switching performance.
- Key features and specifications like 7.5A continuous drain current, 1.2Ohm on-resistance, and 100% avalanche testing.
- Electrical characteristics, maximum ratings, typical performance curves, and test circuits to evaluate parameters such as gate charge, switching waveforms, and diode recovery.
- Application suitability for high efficiency power supplies, active power factor correction, and electronic ballasts due to
Original N Channel Mosfet IRF630N IRF630 TO-220 9.3A 200V New IRAUTHELECTRONIC
Original N Channel Mosfet IRF630N IRF630 TO-220 9.3A 200V New IR
https://authelectronic.com/original-n-channel-mosfet-irf630n-irf630-to-220-9-3a-200v-new-ir
Original N-Channel Mosfet FQU13N10LTU 13N10 100V 10A TO-251 New ON Semiconduc...AUTHELECTRONIC
This document provides specifications and performance characteristics for the FQD13N10L/FQU13N10L N-Channel QFET MOSFET from Fairchild Semiconductor. The MOSFET has a maximum drain-source voltage of 100V, can provide continuous drain current up to 10A, and has an on-resistance as low as 180mOhm. Graphs of electrical characteristics like capacitance, gate charge, and safe operating area are included, showing performance over temperature and operating conditions. Testing methods are also described for key parameters. The device is suitable for applications like power supplies, motor control, and switching regulators.
Original Mosfet N FDPF8N50NZ 8N50 8N50NZ 10V 4A TO-220 New FairchildAUTHELECTRONIC
Original Mosfet N FDPF8N50NZ 8N50 8N50NZ 10V 4A TO-220 New Fairchild
https://authelectronic.com/original-mosfet-n-fdpf8n50nz-8n50-8n50nz-10v-4a-to-220-new
Original N-CHANNEL IGBT IRFP4568PBF IRFP4568 4568 171A 150V TO-247 New IRauthelectroniccom
This document provides specifications and performance characteristics for the IRFP4568PbF HEXFET Power MOSFET. Key details include:
- Maximum ratings and operating parameters such as continuous drain current, power dissipation, junction temperature range, and gate voltage.
- Electrical characteristics including typical on-resistance, breakdown voltage, threshold voltage, input/output capacitances, and body diode specifications.
- Graphs depicting output/transfer characteristics, gate charge, capacitance vs. voltage, safe operating area, avalanche energy and current capabilities.
- Applications include high efficiency synchronous rectification in switch-mode power supplies, uninterruptible power supplies, and high speed power switching.
Original N-Channel Mosfet IRF2805 2805 55V 75A TO-220 New IRAUTHELECTRONIC
This document summarizes the key specifications and characteristics of the IRF2805 HEXFET Power MOSFET:
1) It is designed for automotive applications and has a maximum junction temperature of 175°C.
2) Important parameters include on-resistance of 3.9-4.7 mΩ, drain current of 75A continuous and 700A pulsed, and avalanche energy of 450mJ.
3) Graphs show characteristics such as output curves, transfer curves, and safe operating area over temperature.
This document summarizes the key specifications and features of the IRF9530 power MOSFET from Vishay. It includes maximum ratings, electrical characteristics, typical performance curves and application information. The IRF9530 is a third generation P-channel power MOSFET in a TO-220AB package, offering fast switching speeds, rugged design, low on-resistance and cost effectiveness for commercial and industrial applications up to 50W. It has a 175°C operating temperature, repetitive avalanche capability, and dynamic dV/dt rating, making it suitable for inductive switching applications.
This document provides specifications for an International Rectifier HEXFET Power MOSFET. Key specifications include:
- Maximum junction-to-case thermal resistance of 3.3 °C/W and junction-to-ambient of 50-110 °C/W depending on mounting.
- Continuous drain current rating of -11A at 25°C case temperature and -8A at 100°C case temperature.
- Pulsed drain current rating of -44A and power dissipation of 38W at 25°C case temperature.
Original Power MOSFET IRFP460PBF IRFP460 460 500V 20A TO-247 New Vishay Silic...AUTHELECTRONIC
Original Power MOSFET IRFP460PBF IRFP460 460 500V 20A TO-247 New Vishay Siliconix
https://authelectronic.com/original-power-mosfet-irfp460pbf-irfp460-460-500v-20a-to-247-new-vishay-siliconix
Original N-Channel Mosfet 2SK3484 3484 16A 100V TO-252 New Renesas ElectronicsAUTHELECTRONIC
This document provides specifications for the 2SK3484 N-channel MOS field effect transistor (MOSFET) including:
- Electrical characteristics such as on-state resistance, gate cut-off voltage, and input/output capacitances.
- Thermal characteristics such as thermal resistance and power dissipation derating curves.
- Switching characteristics such as turn-on/off delay times and rise/fall times.
- Package drawings and equivalent circuit diagram for the TO-251 and TO-252 packages.
CPC100 + TD12 Tan Delta Test Report for 132kV CT.SARAVANAN A
This document summarizes the results of three tan delta tests performed on a cable sample using a CPC test device with serial number FC628G. Each test was performed on February 16, 2021 at different times and measured capacitance, dissipation factor, and other parameters at voltages of 2 kV, 5 kV, and 10 kV. All tests showed similar results and passed without overload or other issues.
This document discusses testing capacitive sensors using electrical measurements. It describes an electrical model of a capacitive sensor and how its capacitance varies with applied bias voltage. Methods are presented for testing for leakage currents, measuring the capacitance-voltage relationship, and determining the sensor's dynamic behavior by analyzing its resonant frequency and quality factor. Requirements for the test setup include using a capacitance meter, waveform generator, and digitizer configured for Fourier analysis to isolate the sensor's motional signal from background terms in its output current spectrum. Calibration procedures are also outlined to compensate for stray capacitances in the test circuit.
Original IGBT RJH60D2DPP RJH60D2 12A 600V TO-220 New RenesasAUTHELECTRONIC
This document provides preliminary datasheet information for the RJH60D2DPP-M0 600V-12A IGBT module. Key specifications include a short circuit withstand time of 5us, low 1.7V saturation voltage, and 100ns diode reverse recovery time. The module uses trench gate and thin wafer technology for high speed switching under 80ns. It has a TO-220FL package and can withstand temperatures up to 150°C.
The document appears to contain test results from a protection relay for a power transformer. It includes settings for the test object which is a transformer, nominal voltage and current values, test signals applied for different fault types and phases, and assessment of the test results showing the protection relay operated as expected for internal faults on the transformer.
It is according to IEC 60929, IEC 60969 and IEC61000-3-2. Up to 1MHz lrms can test every EB and has expanding analysis function for envelope wave. With big LCD can display the test results directly without PC
Original IGBT RJH60D3DPP -M0 RJH60D3 600V 17A TO-220 Newauthelectroniccom
This document provides preliminary datasheet information for an IGBT (Insulated Gate Bipolar Transistor) device. The IGBT has a 600V blocking voltage, can handle up to 17A of current, and features a built-in fast recovery diode. It uses trench gate and thin wafer technologies for high speed switching. Absolute maximum ratings, electrical characteristics, switching characteristics and package details are provided. Testing information is also included to characterize parameters such as switching times, reverse recovery time and thermal performance.
Original Mosfet F3205S 3205 IRF3205S IRF3205 55V 110A D2Pak NewAUTHELECTRONIC
This document provides information on IRF3205 power MOSFETs from International Rectifier. It summarizes the key specifications and performance characteristics of the MOSFETs, including an on-resistance of 8.0 mOhms, a continuous drain current of 110A, and an operating junction temperature range of -55°C to +175°C. The document also provides the package details, electrical characteristics, and test conditions/diagrams to evaluate the switching performance and safe operating area of the devices.
Original N Channel Mosfet FQPF12N60 12N60 12A 600V New FairchildAUTHELECTRONIC
Original N Channel Mosfet FQPF12N60 12N60 12A 600V New Fairchild
https://authelectronic.com/original-n-channel-mosfet-fqpf12n60-12n60-12a-600v-new-fairchild
Original N-Channel Power MOSFET IRF1010EPBF IRF1010 1010 60V 84A TO-220 New I...AUTHELECTRONIC
Original N-Channel Power MOSFET IRF1010EPBF IRF1010 1010 60V 84A TO-220 New International Rectifier
https://authelectronic.com/original-n-channel-power-mosfet-irf1010epbf-irf1010-1010-60v-84a-to-220-new-international-rectifier
Original N-Channel Mosfet 7N65L-TF1-T UTC7N65L 7.4A 650V TO-263 New UTCAUTHELECTRONIC
The 7N65 power MOSFET from Unisonic Technologies is a high-voltage transistor designed for switching applications. It has a maximum voltage rating of 650V, continuous current rating of 7.4A, and features low on-resistance, fast switching times, and high ruggedness. The document provides detailed specifications, characteristics, test methods and typical performance curves for the device.
Original N-Channel Mosfet FQP8N60C 8N60C 8N60 600V 7.5A TO-220F NewAUTHELECTRONIC
This document provides information on 600V N-Channel MOSFET products from Fairchild Semiconductor, including:
- The FQP8N60C and FQPF8N60C devices which use Fairchild's proprietary DMOS technology to minimize resistance and maximize switching performance.
- Key features and specifications like 7.5A continuous drain current, 1.2Ohm on-resistance, and 100% avalanche testing.
- Electrical characteristics, maximum ratings, typical performance curves, and test circuits to evaluate parameters such as gate charge, switching waveforms, and diode recovery.
- Application suitability for high efficiency power supplies, active power factor correction, and electronic ballasts due to
Original N Channel Mosfet IRF630N IRF630 TO-220 9.3A 200V New IRAUTHELECTRONIC
Original N Channel Mosfet IRF630N IRF630 TO-220 9.3A 200V New IR
https://authelectronic.com/original-n-channel-mosfet-irf630n-irf630-to-220-9-3a-200v-new-ir
Original N-Channel Mosfet FQU13N10LTU 13N10 100V 10A TO-251 New ON Semiconduc...AUTHELECTRONIC
This document provides specifications and performance characteristics for the FQD13N10L/FQU13N10L N-Channel QFET MOSFET from Fairchild Semiconductor. The MOSFET has a maximum drain-source voltage of 100V, can provide continuous drain current up to 10A, and has an on-resistance as low as 180mOhm. Graphs of electrical characteristics like capacitance, gate charge, and safe operating area are included, showing performance over temperature and operating conditions. Testing methods are also described for key parameters. The device is suitable for applications like power supplies, motor control, and switching regulators.
Original Mosfet N FDPF8N50NZ 8N50 8N50NZ 10V 4A TO-220 New FairchildAUTHELECTRONIC
Original Mosfet N FDPF8N50NZ 8N50 8N50NZ 10V 4A TO-220 New Fairchild
https://authelectronic.com/original-mosfet-n-fdpf8n50nz-8n50-8n50nz-10v-4a-to-220-new
Original N-CHANNEL IGBT IRFP4568PBF IRFP4568 4568 171A 150V TO-247 New IRauthelectroniccom
This document provides specifications and performance characteristics for the IRFP4568PbF HEXFET Power MOSFET. Key details include:
- Maximum ratings and operating parameters such as continuous drain current, power dissipation, junction temperature range, and gate voltage.
- Electrical characteristics including typical on-resistance, breakdown voltage, threshold voltage, input/output capacitances, and body diode specifications.
- Graphs depicting output/transfer characteristics, gate charge, capacitance vs. voltage, safe operating area, avalanche energy and current capabilities.
- Applications include high efficiency synchronous rectification in switch-mode power supplies, uninterruptible power supplies, and high speed power switching.
Original N-Channel Mosfet IRF2805 2805 55V 75A TO-220 New IRAUTHELECTRONIC
This document summarizes the key specifications and characteristics of the IRF2805 HEXFET Power MOSFET:
1) It is designed for automotive applications and has a maximum junction temperature of 175°C.
2) Important parameters include on-resistance of 3.9-4.7 mΩ, drain current of 75A continuous and 700A pulsed, and avalanche energy of 450mJ.
3) Graphs show characteristics such as output curves, transfer curves, and safe operating area over temperature.
This document summarizes the key specifications and features of the IRF9530 power MOSFET from Vishay. It includes maximum ratings, electrical characteristics, typical performance curves and application information. The IRF9530 is a third generation P-channel power MOSFET in a TO-220AB package, offering fast switching speeds, rugged design, low on-resistance and cost effectiveness for commercial and industrial applications up to 50W. It has a 175°C operating temperature, repetitive avalanche capability, and dynamic dV/dt rating, making it suitable for inductive switching applications.
This document provides specifications for an International Rectifier HEXFET Power MOSFET. Key specifications include:
- Maximum junction-to-case thermal resistance of 3.3 °C/W and junction-to-ambient of 50-110 °C/W depending on mounting.
- Continuous drain current rating of -11A at 25°C case temperature and -8A at 100°C case temperature.
- Pulsed drain current rating of -44A and power dissipation of 38W at 25°C case temperature.
Original Power MOSFET IRFP460PBF IRFP460 460 500V 20A TO-247 New Vishay Silic...AUTHELECTRONIC
Original Power MOSFET IRFP460PBF IRFP460 460 500V 20A TO-247 New Vishay Siliconix
https://authelectronic.com/original-power-mosfet-irfp460pbf-irfp460-460-500v-20a-to-247-new-vishay-siliconix
Original N-Channel Mosfet 2SK3484 3484 16A 100V TO-252 New Renesas ElectronicsAUTHELECTRONIC
This document provides specifications for the 2SK3484 N-channel MOS field effect transistor (MOSFET) including:
- Electrical characteristics such as on-state resistance, gate cut-off voltage, and input/output capacitances.
- Thermal characteristics such as thermal resistance and power dissipation derating curves.
- Switching characteristics such as turn-on/off delay times and rise/fall times.
- Package drawings and equivalent circuit diagram for the TO-251 and TO-252 packages.
CPC100 + TD12 Tan Delta Test Report for 132kV CT.SARAVANAN A
This document summarizes the results of three tan delta tests performed on a cable sample using a CPC test device with serial number FC628G. Each test was performed on February 16, 2021 at different times and measured capacitance, dissipation factor, and other parameters at voltages of 2 kV, 5 kV, and 10 kV. All tests showed similar results and passed without overload or other issues.
This document discusses testing capacitive sensors using electrical measurements. It describes an electrical model of a capacitive sensor and how its capacitance varies with applied bias voltage. Methods are presented for testing for leakage currents, measuring the capacitance-voltage relationship, and determining the sensor's dynamic behavior by analyzing its resonant frequency and quality factor. Requirements for the test setup include using a capacitance meter, waveform generator, and digitizer configured for Fourier analysis to isolate the sensor's motional signal from background terms in its output current spectrum. Calibration procedures are also outlined to compensate for stray capacitances in the test circuit.
Original IGBT RJH60D2DPP RJH60D2 12A 600V TO-220 New RenesasAUTHELECTRONIC
This document provides preliminary datasheet information for the RJH60D2DPP-M0 600V-12A IGBT module. Key specifications include a short circuit withstand time of 5us, low 1.7V saturation voltage, and 100ns diode reverse recovery time. The module uses trench gate and thin wafer technology for high speed switching under 80ns. It has a TO-220FL package and can withstand temperatures up to 150°C.
The document appears to contain test results from a protection relay for a power transformer. It includes settings for the test object which is a transformer, nominal voltage and current values, test signals applied for different fault types and phases, and assessment of the test results showing the protection relay operated as expected for internal faults on the transformer.
It is according to IEC 60929, IEC 60969 and IEC61000-3-2. Up to 1MHz lrms can test every EB and has expanding analysis function for envelope wave. With big LCD can display the test results directly without PC
Original N P-CHANNEL ENHANCEMENT Mosfet AP4506GEH 4506GEH 4506 TO-252 New Adv...AUTHELECTRONIC
This document summarizes the specifications and characteristics of an Advanced Power N-channel and P-channel enhancement mode MOSFET. The MOSFET has a maximum drain-source voltage of 30V for the N-channel and -30V for the P-channel. It has low on-resistances of 24mΩ and 36mΩ respectively. Tables provide the thermal data and electrical characteristics for each channel including threshold voltages, leakage currents, capacitances, and switching times. Graphs show characteristics such as output curves, gate charge waveforms, and safe operating areas.
Original Transistor NPN MPSA18 MPS A18 TO 92 New ONauthelectroniccom
This document provides specifications for the MPSA18 low noise transistor, including:
1) Maximum ratings for voltage, current, and temperature parameters.
2) Typical electrical characteristics such as gain, voltage, and capacitance.
3) Noise characteristics including noise voltage, current, and figures across frequency ranges.
4) Package dimensions and ordering information for the TO-92 packaged transistor.
This document provides specifications for the BC337, BC337-25, and BC337-40 NPN silicon amplifier transistors. It includes maximum ratings, electrical characteristics, ordering information, and package dimensions. The transistors can handle currents up to 800mA and have DC current gains from 100-630 depending on the model. Thermal and electrical performance graphs are provided. The devices come in TO-92 plastic packages and are Pb-free.
This document provides specifications for the BC337, BC337-25, and BC337-40 NPN silicon amplifier transistors. It includes maximum ratings, electrical characteristics, ordering information, and package dimensions. The transistors can handle currents up to 800mA and have DC current gains from 100-630 depending on the model. Thermal and electrical performance graphs are provided. The devices come in TO-92 plastic packages and are RoHS-compliant Pb-free.
This document provides a site test report for a transformer differential relay. It includes summaries of general data and information, mechanical checks, electrical tests including function tests and secondary injection tests to check pickup and dropout values of differential currents. Test results are provided to check the relay's response to differential currents, bias characteristics, and blocking of second and fifth harmonic currents, as specified in the testing standards. Signatures are included to verify completion of the on-site testing.
Original PNP Transistor 327 BC32 BC327-025G TO-92 New ON semiconductorAUTHELECTRONIC
This document provides information on a series of PNP silicon amplifier transistors (BC327, BC327-16, BC327-25, BC327-40) from ON Semiconductor, including:
- Maximum ratings and characteristics like collector-emitter voltage, power dissipation, and thermal resistance.
- Electrical characteristics in active, saturation, and cutoff regions including current gain, voltage, and capacitance.
- Ordering information and package dimensions for the TO-92 package type.
- Graphs of characteristics like safe operating area, current gain vs. collector current, and capacitance vs. voltage/current.
This document provides preliminary datasheet information for the RJP60V0DPM 600V-22A IGBT. Key specifications and features include:
- High breakdown voltage of 600V with low collector-emitter saturation voltage of 1.5V typical.
- Short circuit withstand time of 6 microseconds typical.
- Trench gate and thin wafer technology.
- Maximum ratings, electrical characteristics, switching characteristics and thermal characteristics are provided.
Original High Current NPN Transistor BC639 639 TO-92 New ON SemiconductorAUTHELECTRONIC
This document provides specifications for the BC637, BC639, and BC639-16 NPN silicon high current transistors. It includes maximum ratings, electrical characteristics, thermal characteristics, and ordering information for the transistors. Key specifications include a collector-emitter voltage rating of 60-80V, continuous collector current of 1A, current gain of 25-160, and frequency bandwidth of up to 200MHz. The document also contains figures illustrating characteristics like safe operating area, current gain, and voltage/temperature coefficients.
Original Digital Transistor KRC105 C105M C105 100mA 50V TO-92 NewAUTHELECTRONIC
This document provides specifications for 6 types of epitaxial planar NPN transistors (KRC101-KRC106). The transistors have built-in bias resistors to simplify circuit design. Key specifications include maximum voltage and current ratings, electrical characteristics like DC current gain and switching times, and I-V and G-I curves showing performance over temperature ranges.
Original NPN Transistor KRC106M C106 106 TO-92 New KECAUTHELECTRONIC
This document provides specifications for 6 types of epitaxial planar NPN transistors (KRC101-KRC106). The transistors have built-in bias resistors to simplify circuit design. Key specifications include maximum voltage and current ratings, electrical characteristics like DC current gain and switching times, and I-V and G-I curves showing performance over temperature ranges.
This document is an installation test sheet for testing an ITDS (IT Distribution System) enclosure. It consists of 3 pages outlining the visual inspection, testing and results that should be recorded to ensure the ITDS enclosure is properly installed and functioning according to relevant Australian standards. The tests include insulation resistance testing, earth continuity testing, polarity and circuit connection testing, RCD device testing, and operational testing of outputs such as air conditioners and UPS systems.
Original PNP Transistor BC640 640 TO-220F NewAUTHELECTRONIC
This document provides information on the BC640-016G high current PNP silicon transistor, including its maximum ratings, electrical characteristics, ordering information, and package dimensions. The transistor has a continuous collector current rating of 0.5A, with breakdown voltages of -80V for collector-emitter and collector-base. It has a typical current gain of 100 at collector currents below 150mA, and 25 at currents above 500mA. The document contains graphs of characteristics like current gain and saturation voltage over varying currents and voltages.
Original N-Channel Mosfet CS13N50 13N50 500V 13A TO-220 NewAUTHELECTRONIC
The document provides specifications for the CS13N50 A8H silicon N-channel power MOSFET, including its electrical characteristics, thermal properties, maximum ratings and applications. Key features include low on-resistance, fast switching speeds, and high single pulse avalanche energy rating. The MOSFET is intended for use in power switching circuits for applications such as adaptor and charger power switches.
SPICE MODEL of TPCP8405 (Professional+BDP Model) in SPICE PARKTsuyoshi Horigome
SPICE MODEL of TPCP8405 (Professional+BDP Model) in SPICE PARK. English Version is http://www.spicepark.net. Japanese Version is http://www.spicepark.com by Bee Technologies.
International Conference on NLP, Artificial Intelligence, Machine Learning an...gerogepatton
International Conference on NLP, Artificial Intelligence, Machine Learning and Applications (NLAIM 2024) offers a premier global platform for exchanging insights and findings in the theory, methodology, and applications of NLP, Artificial Intelligence, Machine Learning, and their applications. The conference seeks substantial contributions across all key domains of NLP, Artificial Intelligence, Machine Learning, and their practical applications, aiming to foster both theoretical advancements and real-world implementations. With a focus on facilitating collaboration between researchers and practitioners from academia and industry, the conference serves as a nexus for sharing the latest developments in the field.
Using recycled concrete aggregates (RCA) for pavements is crucial to achieving sustainability. Implementing RCA for new pavement can minimize carbon footprint, conserve natural resources, reduce harmful emissions, and lower life cycle costs. Compared to natural aggregate (NA), RCA pavement has fewer comprehensive studies and sustainability assessments.
TIME DIVISION MULTIPLEXING TECHNIQUE FOR COMMUNICATION SYSTEMHODECEDSIET
Time Division Multiplexing (TDM) is a method of transmitting multiple signals over a single communication channel by dividing the signal into many segments, each having a very short duration of time. These time slots are then allocated to different data streams, allowing multiple signals to share the same transmission medium efficiently. TDM is widely used in telecommunications and data communication systems.
### How TDM Works
1. **Time Slots Allocation**: The core principle of TDM is to assign distinct time slots to each signal. During each time slot, the respective signal is transmitted, and then the process repeats cyclically. For example, if there are four signals to be transmitted, the TDM cycle will divide time into four slots, each assigned to one signal.
2. **Synchronization**: Synchronization is crucial in TDM systems to ensure that the signals are correctly aligned with their respective time slots. Both the transmitter and receiver must be synchronized to avoid any overlap or loss of data. This synchronization is typically maintained by a clock signal that ensures time slots are accurately aligned.
3. **Frame Structure**: TDM data is organized into frames, where each frame consists of a set of time slots. Each frame is repeated at regular intervals, ensuring continuous transmission of data streams. The frame structure helps in managing the data streams and maintaining the synchronization between the transmitter and receiver.
4. **Multiplexer and Demultiplexer**: At the transmitting end, a multiplexer combines multiple input signals into a single composite signal by assigning each signal to a specific time slot. At the receiving end, a demultiplexer separates the composite signal back into individual signals based on their respective time slots.
### Types of TDM
1. **Synchronous TDM**: In synchronous TDM, time slots are pre-assigned to each signal, regardless of whether the signal has data to transmit or not. This can lead to inefficiencies if some time slots remain empty due to the absence of data.
2. **Asynchronous TDM (or Statistical TDM)**: Asynchronous TDM addresses the inefficiencies of synchronous TDM by allocating time slots dynamically based on the presence of data. Time slots are assigned only when there is data to transmit, which optimizes the use of the communication channel.
### Applications of TDM
- **Telecommunications**: TDM is extensively used in telecommunication systems, such as in T1 and E1 lines, where multiple telephone calls are transmitted over a single line by assigning each call to a specific time slot.
- **Digital Audio and Video Broadcasting**: TDM is used in broadcasting systems to transmit multiple audio or video streams over a single channel, ensuring efficient use of bandwidth.
- **Computer Networks**: TDM is used in network protocols and systems to manage the transmission of data from multiple sources over a single network medium.
### Advantages of TDM
- **Efficient Use of Bandwidth**: TDM all
A SYSTEMATIC RISK ASSESSMENT APPROACH FOR SECURING THE SMART IRRIGATION SYSTEMSIJNSA Journal
The smart irrigation system represents an innovative approach to optimize water usage in agricultural and landscaping practices. The integration of cutting-edge technologies, including sensors, actuators, and data analysis, empowers this system to provide accurate monitoring and control of irrigation processes by leveraging real-time environmental conditions. The main objective of a smart irrigation system is to optimize water efficiency, minimize expenses, and foster the adoption of sustainable water management methods. This paper conducts a systematic risk assessment by exploring the key components/assets and their functionalities in the smart irrigation system. The crucial role of sensors in gathering data on soil moisture, weather patterns, and plant well-being is emphasized in this system. These sensors enable intelligent decision-making in irrigation scheduling and water distribution, leading to enhanced water efficiency and sustainable water management practices. Actuators enable automated control of irrigation devices, ensuring precise and targeted water delivery to plants. Additionally, the paper addresses the potential threat and vulnerabilities associated with smart irrigation systems. It discusses limitations of the system, such as power constraints and computational capabilities, and calculates the potential security risks. The paper suggests possible risk treatment methods for effective secure system operation. In conclusion, the paper emphasizes the significant benefits of implementing smart irrigation systems, including improved water conservation, increased crop yield, and reduced environmental impact. Additionally, based on the security analysis conducted, the paper recommends the implementation of countermeasures and security approaches to address vulnerabilities and ensure the integrity and reliability of the system. By incorporating these measures, smart irrigation technology can revolutionize water management practices in agriculture, promoting sustainability, resource efficiency, and safeguarding against potential security threats.
Electric vehicle and photovoltaic advanced roles in enhancing the financial p...IJECEIAES
Climate change's impact on the planet forced the United Nations and governments to promote green energies and electric transportation. The deployments of photovoltaic (PV) and electric vehicle (EV) systems gained stronger momentum due to their numerous advantages over fossil fuel types. The advantages go beyond sustainability to reach financial support and stability. The work in this paper introduces the hybrid system between PV and EV to support industrial and commercial plants. This paper covers the theoretical framework of the proposed hybrid system including the required equation to complete the cost analysis when PV and EV are present. In addition, the proposed design diagram which sets the priorities and requirements of the system is presented. The proposed approach allows setup to advance their power stability, especially during power outages. The presented information supports researchers and plant owners to complete the necessary analysis while promoting the deployment of clean energy. The result of a case study that represents a dairy milk farmer supports the theoretical works and highlights its advanced benefits to existing plants. The short return on investment of the proposed approach supports the paper's novelty approach for the sustainable electrical system. In addition, the proposed system allows for an isolated power setup without the need for a transmission line which enhances the safety of the electrical network
DEEP LEARNING FOR SMART GRID INTRUSION DETECTION: A HYBRID CNN-LSTM-BASED MODELgerogepatton
As digital technology becomes more deeply embedded in power systems, protecting the communication
networks of Smart Grids (SG) has emerged as a critical concern. Distributed Network Protocol 3 (DNP3)
represents a multi-tiered application layer protocol extensively utilized in Supervisory Control and Data
Acquisition (SCADA)-based smart grids to facilitate real-time data gathering and control functionalities.
Robust Intrusion Detection Systems (IDS) are necessary for early threat detection and mitigation because
of the interconnection of these networks, which makes them vulnerable to a variety of cyberattacks. To
solve this issue, this paper develops a hybrid Deep Learning (DL) model specifically designed for intrusion
detection in smart grids. The proposed approach is a combination of the Convolutional Neural Network
(CNN) and the Long-Short-Term Memory algorithms (LSTM). We employed a recent intrusion detection
dataset (DNP3), which focuses on unauthorized commands and Denial of Service (DoS) cyberattacks, to
train and test our model. The results of our experiments show that our CNN-LSTM method is much better
at finding smart grid intrusions than other deep learning algorithms used for classification. In addition,
our proposed approach improves accuracy, precision, recall, and F1 score, achieving a high detection
accuracy rate of 99.50%.
ACEP Magazine edition 4th launched on 05.06.2024Rahul
This document provides information about the third edition of the magazine "Sthapatya" published by the Association of Civil Engineers (Practicing) Aurangabad. It includes messages from current and past presidents of ACEP, memories and photos from past ACEP events, information on life time achievement awards given by ACEP, and a technical article on concrete maintenance, repairs and strengthening. The document highlights activities of ACEP and provides a technical educational article for members.
Presentation of IEEE Slovenia CIS (Computational Intelligence Society) Chapte...University of Maribor
Slides from talk presenting:
Aleš Zamuda: Presentation of IEEE Slovenia CIS (Computational Intelligence Society) Chapter and Networking.
Presentation at IcETRAN 2024 session:
"Inter-Society Networking Panel GRSS/MTT-S/CIS
Panel Session: Promoting Connection and Cooperation"
IEEE Slovenia GRSS
IEEE Serbia and Montenegro MTT-S
IEEE Slovenia CIS
11TH INTERNATIONAL CONFERENCE ON ELECTRICAL, ELECTRONIC AND COMPUTING ENGINEERING
3-6 June 2024, Niš, Serbia
2. - English Electric VAA/VAG - 110 Vcc
- English Electric CME - 110 Vcc
- English Electric VAA/VAG - 48 Vcc
- English Electric CME - 48 Vcc
Aprobados
Aprobados con observacion
No Aprobados
PROTOCOLO DE PRUEBA
PRUEBAS DE OPERATIVIDAD DE RELES DE PROTECCION
C.H. RESTITUCIÓN
SERVICIOS AUXILIARES
Tableros 48 Vcc y 110 Vcc
Nombre: J. Ramírez Nombre: J. Chavesta Nombre: Luis Rivas
Resultados de Prueba:
Cliente:
ELECTROPERU S.A.
Ubicación:
C.H. RESTITUCIÓN
Equipo Protegido:
CIRCUITOS 110 VCC Y 48 VCC
Fecha:
30 de Noviembre del 2019
EJECUTOR DE PRUEBA RESPONSABLE EDP ESTUDIOS SUPERVISIÓN ELECTROPERU
Fecha: 30/11/19 Fecha: 30/11/19 Fecha: 30/11/19
Firma: Firma: Firma:
3. F6Test Relay Test Report
Test Result Details 06-Dic-19
Servicios Auxiliares 110 VCC/CEG 27
Servicios Auxiliares/Servicios Auxiliares 110 VCC
Location Path
Relay Under Test General Parameters
A-B-C
Vn
In
2000.000%
VAA-VAG
1000.00%
1 : 1
CTR
Phase Names And Rotation
Max Test Voltage
Max Test Current
Model
A
V (Ph-Ph)
Hz
5.000
100.00
60.000
1 : 1
Restitucion
052672M
In
Vn
fn
GEC
CEG 27
VTR
Nominal Ratings:
Station Name
Manufacturer
Serial Number
Relay Name
Protected Object Parameters
Servicios Auxiliares
Protected Object Name
Protected Object Parameters
Test Name Test Type Ramp
Arranque 27
Arranque 27
Pass
Evaluation
Antonio
V pickup = 82.5 V
Tested By
Tested Date
Test Definition Description
Test Definition Name
30/11/2019
Test Configuration
Amplitude-Voltage-Stepped-Auto-Single - Ramp
Test Module
Values are Secondary
Amplitude Ph Ang[deg] Frequency(Hz)
Source Configuration
Source
Amplitude Ph Ang[deg]
Action
Prefault
VA 0.00 0.000
Action
0.00
90.00 V
VB 0.00 60.000
0.00 V
0.00
0.00 V
VC 0.00 60.000
0.00 V
0.00
0.00 V
4. Test Result Details 06-Dic-19
Servicios Auxiliares 110 VCC/CEG 27
Ramp Details
0.0000 s s
0.0000
Duration
Delay
Trigger LN1 0->1
s
2.0000
Prefault Duration
Offset Voltage
s
Offset Voltage Duration 2.0000
90.75 V
Delta Voltage V
-0.20
Delta Time s
0.1000
V
Voltage Limit 70.13
Ramp Result
Expected
Test Objective Actual -tol [%] +tol [%] Error[%] Eval
[V]
[V]
-6.24 Pass
10.00
77.35
82.50
Arranque 27 10.00
Test Name Test Type SSIMUL
Tiempo 27
Tiempo 27_1
Pass
Evaluation
Antonio
V = 74 V
T = 0.05 seg.
Tested By
Tested Date
Test Definition Description
Test Definition Name
30/11/2019
Test Configuration
State1Name
Name
1
State No
VA VB VC
Amplitude 90.00 V 0.00 V 0.00 V
Ph Ang[deg] 0.00 0.00 0.00
Frequency (Hz) 0.000 0.000 0.000
5. Test Result Details 06-Dic-19
Servicios Auxiliares 110 VCC/CEG 27
s
State Duration 2.0000
State2Name
Name
2
State No
VA VB VC
Amplitude 74.00 V 0.00 V 0.00 V
Ph Ang[deg] 0.00 0.00 0.00
Frequency (Hz) 0.000 0.000 0.000
s
State Duration 0.2500
t Exp
[s]
t Act
[s]
+ tol - tol Eval
Measurement
Timer Name Start State Stop Signal t Err
[s]
[s] [s]
Pass
0.0500 0.0903 0.1000
0.1000 0.0403
2-State2Name LN1, 0->1
Tiempo
Oscillograph
Test Name Test Type SSIMUL
Tiempo 27
Tiempo 27_2
Pass
Evaluation
Antonio
V = 73 V
T = 0.05 seg.
Tested By
Tested Date
Test Definition Description
Test Definition Name
30/11/2019
Test Configuration
State1Name
Name
1
State No
VA VB VC
Amplitude 90.00 V 0.00 V 0.00 V
6. Test Result Details 06-Dic-19
Servicios Auxiliares 110 VCC/CEG 27
State1Name
Name
1
State No
Ph Ang[deg] 0.00 0.00 0.00
Frequency (Hz) 0.000 0.000 0.000
s
State Duration 2.0000
State2Name
Name
2
State No
VA VB VC
Amplitude 73.00 V 0.00 V 0.00 V
Ph Ang[deg] 0.00 0.00 0.00
Frequency (Hz) 0.000 0.000 0.000
s
State Duration 0.2500
t Exp
[s]
t Act
[s]
+ tol - tol Eval
Measurement
Timer Name Start State Stop Signal t Err
[s]
[s] [s]
Pass
0.0500 0.0854 0.1000
0.1000 0.0354
2-State2Name LN1, 0->1
Tiempo
Oscillograph
7. F6Test Relay Test Report
Test Result Details 06-Dic-19
Servicios Auxiliares 110 VCC/CEG 64
Servicios Auxiliares/Servicios Auxiliares 110 VCC
Location Path
Relay Under Test General Parameters
A-B-C
Vn
In
2000.000%
CME
1000.00%
1 : 1
CTR
Phase Names And Rotation
Max Test Voltage
Max Test Current
Model
A
V (Ph-Ph)
Hz
5.000
100.00
60.000
1 : 1
Restitucion
043456M
In
Vn
fn
GEC
CEG 64
VTR
Nominal Ratings:
Station Name
Manufacturer
Serial Number
Relay Name
Protected Object Parameters
Servicios Auxiliares
Protected Object Name
Protected Object Parameters
Test Name Test Type SSIMUL
Tiempo
Tiempo 64_1
Op
Evaluation
Antonio
Positivo a Tierra
R = 5k Ohm.
Delay : INST
Tested By
Tested Date
Test Definition Description
Test Definition Name
30/11/2019
Test Configuration
State1Name
Name
1
State No
VA VB VC
Amplitude 0.00 V 0.00 V 0.00 V
Ph Ang[deg] 0.00 0.00 0.00
Frequency (Hz) 60.000 60.000 60.000
s
State Duration 2.0000
LN1 0->1
Trigger Condition
Trigger
Digital Output
8. Test Result Details 06-Dic-19
Servicios Auxiliares 110 VCC/CEG 64
t Exp
[s]
t Act
[s]
+ tol - tol Eval
Measurement
Timer Name Start State Stop Signal t Err
[s]
[s] [s]
Op
0.0798
1-State1Name LN1, 0->1
Tiempo
Oscillograph
Test Name Test Type SSIMUL
Tiempo
Tiempo 64_3
Op
Evaluation
Antonio
Negativo a Tierra
R = 5k Ohm.
Delay : INST
Tested By
Tested Date
Test Definition Description
Test Definition Name
30/11/2019
Test Configuration
State1Name
Name
1
State No
VA VB VC
Amplitude 0.00 V 0.00 V 0.00 V
Ph Ang[deg] 0.00 0.00 0.00
Frequency (Hz) 60.000 60.000 60.000
s
State Duration 2.0000
LN1 0->1
Trigger Condition
Trigger
Digital Output
9. Test Result Details 06-Dic-19
Servicios Auxiliares 110 VCC/CEG 64
t Exp
[s]
t Act
[s]
+ tol - tol Eval
Measurement
Timer Name Start State Stop Signal t Err
[s]
[s] [s]
Op
0.0668
1-State1Name LN1, 0->1
Tiempo
Oscillograph
Test Name Test Type SSIMUL
Tiempo
Tiempo 64_2
Op
Evaluation
Antonio
Positivo a Tierra
R = 2k Ohm.
Delay : INST
Tested By
Tested Date
Test Definition Description
Test Definition Name
30/11/2019
Test Configuration
State1Name
Name
1
State No
VA VB VC
Amplitude 0.00 V 0.00 V 0.00 V
Ph Ang[deg] 0.00 0.00 0.00
Frequency (Hz) 60.000 60.000 60.000
s
State Duration 2.0000
LN1 0->1
Trigger Condition
Trigger
Digital Output
10. Test Result Details 06-Dic-19
Servicios Auxiliares 110 VCC/CEG 64
t Exp
[s]
t Act
[s]
+ tol - tol Eval
Measurement
Timer Name Start State Stop Signal t Err
[s]
[s] [s]
Op
0.0660
1-State1Name LN1, 0->1
Tiempo
Oscillograph
Test Name Test Type SSIMUL
Tiempo
Tiempo 64_4
Op
Evaluation
Antonio
Negativo a Tierra
R = 2k Ohm.
Delay : INST
Tested By
Tested Date
Test Definition Description
Test Definition Name
30/11/2019
Test Configuration
State1Name
Name
1
State No
VA VB VC
Amplitude 0.00 V 0.00 V 0.00 V
Ph Ang[deg] 0.00 0.00 0.00
Frequency (Hz) 60.000 60.000 60.000
s
State Duration 2.0000
LN1 0->1
Trigger Condition
Trigger
Digital Output
11. Test Result Details 06-Dic-19
Servicios Auxiliares 110 VCC/CEG 64
t Exp
[s]
t Act
[s]
+ tol - tol Eval
Measurement
Timer Name Start State Stop Signal t Err
[s]
[s] [s]
Op
0.0914
1-State1Name LN1, 0->1
Tiempo
Oscillograph
12. F6Test Relay Test Report
Test Result Details 06-Dic-19
Servicios Auxiliares 48 VCC/CEG 27
Servicios Auxiliares/Servicios Auxiliares 48 VCC
Location Path
Relay Under Test General Parameters
A-B-C
Vn
In
2000.000%
VAA-VAG
1000.00%
1 : 1
CTR
Phase Names And Rotation
Max Test Voltage
Max Test Current
Model
A
V (Ph-Ph)
Hz
5.000
100.00
60.000
1 : 1
Restitucion
052671M
In
Vn
fn
GEC
CEG 27
VTR
Nominal Ratings:
Station Name
Manufacturer
Serial Number
Relay Name
Protected Object Parameters
Servicios Auxiliares
Protected Object Name
Protected Object Parameters
Test Name Test Type Ramp
Arranque 27
Arranque 27
Pass
Evaluation
Antonio
V pickup = 36 V
Tested By
Tested Date
Test Definition Description
Test Definition Name
30/11/2019
Test Configuration
Amplitude-Voltage-Stepped-Auto-Single - Ramp
Test Module
Values are Secondary
Amplitude Ph Ang[deg] Frequency(Hz)
Source Configuration
Source
Amplitude Ph Ang[deg]
Action
Prefault
VA 0.00 0.000
Action
0.00
48.00 V
VB 0.00 60.000
0.00 V
0.00
0.00 V
VC 0.00 60.000
0.00 V
0.00
0.00 V
13. Test Result Details 06-Dic-19
Servicios Auxiliares 48 VCC/CEG 27
Ramp Details
0.0000 s s
0.0000
Duration
Delay
Trigger LN1 0->1
s
2.0000
Prefault Duration
Offset Voltage
s
Offset Voltage Duration 2.0000
39.60 V
Delta Voltage V
-0.20
Delta Time s
0.1000
V
Voltage Limit 32.40
Ramp Result
Expected
Test Objective Actual -tol [%] +tol [%] Error[%] Eval
[V]
[V]
-5.56 Pass
10.00
34.00
36.00
Arranque 27 10.00
Test Name Test Type SSIMUL
Tiempo 27
Tiempo 27_1
Pass
Evaluation
Antonio
V = 30 V
T = 0.05 seg.
Tested By
Tested Date
Test Definition Description
Test Definition Name
30/11/2019
Test Configuration
State1Name
Name
1
State No
VA VB VC
Amplitude 48.00 V 0.00 V 0.00 V
Ph Ang[deg] 0.00 0.00 0.00
Frequency (Hz) 0.000 0.000 0.000
14. Test Result Details 06-Dic-19
Servicios Auxiliares 48 VCC/CEG 27
s
State Duration 2.0000
State2Name
Name
2
State No
VA VB VC
Amplitude 30.00 V 0.00 V 0.00 V
Ph Ang[deg] 0.00 0.00 0.00
Frequency (Hz) 0.000 0.000 0.000
s
State Duration 0.2500
t Exp
[s]
t Act
[s]
+ tol - tol Eval
Measurement
Timer Name Start State Stop Signal t Err
[s]
[s] [s]
Pass
0.0500 0.0708 0.1000
0.1000 0.0208
2-State2Name LN1, 0->1
Tiempo
Oscillograph
Test Name Test Type SSIMUL
Tiempo 27
Tiempo 27_2
Pass
Evaluation
Antonio
V = 29 V
T = 0.05 seg.
Tested By
Tested Date
Test Definition Description
Test Definition Name
30/11/2019
Test Configuration
State1Name
Name
1
State No
VA VB VC
Amplitude 48.00 V 0.00 V 0.00 V
15. Test Result Details 06-Dic-19
Servicios Auxiliares 48 VCC/CEG 27
State1Name
Name
1
State No
Ph Ang[deg] 0.00 0.00 0.00
Frequency (Hz) 0.000 0.000 0.000
s
State Duration 2.0000
State2Name
Name
2
State No
VA VB VC
Amplitude 29.00 V 0.00 V 0.00 V
Ph Ang[deg] 0.00 0.00 0.00
Frequency (Hz) 0.000 0.000 0.000
s
State Duration 0.2500
t Exp
[s]
t Act
[s]
+ tol - tol Eval
Measurement
Timer Name Start State Stop Signal t Err
[s]
[s] [s]
Pass
0.0500 0.0696 0.1000
0.1000 0.0196
2-State2Name LN1, 0->1
Tiempo
Oscillograph
16. F6Test Relay Test Report
Test Result Details 06-Dic-19
Servicios Auxiliares 48 VCC/CEG 64
Servicios Auxiliares/Servicios Auxiliares 48 VCC
Location Path
Relay Under Test General Parameters
A-B-C
Vn
In
2000.000%
CME
1000.00%
1 : 1
CTR
Phase Names And Rotation
Max Test Voltage
Max Test Current
Model
A
V (Ph-Ph)
Hz
5.000
100.00
60.000
1 : 1
Restitucion
043455M
In
Vn
fn
GEC
CEG 64
VTR
Nominal Ratings:
Station Name
Manufacturer
Serial Number
Relay Name
Protected Object Parameters
Servicios Auxiliares
Protected Object Name
Protected Object Parameters
Test Name Test Type SSIMUL
Tiempo
Tiempo 64_2
Op
Evaluation
Antonio
Positivo a Tierra
R = 5k Ohm.
Delay : INST
Tested By
Tested Date
Test Definition Description
Test Definition Name
30/11/2019
Test Configuration
State1Name
Name
1
State No
VA VB VC
Amplitude 0.00 V 0.00 V 0.00 V
Ph Ang[deg] 0.00 0.00 0.00
Frequency (Hz) 60.000 60.000 60.000
s
State Duration 10.0000
LN1 0->1
Trigger Condition
Trigger
Digital Output
17. Test Result Details 06-Dic-19
Servicios Auxiliares 48 VCC/CEG 64
t Exp
[s]
t Act
[s]
+ tol - tol Eval
Measurement
Timer Name Start State Stop Signal t Err
[s]
[s] [s]
Op
0.0909
1-State1Name LN1, 0->1
Tiempo
Oscillograph
Test Name Test Type SSIMUL
Tiempo
Tiempo 64_4
Op
Evaluation
Antonio
Negativo a Tierra
R = 2k Ohm.
Delay : INST
Tested By
Tested Date
Test Definition Description
Test Definition Name
30/11/2019
Test Configuration
State1Name
Name
1
State No
VA VB VC
Amplitude 0.00 V 0.00 V 0.00 V
Ph Ang[deg] 0.00 0.00 0.00
Frequency (Hz) 60.000 60.000 60.000
s
State Duration 2.0000
LN1 0->1
Trigger Condition
Trigger
Digital Output
18. Test Result Details 06-Dic-19
Servicios Auxiliares 48 VCC/CEG 64
t Exp
[s]
t Act
[s]
+ tol - tol Eval
Measurement
Timer Name Start State Stop Signal t Err
[s]
[s] [s]
Op
0.0897
1-State1Name LN1, 0->1
Tiempo
Oscillograph
Test Name Test Type SSIMUL
Tiempo
Tiempo 64_1
Op
Evaluation
Antonio
Positivo a Tierra
R = 5k Ohm.
Delay : INST
Tested By
Tested Date
Test Definition Description
Test Definition Name
30/11/2019
Test Configuration
State1Name
Name
1
State No
VA VB VC
Amplitude 0.00 V 0.00 V 0.00 V
Ph Ang[deg] 0.00 0.00 0.00
Frequency (Hz) 60.000 60.000 60.000
s
State Duration 10.0000
LN1 0->1
Trigger Condition
Trigger
Digital Output
19. Test Result Details 06-Dic-19
Servicios Auxiliares 48 VCC/CEG 64
t Exp
[s]
t Act
[s]
+ tol - tol Eval
Measurement
Timer Name Start State Stop Signal t Err
[s]
[s] [s]
Op
0.0995
1-State1Name LN1, 0->1
Tiempo
Oscillograph
Test Name Test Type SSIMUL
Tiempo
Tiempo 64_3
Op
Evaluation
Antonio
Negativo a Tierra
R = 5k Ohm.
Delay : INST
Tested By
Tested Date
Test Definition Description
Test Definition Name
30/11/2019
Test Configuration
State1Name
Name
1
State No
VA VB VC
Amplitude 0.00 V 0.00 V 0.00 V
Ph Ang[deg] 0.00 0.00 0.00
Frequency (Hz) 60.000 60.000 60.000
s
State Duration 2.0000
LN1 0->1
Trigger Condition
Trigger
Digital Output
20. Test Result Details 06-Dic-19
Servicios Auxiliares 48 VCC/CEG 64
t Exp
[s]
t Act
[s]
+ tol - tol Eval
Measurement
Timer Name Start State Stop Signal t Err
[s]
[s] [s]
Op
0.0996
1-State1Name LN1, 0->1
Tiempo
Oscillograph
21. - Relé VAA/VAG - Luz de Emergencia
- Relé VAA/VAG - Transformador de Emergencia (Lado Barra)
- Relé VAA/VAG - Transformador de Emergencia (Lado Transf.)
- Micom P122 - Transformador de Emergencia
Aprobados
Aprobados con observacion
No Aprobados
Fecha: 30/11/19 Fecha: 30/11/19 Fecha: 30/11/19
Firma: Firma: Firma:
Nombre: J. Ramírez Nombre: J. Chavesta Nombre: Luis Rivas
Resultados de Prueba:
Cliente:
ELECTROPERU S.A.
Ubicación:
C.H. RESTITUCIÓN
Equipo Protegido:
Luz de Emegencia y Transformador Auxiliar
Fecha:
30 de Noviembre del 2019
EJECUTOR DE PRUEBA RESPONSABLE EDP ESTUDIOS SUPERVISIÓN ELECTROPERU
Auxiliar de Emergencia
PROTOCOLO DE PRUEBA
PRUEBAS DE OPERATIVIDAD DE RELES DE PROTECCION
C.H. RESTITUCIÓN
SERVICIOS AUXILIARES
Tableros Luz de Emegencia y Transformador
22. F6Test Relay Test Report
Test Result Details 06-Dic-19
Rele Minima Tension 380 VAC/VAG/VAA
Rele Minima Tension 380 VAC
Location Path
Relay Under Test General Parameters
A-B-C
Vn
In
2000.000%
1000.00%
1 : 1
CTR
Phase Names And Rotation
Max Test Voltage
Max Test Current
Model
A
V (Ph-Ph)
Hz
5.000
120.00
60.000
1 : 1
078501N
In
Vn
fn
ENGLISH ELECTRIC
VAG/VAA
VTR
Nominal Ratings:
Station Name
Manufacturer
Serial Number
Relay Name
Protected Object Parameters
Protected Object Name
Protected Object Parameters
Test Name Test Type Ramp
Arranque 27
Arranque 27
Pass
Evaluation
Antonio
V pickup = 70.00 V Sec.
Tested By
Tested Date
Test Definition Description
Test Definition Name
30/11/2019
Test Configuration
Amplitude-Voltage-Stepped-Auto-Single - Ramp
Test Module
Values are Secondary
Amplitude Ph Ang[deg] Frequency(Hz)
Source Configuration
Source
Amplitude Ph Ang[deg]
Action
Prefault
VA 0.00 60.000
Action
0.00
100.00 V
VB 0.00 60.000
0.00 V
0.00
0.00 V
VC 0.00 60.000
0.00 V
0.00
0.00 V
VAG/VAA
23. Test Result Details 06-Dic-19
Rele Minima Tension 380 VAC/VAG/VAA
Ramp Details
0.0000 s s
0.0000
Duration
Delay
Trigger LN1 0->1
s
2.0000
Prefault Duration
Offset Voltage
s
Offset Voltage Duration 0.0000
73.50 V
Delta Voltage V
-0.20
Delta Time s
0.1000
V
Voltage Limit 66.50
Ramp Result
Expected
Test Objective Actual -tol [%] +tol [%] Error[%] Eval
[V]
[V]
2.14 Pass
5.00
71.50
70.00
Arranque 27' 5.00
Test Name Test Type SSIMUL
Tiempo 27
Tiempo 27_1
Pass
Evaluation
Antonio
V = 68.00 V Sec.
T = 0.10 seg
Tested By
Tested Date
Test Definition Description
Test Definition Name
30/11/2019
Test Configuration
State1Name
Name
1
State No
VA VB VC
Amplitude 100.00 V 0.00 V 0.00 V
Ph Ang[deg] 0.00 0.00 0.00
Frequency (Hz) 60.000 60.000 60.000
24. Test Result Details 06-Dic-19
Rele Minima Tension 380 VAC/VAG/VAA
s
State Duration 0.2500
State2Name
Name
2
State No
VA VB VC
Amplitude 68.00 V 0.00 V 0.00 V
Ph Ang[deg] 0.00 0.00 0.00
Frequency (Hz) 60.000 60.000 60.000
s
State Duration 1.0000
t Exp
[s]
t Act
[s]
+ tol - tol Eval
Measurement
Timer Name Start State Stop Signal t Err
[s]
[s] [s]
Pass
0.1000 0.1166 0.0500
0.0500 0.0166
2-State2Name LN1, 0->1
Timer
Oscillograph
Test Name Test Type SSIMUL
Tiempo 27
Tiempo 27_2
Pass
Evaluation
Antonio
V = 66.00 V Sec.
T = 0.10 seg
Tested By
Tested Date
Test Definition Description
Test Definition Name
30/11/2019
Test Configuration
State1Name
Name
1
State No
VA VB VC
Amplitude 100.00 V 0.00 V 0.00 V
25. Test Result Details 06-Dic-19
Rele Minima Tension 380 VAC/VAG/VAA
State1Name
Name
1
State No
Ph Ang[deg] 0.00 0.00 0.00
Frequency (Hz) 60.000 60.000 60.000
s
State Duration 0.2500
State2Name
Name
2
State No
VA VB VC
Amplitude 66.00 V 0.00 V 0.00 V
Ph Ang[deg] 0.00 0.00 0.00
Frequency (Hz) 60.000 60.000 60.000
s
State Duration 1.0000
t Exp
[s]
t Act
[s]
+ tol - tol Eval
Measurement
Timer Name Start State Stop Signal t Err
[s]
[s] [s]
Pass
0.1000 0.1011 0.0500
0.0500 0.0011
2-State2Name LN1, 0->1
Timer
Oscillograph
Test Name Test Type SSIMUL
Tiempo 27
Tiempo 27_3
Pass
Evaluation
Antonio
V = 64.00 V Sec.
T = 0.10 seg
Tested By
Tested Date
Test Definition Description
Test Definition Name
30/11/2019
Test Configuration
26. Test Result Details 06-Dic-19
Rele Minima Tension 380 VAC/VAG/VAA
State1Name
Name
1
State No
VA VB VC
Amplitude 100.00 V 0.00 V 0.00 V
Ph Ang[deg] 0.00 0.00 0.00
Frequency (Hz) 60.000 60.000 60.000
s
State Duration 0.2500
State2Name
Name
2
State No
VA VB VC
Amplitude 64.00 V 0.00 V 0.00 V
Ph Ang[deg] 0.00 0.00 0.00
Frequency (Hz) 60.000 60.000 60.000
s
State Duration 1.0000
t Exp
[s]
t Act
[s]
+ tol - tol Eval
Measurement
Timer Name Start State Stop Signal t Err
[s]
[s] [s]
Pass
0.1000 0.0886 0.0500
0.0500 -0.0114
2-State2Name LN1, 0->1
Timer
Oscillograph
27. F6Test Relay Test Report
Test Result Details 06-Dic-19
Minima Tension Lado Barra/VAG/VAA
Minima Tension Lado Barra
Location Path
Relay Under Test General Parameters
A-B-C
Vn
In
2000.000%
VAG/VAA
1000.00%
1 : 1
CTR
Phase Names And Rotation
Max Test Voltage
Max Test Current
Model
A
V (Ph-Ph)
Hz
5.000
120.00
60.000
1 : 1
052669M
In
Vn
fn
ENGLISH ELECTRIC
VAG/VAA
VTR
Nominal Ratings:
Station Name
Manufacturer
Serial Number
Relay Name
Protected Object Parameters
Protected Object Name
Protected Object Parameters
Test Name Test Type Ramp
Arranque 27
Arranque 27
Pass
Evaluation
Antonio
V pickup = 72.00 V Sec.
Tested By
Tested Date
Test Definition Description
Test Definition Name
30/11/2019
Test Configuration
Amplitude-Voltage-Stepped-Auto-Single - Ramp
Test Module
Values are Secondary
Amplitude Ph Ang[deg] Frequency(Hz)
Source Configuration
Source
Amplitude Ph Ang[deg]
Action
Prefault
VA 0.00 60.000
Action
0.00
100.00 V
VB 0.00 60.000
0.00 V
0.00
0.00 V
VC 0.00 60.000
0.00 V
0.00
0.00 V
28. Test Result Details 06-Dic-19
Minima Tension Lado Barra/VAG/VAA
Ramp Details
0.0000 s s
0.0000
Duration
Delay
Trigger LN1 0->1
s
2.0000
Prefault Duration
Offset Voltage
s
Offset Voltage Duration 0.0000
79.20 V
Delta Voltage V
-0.20
Delta Time s
0.2000
V
Voltage Limit 64.80
Ramp Result
Expected
Test Objective Actual -tol [%] +tol [%] Error[%] Eval
[V]
[V]
-9.72 Pass
10.00
65.00
72.00
Arranque 27' 10.00
Test Name Test Type SSIMUL
Tiempo 27
Tiempo 27_1 V = 63 V
Pass
Evaluation
Antonio
T = 0.10 seg
Tested By
Tested Date
Test Definition Description
Test Definition Name
30/11/2019
Test Configuration
State1Name
Name
1
State No
VA VB VC
Amplitude 100.00 V 0.00 V 0.00 V
Ph Ang[deg] 0.00 0.00 0.00
Frequency (Hz) 60.000 60.000 60.000
29. Test Result Details 06-Dic-19
Minima Tension Lado Barra/VAG/VAA
s
State Duration 0.2500
State2Name
Name
2
State No
VA VB VC
Amplitude 63.00 V 0.00 V 0.00 V
Ph Ang[deg] 0.00 0.00 0.00
Frequency (Hz) 60.000 60.000 60.000
s
State Duration 1.0000
t Exp
[s]
t Act
[s]
+ tol - tol Eval
Measurement
Timer Name Start State Stop Signal t Err
[s]
[s] [s]
Pass
0.1000 0.1403 0.0500
0.0500 0.0403
2-State2Name LN1, 0->1
Timer
Oscillograph
Test Name Test Type SSIMUL
Tiempo 27
Tiempo 27_2 V = 61 V
Pass
Evaluation
Antonio
T = 0.10 seg
Tested By
Tested Date
Test Definition Description
Test Definition Name
30/11/2019
Test Configuration
State1Name
Name
1
State No
VA VB VC
Amplitude 100.00 V 0.00 V 0.00 V
30. Test Result Details 06-Dic-19
Minima Tension Lado Barra/VAG/VAA
State1Name
Name
1
State No
Ph Ang[deg] 0.00 0.00 0.00
Frequency (Hz) 60.000 60.000 60.000
s
State Duration 0.2500
State2Name
Name
2
State No
VA VB VC
Amplitude 61.00 V 0.00 V 0.00 V
Ph Ang[deg] 0.00 0.00 0.00
Frequency (Hz) 60.000 60.000 60.000
s
State Duration 1.0000
t Exp
[s]
t Act
[s]
+ tol - tol Eval
Measurement
Timer Name Start State Stop Signal t Err
[s]
[s] [s]
Pass
0.1000 0.1071 0.0500
0.0500 0.0071
2-State2Name LN1, 0->1
Timer
Oscillograph
Test Name Test Type SSIMUL
Tiempo 27
Tiempo 27_1 V= 59 V
Pass
Evaluation
Antonio
T = 0.10 seg
Tested By
Tested Date
Test Definition Description
Test Definition Name
30/11/2019
Test Configuration
31. Test Result Details 06-Dic-19
Minima Tension Lado Barra/VAG/VAA
State1Name
Name
1
State No
VA VB VC
Amplitude 100.00 V 0.00 V 0.00 V
Ph Ang[deg] 0.00 0.00 0.00
Frequency (Hz) 60.000 60.000 60.000
s
State Duration 0.2500
State2Name
Name
2
State No
VA VB VC
Amplitude 59.00 V 0.00 V 0.00 V
Ph Ang[deg] 0.00 0.00 0.00
Frequency (Hz) 60.000 60.000 60.000
s
State Duration 1.0000
t Exp
[s]
t Act
[s]
+ tol - tol Eval
Measurement
Timer Name Start State Stop Signal t Err
[s]
[s] [s]
Pass
0.1000 0.0930 0.0500
0.0500 -0.0070
2-State2Name LN1, 0->1
Timer
Oscillograph
32. F6Test Relay Test Report
Test Result Details 06-Dic-19
Minima Tension Lado Transformador/VAG/VAA
Minima Tension Lado Transformador
Location Path
Relay Under Test General Parameters
A-B-C
Vn
In
2000.000%
1000.00%
1 : 1
CTR
Phase Names And Rotation
Max Test Voltage
Max Test Current
Model
A
V (Ph-Ph)
Hz
5.000
120.00
60.000
1 : 1
052666M
In
Vn
fn
ENGLISH ELECTRIC
VAG/VAA
VAG/VAA
VAG/VAA
VAG/VAA
VTR
Nominal Ratings:
Station Name
Manufacturer
Serial Number
Relay Name
Protected Object Parameters
Protected Object Name
Protected Object Parameters
Test Name Test Type Ramp
Arranque 27
Arranque 27
Pass
Evaluation
Antonio
V pickup = 88.00 V Sec.
Tested By
Tested Date
Test Definition Description
Test Definition Name
30/11/2019
Test Configuration
Amplitude-Voltage-Stepped-Auto-Single - Ramp
Test Module
Values are Secondary
Amplitude Ph Ang[deg] Frequency(Hz)
Source Configuration
Source
Amplitude Ph Ang[deg]
Action
Prefault
VA 0.00 60.000
Action
0.00
100.00 V
VB 0.00 60.000
0.00 V
0.00
0.00 V
VC 0.00 60.000
0.00 V
0.00
0.00 V
VAG/VAA
33. Test Result Details 06-Dic-19
Minima Tension Lado Transformador/VAG/VAA
Ramp Details
0.0000 s s
0.0000
Duration
Delay
Trigger LN1 0->1
s
2.0000
Prefault Duration
Offset Voltage
s
Offset Voltage Duration 0.0000
96.80 V
Delta Voltage V
-0.20
Delta Time s
0.1000
V
Voltage Limit 79.20
Ramp Result
Expected
Test Objective Actual -tol [%] +tol [%] Error[%] Eval
[V]
[V]
-7.05 Pass
10.00
81.80
88.00
Arranque 27' 10.00
Test Name Test Type SSIMUL
Tiempo 27
Tiempo 27_1 V= 80 V
Pass
Evaluation
Antonio
T = 0.10 seg
Tested By
Tested Date
Test Definition Description
Test Definition Name
30/11/2019
Test Configuration
State1Name
Name
1
State No
VA VB VC
Amplitude 100.00 V 0.00 V 0.00 V
Ph Ang[deg] 0.00 0.00 0.00
Frequency (Hz) 60.000 60.000 60.000
34. Test Result Details 06-Dic-19
Minima Tension Lado Transformador/VAG/VAA
s
State Duration 0.2500
State2Name
Name
2
State No
VA VB VC
Amplitude 80.00 V 0.00 V 0.00 V
Ph Ang[deg] 0.00 0.00 0.00
Frequency (Hz) 60.000 60.000 60.000
s
State Duration 1.0000
t Exp
[s]
t Act
[s]
+ tol - tol Eval
Measurement
Timer Name Start State Stop Signal t Err
[s]
[s] [s]
Pass
0.1000 0.1187 0.0500
0.0500 0.0187
2-State2Name LN1, 0->1
Timer
Oscillograph
Test Name Test Type SSIMUL
Tiempo 27
Tiempo 27_1 V= 78 V
Pass
Evaluation
Antonio
T = 0.10 seg
Tested By
Tested Date
Test Definition Description
Test Definition Name
30/11/2019
Test Configuration
State1Name
Name
1
State No
VA VB VC
Amplitude 100.00 V 0.00 V 0.00 V
35. Test Result Details 06-Dic-19
Minima Tension Lado Transformador/VAG/VAA
State1Name
Name
1
State No
Ph Ang[deg] 0.00 0.00 0.00
Frequency (Hz) 60.000 60.000 60.000
s
State Duration 0.2500
State2Name
Name
2
State No
VA VB VC
Amplitude 78.00 V 0.00 V 0.00 V
Ph Ang[deg] 0.00 0.00 0.00
Frequency (Hz) 60.000 60.000 60.000
s
State Duration 1.0000
t Exp
[s]
t Act
[s]
+ tol - tol Eval
Measurement
Timer Name Start State Stop Signal t Err
[s]
[s] [s]
Pass
0.1000 0.0907 0.0500
0.0500 -0.0093
2-State2Name LN1, 0->1
Timer
Oscillograph
Test Name Test Type SSIMUL
Tiempo 27
Tiempo 27_1 V= 76 V
Pass
Evaluation
Antonio
T = 0.10 seg
Tested By
Tested Date
Test Definition Description
Test Definition Name
30/11/2019
Test Configuration
36. Test Result Details 06-Dic-19
Minima Tension Lado Transformador/VAG/VAA
State1Name
Name
1
State No
VA VB VC
Amplitude 100.00 V 0.00 V 0.00 V
Ph Ang[deg] 0.00 0.00 0.00
Frequency (Hz) 60.000 60.000 60.000
s
State Duration 0.2500
State2Name
Name
2
State No
VA VB VC
Amplitude 76.00 V 0.00 V 0.00 V
Ph Ang[deg] 0.00 0.00 0.00
Frequency (Hz) 60.000 60.000 60.000
s
State Duration 1.0000
t Exp
[s]
t Act
[s]
+ tol - tol Eval
Measurement
Timer Name Start State Stop Signal t Err
[s]
[s] [s]
Pass
0.1000 0.0738 0.0500
0.0500 -0.0262
2-State2Name LN1, 0->1
Timer
Oscillograph
37. F6Test Relay Test Report
Test Result Details 16-dic-19
Rele 50/51 Trafo Auxiliar/Micom P122
Rele 50/51 Trafo Auxiliar
Location Path
Relay Under TestGeneral Parameters
A-B-C
Vn
In
2000.000%
P122
1000.00%
1 : 1
CTR
Phase Names And Rotation
MaxTest Voltage
MaxTest Current
Model
A
V (Ph-Ph)
Hz
1.000
120.00
60.000
1 : 1
36282837
In
Vn
fn
AREVA
MicomP122
VTR
Nominal Ratings:
Station Name
Manufacturer
Serial Number
Relay Name
ProtectedObject Parameters
Protected Object Name
Protected Object Parameters
TestName TestType Ramp
Arranque 50
Arranque 51RS
Pass
Evaluation
Antonio
I pickup = 1.28 A
Tested By
Tested Date
Test Definition Description
Test Definition Name
15/12/2019
38. Test Result Details 16-dic-19
Rele 50/51 Trafo Auxiliar/Micom P122
Ramp Result
Expected
Test Objective Actual -tol [% ] +tol [% ] Error[% ] Eval
[A]
[A]
0.469 Pass
5.000
1.286
1.280
Arranque 50_RS' 5.000
TestName TestType Ramp
Arranque 50
Arranque 51ST
Pass
Evaluation
Antonio
I pickup = 1.28 A
Tested By
Tested Date
Test Definition Description
Test Definition Name
15/12/2019
39. Test Result Details 16-dic-19
Rele 50/51 Trafo Auxiliar/Micom P122
Ramp Result
Expected
Test Objective Actual -tol [% ] +tol [% ] Error[% ] Eval
[A]
[A]
0.469 Pass
5.000
1.286
1.280
Arranque 50_ST' 5.000
TestName TestType Ramp
Arranque 50
Arranque 51RT
Pass
Evaluation
Antonio
I pickup = 1.28 A
Tested By
Tested Date
Test Definition Description
Test Definition Name
15/12/2019
40. Test Result Details 16-dic-19
Rele 50/51 Trafo Auxiliar/Micom P122
Ramp Result
Expected
Test Objective Actual -tol [% ] +tol [% ] Error[% ] Eval
[A]
[A]
0.469 Pass
5.000
1.286
1.280
Arranque 50_RT' 5.000
TestName TestType Ramp
Arranque 50
Arranque 51RST
Pass
Evaluation
Antonio
I pickup = 1.28 A
Tested By
Tested Date
Test Definition Description
Test Definition Name
15/12/2019
41. Test Result Details 16-dic-19
Rele 50/51 Trafo Auxiliar/Micom P122
Ramp Result
Expected
Test Objective Actual -tol [% ] +tol [% ] Error[% ] Eval
[A]
[A]
0.469 Pass
5.000
1.286
1.280
Arranque 50_RST' 5.000
42. F6Test Relay Test Report
Test Result Details 16-dic-19
Rele 50/51 Trafo Auxiliar/Micom P122
Rele 50/51 Trafo Auxiliar
Location Path
TestName TestType I-Char
Tiempo 50
Tiempo 50
Pass
Evaluation
Antonio
I pickup = 1.28 A
Curve = Definite Time
Dial = 0.35
Tested By
Tested Date
Test Definition Description
Test Definition Name
15/12/2019
Relay Functions
Function Type
50 Over Current
Function Name
Display values in Inherent Op Time ms
0
Secondary
General Tolerances
ms
20.0
Absolute MinimumTime
Absolute Minimum A
0.000
Fault
Type
Element
Type
Characteristic Name
A
PickupSetting Time
+%
-%
Current
Tolerance
+%
-%
Time Tolerance
x In
ARV Definite MinimumTime 1.280
I >
Ph-Ph/
3Ph
1.280 5.000 5.000 10.000 10.000
0.350
43. Test Result Details 16-dic-19
Rele 50/51 Trafo Auxiliar/Micom P122
AB
t exp t min t max t act Eval
Fault Name
Error
Fault Current Value
[xIset] [ms]
[A] [% ]
[ms] [ms]
[ms]
1.115 Pass
400.0
300.0 378.0
350.0 8.0
1.427
1.254 Pass
400.0
300.0 375.9
350.0 7.4
1.605
1.410 Pass
400.0
300.0 375.4
350.0 7.3
1.805
AB
Fault Name
44. Test Result Details 16-dic-19
Rele 50/51 Trafo Auxiliar/Micom P122
BC
t exp t min t max t act Eval
Fault Name
Error
Fault Current Value
[xIset] [ms]
[A] [% ]
[ms] [ms]
[ms]
1.115 Pass
400.0
300.0 380.0
350.0 8.6
1.427
1.254 Pass
400.0
300.0 376.7
350.0 7.6
1.605
1.410 Pass
400.0
300.0 375.5
350.0 7.3
1.805
BC
Fault Name
45. Test Result Details 16-dic-19
Rele 50/51 Trafo Auxiliar/Micom P122
CA
t exp t min t max t act Eval
Fault Name
Error
Fault Current Value
[xIset] [ms]
[A] [% ]
[ms] [ms]
[ms]
1.115 Pass
400.0
300.0 377.6
350.0 7.9
1.427
1.254 Pass
400.0
300.0 381.8
350.0 9.1
1.605
1.410 Pass
400.0
300.0 376.9
350.0 7.7
1.805
CA
Fault Name
46. Test Result Details 16-dic-19
Rele 50/51 Trafo Auxiliar/Micom P122
ABC
t exp t min t max t act Eval
Fault Name
Error
Fault Current Value
[xIset] [ms]
[A] [% ]
[ms] [ms]
[ms]
1.115 Pass
400.0
300.0 375.7
350.0 7.3
1.427
1.254 Pass
400.0
300.0 374.5
350.0 7.0
1.605
1.443 Pass
400.0
300.0 373.5
350.0 6.7
1.847
ABC
Fault Name
47. F6Test Relay Test Report
Test Result Details 16-dic-19
Rele 50/51 Trafo Auxiliar/Micom P122
Rele 50/51 Trafo Auxiliar
Location Path
TestName TestType Ramp
Arranque 50N
Arranque 50NR
Pass
Evaluation
Antonio
I pickup = 0.1 A
Tested By
Tested Date
Test Definition Description
Test Definition Name
15/12/2019
Ramp Result
Expected
Test Objective Actual -tol [% ] +tol [% ] Error[% ] Eval
[A]
[A]
1.000 Pass
5.000
0.101
0.100
Arranque 50N_R' 5.000
TestName TestType Ramp
Arranque 50N
Arranque 50NS
Pass
Evaluation
Antonio
I pickup = 0.1 A
Tested By
Tested Date
Test Definition Description
Test Definition Name
15/12/2019
48. Test Result Details 16-dic-19
Rele 50/51 Trafo Auxiliar/Micom P122
Ramp Result
Expected
Test Objective Actual -tol [% ] +tol [% ] Error[% ] Eval
[A]
[A]
2.000 Pass
5.000
0.102
0.100
Arranque 50N_S' 5.000
TestName TestType Ramp
Arranque 50N
Arranque 50NT
Pass
Evaluation
Antonio
I pickup = 0.1 A
Tested By
Tested Date
Test Definition Description
Test Definition Name
15/12/2019
49. Test Result Details 16-dic-19
Rele 50/51 Trafo Auxiliar/Micom P122
Ramp Result
Expected
Test Objective Actual -tol [% ] +tol [% ] Error[% ] Eval
[A]
[A]
1.000 Pass
5.000
0.101
0.100
Arranque 50N_T' 5.000
50. F6Test Relay Test Report
Test Result Details 16-dic-19
Rele 50/51 Trafo Auxiliar/Micom P122
Rele 50/51 Trafo Auxiliar
Location Path
TestName TestType I-Char
Tiempo 50N
Tiempo 50N
Pass
Evaluation
Antonio
I pickup = 0.1 A
Curve = Definite Time
Dial = 1
Tested By
Tested Date
Test Definition Description
Test Definition Name
15/12/2019
Relay Functions
Function Type
50N Over Current
Function Name
Display values in Inherent Op Time ms
0
Secondary
General Tolerances
ms
20.0
Absolute MinimumTime
Absolute Minimum A
0.000
Fault
Type
Element
Type
Characteristic Name
A
PickupSetting Time
+%
-%
Current
Tolerance
+%
-%
Time Tolerance
x In
ARV Definite MinimumTime 0.100
I >
Ph-N 0.100 5.000 5.000 10.000 10.000
1.000
51. Test Result Details 16-dic-19
Rele 50/51 Trafo Auxiliar/Micom P122
AN
t exp t min t max t act Eval
Fault Name
Error
Fault Current Value
[xIset] [ms]
[A] [% ]
[ms] [ms]
[ms]
1.115 Pass
1100.0
900.0 1030.3
1000.0 3.0
0.112
1.254 Pass
1100.0
900.0 1028.6
1000.0 2.9
0.125
1.399 Pass
1100.0
900.0 1027.4
1000.0 2.7
0.140
AN
Fault Name
52. Test Result Details 16-dic-19
Rele 50/51 Trafo Auxiliar/Micom P122
BN
t exp t min t max t act Eval
Fault Name
Error
Fault Current Value
[xIset] [ms]
[A] [% ]
[ms] [ms]
[ms]
1.115 Pass
1100.0
900.0 1032.5
1000.0 3.3
0.112
1.254 Pass
1100.0
900.0 1030.9
1000.0 3.1
0.125
1.399 Pass
1100.0
900.0 1024.9
1000.0 2.5
0.140
BN
Fault Name
53. Test Result Details 16-dic-19
Rele 50/51 Trafo Auxiliar/Micom P122
CN
t exp t min t max t act Eval
Fault Name
Error
Fault Current Value
[xIset] [ms]
[A] [% ]
[ms] [ms]
[ms]
1.115 Pass
1100.0
900.0 1029.0
1000.0 2.9
0.112
1.254 Pass
1100.0
900.0 1025.9
1000.0 2.6
0.125
1.399 Pass
1100.0
900.0 1025.0
1000.0 2.5
0.140
CN
Fault Name
54. F6Test Relay Test Report
Test Result Details 16-dic-19
Rele 50/51 Trafo Auxiliar/Micom P122
Rele 50/51 Trafo Auxiliar
Location Path
TestName TestType SSIMUL
49
Tiempo 49_1
Pass
Evaluation
Antonio
I = 1 A
T = 38.69 seg
Tested By
Tested Date
Test Definition Description
Test Definition Name
15/12/2019
t Exp
[s]
t Act
[s]
+ tol - tol Eval
Measurement
Timer Name Start State Stop Signal t Err
[s]
[s] [s]
Pass
38.6900 38.7965 5.0000
5.0000 0.1065
1-State1Name LN1, 0->1
Timer
Oscillograph
TestName TestType SSIMUL
49
55. Test Result Details 16-dic-19
Rele 50/51 Trafo Auxiliar/Micom P122
Tiempo 49_2
Pass
Evaluation
Antonio
I = 2 A
T = 8.57 seg
Tested By
Tested Date
Test Definition Description
Test Definition Name
15/12/2019
t Exp
[s]
t Act
[s]
+ tol - tol Eval
Measurement
Timer Name Start State Stop Signal t Err
[s]
[s] [s]
Pass
8.5700 8.6026 2.0000
2.0000 0.0326
1-State1Name LN1, 0->1
Timer
Oscillograph
56. Página: 1
Informe de archivo de configuración
Subestación: RON
Archivo: RON_MicomP122 Trafo Auxiliar.set
Impreso en: 10/12/2019 18:42:43
Número del modelo: P122Axxxxxx V13
EXPLOTACION
010A: Referencia: AAAA
0005: Version logica: 13.B
0104: Frecuencia: 60Hz
0079: Database Access Error: P122A00Z222DB0
0081: Tipo: 36282837
CONFIGURACION
INDICACION
0109: Indicacion de Falta:RMS IL1 IL2 IL3 IN
0105: Indicacion Fase A: L1
0106: Indicacion Fase B: L2
0107: Indicacion Fase C: L3
0108: Indicacion Tierra: N
RELACION TC
0120: Fase Prim: 50
0121: Fase Sec: 1
0122: Tierra Prim: 50
0123: Tierra Sec:1
LED 5
0150: LED 5 Part.1:
I>
tI>
I>>
tI>>
I>>>
tI>>>
I0>
tI0>
I0>>
tI0>>
I0>>>
tI0>>>
Disp. Term.
tIinv>
Rot. Cond.
Fallo Inte.
0154: LED 5 Part.2: N.º
Entrada 1
Entrada 2
Entrada 3
tAux1
tAux2
tIinv>>
tAux3
tIA>=
tIB>=
tIC>=
0658: LED 5 part 3: N.º
tEcu A
tEcu B
tEcu C
tEcu D
tEcu E
tEcu F
tEcu G
tEcu H
I0>>>>
tI0>>>>
I<
tI<
067D: Database Access Error: 0000000000000000
LED 6
0151: LED 6 Part.1:
I>
tI>
I>>
tI>>
I>>>
MiCOM S1 Studio
57. Página: 2
Informe de archivo de configuración
Subestación: RON
Archivo: RON_MicomP122 Trafo Auxiliar.set
Impreso en: 10/12/2019 18:42:44
Número del modelo: P122Axxxxxx V13
tI>>>
I0>
tI0>
I0>>
tI0>>
I0>>>
tI0>>>
Disp. Term.
tIinv>
Rot. Cond.
Fallo. Inte.
0155: LED 6 Part.2: N.º
Entrada 1
Entrada 2
Entrada 3
tAux1
tAux2
tIinv>>
tAux3
tIA>=
tIB>=
tIC>=
0659: LED 6 part 3: N.º
tEcu A
tEcu B
tEcu C
tEcu D
tEcu E
tEcu F
tEcu G
tEcu H
I0>>>>
tI0>>>>
I<
tI<
067E: Database Access Error: 0000000000000000
LED 7
0152: LED 7 Part.1:
I>
tI>
I>>
tI>>
I>>>
tI>>>
I0>
tI0>
I0>>
tI0>>
I0>>>
tI0>>>
Disp. Term.
tIinv>
Rot. Cond.
Fallo Inte.
0156: LED 7 Part.2: N.º
Entrada 1
Entrada 2
Entrada 3
tAux1
tAux2
tIinv>>
tAux3
tIA>=
tIB>=
tIC>=
065A: LED 7 part 3: N.º
tEcu A
tEcu B
tEcu C
tEcu D
MiCOM S1 Studio
58. Página: 3
Informe de archivo de configuración
Subestación: RON
Archivo: RON_MicomP122 Trafo Auxiliar.set
Impreso en: 10/12/2019 18:42:44
Número del modelo: P122Axxxxxx V13
tEcu E
tEcu F
tEcu G
tEcu H
I0>>>>
tI0>>>>
I<
tI<
067F: Database Access Error: 0000000000000000
LED 8
0153: LED 8 Part.1:
I>
tI>
I>>
tI>>
I>>>
tI>>>
I0>
tI0>
I0>>
tI0>>
I0>>>
tI0>>>
Disp. Term.
tIinv>
Rot. Cond.
Fallo Inte.
0157: LED 8 Part.2: N.º
Entrada 1
Entrada 2
Entrada 3
tAux1
tAux2
tIinv>>
tAux3
tIA>=
tIB>=
tIC>=
065B: LED 8 part 3: N.º
tEcu A
tEcu B
tEcu C
tEcu D
tEcu E
tEcu F
tEcu G
tEcu H
I0>>>>
tI0>>>>
I<
tI<
0000: Database Access Error: 0101000000110001
ELECC. CONFIG.
0142: Camb.Grp de Conf. =: Menú
0140: Groupo de conf.: 1
ALARMAS
0141: Auto-Liberacion Arranq ?: No
0144: Pago desde LED si Defecto: No
0600: Inh. Alarm tAux:
t Aux 1
t Aux 2
t Aux 3
Ecuacion A
Ecuacion B
Ecuacion C
Ecuacion D
Ecuacion E
Ecuacion F
Ecuacion G
MiCOM S1 Studio
59. Página: 4
Informe de archivo de configuración
Subestación: RON
Archivo: RON_MicomP122 Trafo Auxiliar.set
Impreso en: 10/12/2019 18:42:44
Número del modelo: P122Axxxxxx V13
Ecuacion H
Ctrl Disparo
I<
CONFIG. ENTRADAS
010D: Recto / Alto nivel:
Entrada 1
Entrada 2
Entrada 3
010F: Tension de Entrada: Continua
SALIDAS
012E: Rele a seguridad activa: N.º
Salidas RL1
Salidas RL2
Salidas RL3
Salidas RL4
Salidas RL5
Salidas RL6
0402: MAND. SALIDAS: N.º
Salidas 1
Salidas 2
Salidas 3
Salidas 4
Salidas WD
Salidas 5
Salidas 6
PHASE ROTATION
012F: Phase Rotation: A_B_C
PROTECCION G1
[50/51] MAX I FASE
0200: Funcìon I>: Si
0201: I>: 1.28In
0202: Tipo Tempor: CST
0206: t I>: 0.35s
0209: tReset: 0.00s
0210: Funcìon I>>: No
0220: Funcìon I>>>: No
[50N/51N] MAX I TIERRA
0230: Funcìon Io>: Sì
0231: Io>: 0.10Ien
0232: Tipo Tempor: CST
0236: tIO>: 1.00s
0239: t Reset: 0.00s
0240: Funcìon Io>>: No
0250: Funcìon Io>>>: No
02A0: Conf Io>>>>: No
02B0: Database Access Error:
[46] MAX Iinv
025C: Funcìon Iinv>: No
0266: Funcìon Iinv>>: No
[49] SOBRECARGA TERMICA
0253: Sobrecarga Term. ?: Sì
0254: I Teta >: 0.50In
0259: Te: 30mn
0255: K:1.05
0256: Disparo: 100%
0257: Alarma ?: Sì
0258: Alarma: 90%
[37] MINIMA I
025A: Funcìon I<: No
PROTECCION G2
[50/51] MAX I FASE
0300: Funcìon I>: No
0310: Funcìon I>>: No
0320: Funcìon I>>>: No
[50N/51N] MAX I TIERRA
0330: Funcìon Io>: No
MiCOM S1 Studio
60. Página: 5
Informe de archivo de configuración
Subestación: RON
Archivo: RON_MicomP122 Trafo Auxiliar.set
Impreso en: 10/12/2019 18:42:45
Número del modelo: P122Axxxxxx V13
0340: Funcìon Io>>: No
0350: Funcìon Io>>>: No
03A0: Conf Io>>>>: No
03B0: Database Access Error:
[46] MAX Iinv
035C: Funcìon Iinv>: No
0366: Funcìon Iinv>>: No
[49] SOBRECARGA TERMICA
0353: Sobrecarga Term.: No
[37] MINIMA I
035A: Funcìon I<: No
AUTOMATISMOS
CONF DISP
0180: Disp:
tI>
tI>>
tI>>>
tI0>
tI0>>
tI0>>>
tI<
Termico
Rot. Cond.
tAux1
tAux2
tIi>
tIi>>
tAux3
Fallo Inte.
01FB: Disp.: N.º
tEcu A
tEcu B
tEcu C
tEcu D
tEcu E
tEcu F
tEcu G
tEcu H
tI0>>>>
CONF CIERR
0181: Cierr: N.º
tI>
tI>>
tI>>>
tI0>
tI0>>
tI0>>>
tI<
Termico
Rot. Cond.
tAux1
tAux2
tIi>
tIi>>
tAux3
Fallo Inte.
01FC: Cierr (2): N.º
tI0>>>>
BLOQUADO LOG.1
0182: Bloq 1: N.º
tI>
tI>>
tI>>>
tI0>
tI0>>
tI0>>>
Termico
Rot Cond.
tAux1
MiCOM S1 Studio
64. - Relé VAA/VAG - Transformador Autoalimentación G1
- Relé Stf - Transformador Autoalimentación G1
- Relé VAA/VAG - Transformador Autoalimentación G2
- Relé Stf - Transformador Autoalimentación G2
- Relé VAA/VAG - Transformador Autoalimentación G3
- Relé Stf - Transformador Autoalimentación G3
Aprobados
Aprobados con observacion
No Aprobados
Fecha: 30/11/19 Fecha: 30/11/19 Fecha: 30/11/19
Firma: Firma: Firma:
Nombre: J. Ramírez Nombre: J. Chavesta Nombre: Luis Rivas
Resultados de Prueba:
Cliente:
ELECTROPERU S.A.
Ubicación:
C.H. RESTITUCIÓN
Equipo Protegido:
Transformador Autoalimentación G1, G2 y G3
Fecha:
30 de Noviembre del 2019
EJECUTOR DE PRUEBA RESPONSABLE EDP ESTUDIOS SUPERVISIÓN ELECTROPERU
G1, G2 y G3
PROTOCOLO DE PRUEBA
PRUEBAS DE OPERATIVIDAD DE RELES DE PROTECCION
C.H. RESTITUCIÓN
SERVICIOS AUXILIARES
Transformador Autoalimentación
65. F6Test Relay Test Report
Test Result Details 16-dic-19
Minima Tension Lado Transf. G1/VAG/VAA
Minima Tension Lado Transf. G1
Location Path
Relay Under TestGeneral Parameters
A-B-C
Vn
In
2000.000%
VAG/VAA
1000.00%
1 : 1
CTR
Phase Names And Rotation
MaxTest Voltage
MaxTest Current
Model
A
V (Ph-Ph)
Hz
5.000
120.00
60.000
1 : 1
052670M
In
Vn
fn
ENGLISH ELECTRIC
VAG/VAA
VTR
Nominal Ratings:
Station Name
Manufacturer
Serial Number
Relay Name
ProtectedObject Parameters
Protected Object Name
Protected Object Parameters
TestName TestType Ramp
Arranque 27
Arranque 27
Pass
Evaluation
Antonio
V pickup = 80 V
Tested By
Tested Date
Test Definition Description
Test Definition Name
15/12/2019
TestConfiguration
Amplitude-Voltage-Stepped-Auto-Single -Ramp
Test Module
Values are Secondary
Amplitude Ph Ang[deg] Frequency(Hz)
Source Configuration
Source
Amplitude Ph Ang[deg]
Action
Prefault
VA 0.00 60.000
Action
0.00
100.00 V
VB 0.00 60.000
0.00 V
0.00
0.00 V
VC 0.00 60.000
0.00 V
0.00
0.00 V
66. Test Result Details 16-dic-19
Minima Tension Lado Transf. G1/VAG/VAA
Ramp Details
0.0000 s s
0.0000
Duration
Delay
Trigger LN1 0->1
s
2.0000
Prefault Duration
Offset Voltage
s
Offset Voltage Duration 0.0000
84.00 V
Delta Voltage V
-0.20
Delta Time s
0.1000
V
Voltage Limit 76.00
Ramp Result
Expected
Test Objective Actual -tol [% ] +tol [% ] Error[% ] Eval
[V]
[V]
-2.50 Pass
5.00
78.00
80.00
Arranque 27' 5.00
TestName TestType SSIMUL
Tiempo 27
Tiempo 27_1 V = 78 V
Pass
Evaluation
Antonio
T = 0.1 seg
Tested By
Tested Date
Test Definition Description
Test Definition Name
15/12/2019
TestConfiguration
State1Name
Name
1
State No
VA VB VC
67. Test Result Details 16-dic-19
Minima Tension Lado Transf. G1/VAG/VAA
State1Name
Name
1
State No
Amplitude 100.00 V 0.00 V 0.00 V
Ph Ang[deg] 0.00 0.00 0.00
Frequency (Hz) 60.000 60.000 60.000
s
State Duration 0.2500
State2Name
Name
2
State No
VA VB VC
Amplitude 78.00 V 0.00 V 0.00 V
Ph Ang[deg] 0.00 0.00 0.00
Frequency (Hz) 60.000 60.000 60.000
s
State Duration 1.0000
t Exp
[s]
t Act
[s]
+ tol - tol Eval
Measurement
Timer Name Start State Stop Signal t Err
[s]
[s] [s]
Pass
0.1000 0.1604 0.0750
0.0750 0.0604
2-State2Name LN1, 0->1
Timer
Oscillograph
TestName TestType SSIMUL
Tiempo 27
68. Test Result Details 16-dic-19
Minima Tension Lado Transf. G1/VAG/VAA
Tiempo 27_2 V = 76 V
Pass
Evaluation
Antonio
T = 0.1 seg
Tested By
Tested Date
Test Definition Description
Test Definition Name
15/12/2019
TestConfiguration
State1Name
Name
1
State No
VA VB VC
Amplitude 100.00 V 0.00 V 0.00 V
Ph Ang[deg] 0.00 0.00 0.00
Frequency (Hz) 60.000 60.000 60.000
s
State Duration 0.2500
State2Name
Name
2
State No
VA VB VC
Amplitude 76.00 V 0.00 V 0.00 V
Ph Ang[deg] 0.00 0.00 0.00
Frequency (Hz) 60.000 60.000 60.000
s
State Duration 1.0000
t Exp
[s]
t Act
[s]
+ tol - tol Eval
Measurement
Timer Name Start State Stop Signal t Err
[s]
[s] [s]
Pass
0.1000 0.1210 0.0750
0.0750 0.0210
2-State2Name LN1, 0->1
Timer
69. Test Result Details 16-dic-19
Minima Tension Lado Transf. G1/VAG/VAA
Oscillograph
70. F6Test Relay Test Report
SSimul Test Report 16-dic-19
Rele Termico Trafo G1/49T
Rele Termico Trafo G1
Location Path
49G
Pass
Evaluation
Antonio
I = 9 A Sec.
T = 350 s
Nota: Por pruebas se inyecto de manera que se obtenga como temperatura inicial 0° y se
modifico el ajuste del rele a 30°
Tested By
Tested Date
Test Definition Description
Test Definition Name
15/12/2019
Relay Under Test General Parameters
A-B-C
Vn
In
2000.000%
1000.00%
1 : 1
CTR
Phase Names And Rotation
Max Test Voltage
Max Test Current
Model
A
V (Ph-Ph)
Hz
5.000
120.00
60.000
1 : 1
5521736
In
Vn
fn
BROWNBOVERY
49T
VTR
Nominal Ratings:
Station Name
Manufacturer
Serial Number
Relay Name
Protected Object Parameters
Protected Object Name
Protected Object Parameters
Values are Secondary
Test Configuration
State1Name
Name
1
State No
IA IB IC
Amplitude 9.000 A 0.000 A 0.000 A
Ph Ang[deg] 0.00 0.00 0.00
Frequency (Hz) 60.000 60.000 60.000
s
State Duration 500.0000
t Exp
[s]
t Act
[s]
+ tol - tol Eval
Measurement
Timer Name Start State Stop Signal t Err
[s]
[s] [s]
Pass
350.0000 360.4578 80.0000
80.0000 10.457
8
1-State1Name LN1, 0->1
Timer
71. F6Test Relay Test Report
Test Result Details 06-Dic-19
Minima Tension Lado Transf. G2/VAG/VAA
Minima Tension Lado Transf. G2
Location Path
Relay Under Test General Parameters
A-B-C
Vn
In
2000.000%
VAA/VAG
1000.00%
1 : 1
CTR
Phase Names And Rotation
Max Test Voltage
Max Test Current
Model
A
V (Ph-Ph)
Hz
5.000
120.00
60.000
1 : 1
052668M
In
Vn
fn
ENGLISH ELECTRIC
VAG/VAA
VTR
Nominal Ratings:
Station Name
Manufacturer
Serial Number
Relay Name
Protected Object Parameters
Protected Object Name
Protected Object Parameters
Test Name Test Type Ramp
Arranque 27
Arranque 27
Pass
Evaluation
Antonio
V pickup = 80 V Sec.
Tested By
Tested Date
Test Definition Description
Test Definition Name
30/11/2019
Test Configuration
Amplitude-Voltage-Stepped-Auto-Single - Ramp
Test Module
Values are Secondary
Amplitude Ph Ang[deg] Frequency(Hz)
Source Configuration
Source
Amplitude Ph Ang[deg]
Action
Prefault
VA 0.00 60.000
Action
0.00
100.00 V
VB 0.00 60.000
0.00 V
0.00
0.00 V
VC 0.00 60.000
0.00 V
0.00
0.00 V
72. Test Result Details 06-Dic-19
Minima Tension Lado Transf. G2/VAG/VAA
Ramp Details
0.0000 s s
0.0000
Duration
Delay
Trigger LN1 0->1
s
2.0000
Prefault Duration
Offset Voltage
s
Offset Voltage Duration 0.0000
84.00 V
Delta Voltage V
-0.20
Delta Time s
0.1000
V
Voltage Limit 76.00
Ramp Result
Expected
Test Objective Actual -tol [%] +tol [%] Error[%] Eval
[V]
[V]
2.75 Pass
5.00
82.20
80.00
Arranque 27' 5.00
Test Name Test Type SSIMUL
Tiempo 27
Tiempo 27_1 V = 78 V
Pass
Evaluation
Antonio
T = 0.10 seg.
Tested By
Tested Date
Test Definition Description
Test Definition Name
30/11/2019
Test Configuration
State1Name
Name
1
State No
VA VB VC
Amplitude 100.00 V 0.00 V 0.00 V
Ph Ang[deg] 0.00 0.00 0.00
Frequency (Hz) 60.000 60.000 60.000
73. Test Result Details 06-Dic-19
Minima Tension Lado Transf. G2/VAG/VAA
s
State Duration 0.2500
State2Name
Name
2
State No
VA VB VC
Amplitude 78.00 V 0.00 V 0.00 V
Ph Ang[deg] 0.00 0.00 0.00
Frequency (Hz) 60.000 60.000 60.000
s
State Duration 1.0000
t Exp
[s]
t Act
[s]
+ tol - tol Eval
Measurement
Timer Name Start State Stop Signal t Err
[s]
[s] [s]
Pass
0.1000 0.0911 0.0500
0.0500 -0.0089
2-State2Name LN1, 0->1
Timer
Oscillograph
Test Name Test Type SSIMUL
Tiempo 27
Tiempo 27_2 V = 76 V
Pass
Evaluation
Antonio
T = 0.10 seg.
Tested By
Tested Date
Test Definition Description
Test Definition Name
30/11/2019
Test Configuration
State1Name
Name
1
State No
VA VB VC
Amplitude 100.00 V 0.00 V 0.00 V
74. Test Result Details 06-Dic-19
Minima Tension Lado Transf. G2/VAG/VAA
State1Name
Name
1
State No
Ph Ang[deg] 0.00 0.00 0.00
Frequency (Hz) 60.000 60.000 60.000
s
State Duration 0.2500
State2Name
Name
2
State No
VA VB VC
Amplitude 76.00 V 0.00 V 0.00 V
Ph Ang[deg] 0.00 0.00 0.00
Frequency (Hz) 60.000 60.000 60.000
s
State Duration 1.0000
t Exp
[s]
t Act
[s]
+ tol - tol Eval
Measurement
Timer Name Start State Stop Signal t Err
[s]
[s] [s]
Pass
0.1000 0.0791 0.0500
0.0500 -0.0209
2-State2Name LN1, 0->1
Timer
Oscillograph
Test Name Test Type SSIMUL
Tiempo 27
Tiempo 27_3 V = 74 V
Pass
Evaluation
Antonio
T = 0.10 seg.
Tested By
Tested Date
Test Definition Description
Test Definition Name
30/11/2019
Test Configuration
75. Test Result Details 06-Dic-19
Minima Tension Lado Transf. G2/VAG/VAA
State1Name
Name
1
State No
VA VB VC
Amplitude 100.00 V 0.00 V 0.00 V
Ph Ang[deg] 0.00 0.00 0.00
Frequency (Hz) 60.000 60.000 60.000
s
State Duration 0.2500
State2Name
Name
2
State No
VA VB VC
Amplitude 74.00 V 0.00 V 0.00 V
Ph Ang[deg] 0.00 0.00 0.00
Frequency (Hz) 60.000 60.000 60.000
s
State Duration 1.0000
t Exp
[s]
t Act
[s]
+ tol - tol Eval
Measurement
Timer Name Start State Stop Signal t Err
[s]
[s] [s]
Pass
0.1000 0.0701 0.0500
0.0500 -0.0299
2-State2Name LN1, 0->1
Timer
Oscillograph
76. F6Test Relay Test Report
SSimul Test Report 06-Dic-19
Rele Termico Trafo G2/Rele Termico Trafo G2
Rele Termico Trafo G2
Location Path
Termico G2
Pass
Evaluation
Antonio
I = 9 A Sec.
T = 350 s
Nota: Por pruebas se inyecto de manera que se obtenga como temperatura inicial 0° y se
modifico el ajuste del rele a 30°
Tested By
Tested Date
Test Definition Description
Test Definition Name
30/11/2019
Relay Under Test General Parameters
A-B-C
Vn
In
2000.000%
STF
1000.00%
1 : 1
CTR
Phase Names And Rotation
Max Test Voltage
Max Test Current
Model
A
V (Ph-Ph)
Hz
5.000
120.00
50.000
1 : 1
5521761
In
Vn
fn
BBC
Rele Termico Trafo G2
VTR
Nominal Ratings:
Station Name
Manufacturer
Serial Number
Relay Name
Protected Object Parameters
Protected Object Name
Protected Object Parameters
Values are Secondary
Test Configuration
State1Name
Name
1
State No
IA
Amplitude 9.000 A
Ph Ang[deg] 0.00
Frequency (Hz) 60.000
s
State Duration 500.0000
LN1 0->1
Trigger Condition
Trigger
t Exp
[s]
t Act
[s]
+ tol - tol Eval
Measurement
Timer Name Start State Stop Signal t Err
[s]
[s] [s]
Pass
350.0000 380.5463 80.0000
80.0000
1-State1Name LN1, 0->1
Timer 30.55
77. F6Test Relay Test Report
Test Result Details 03-Dic-19
Minima Tension Lado Transf. G3/VAG/VAA
Minima Tension Lado Transf. G3
Location Path
Relay Under Test General Parameters
A-B-C
Vn
In
2000.000%
VAA/VAG
1000.00%
1 : 1
CTR
Phase Names And Rotation
Max Test Voltage
Max Test Current
Model
A
V (Ph-Ph)
Hz
5.000
120.00
60.000
1 : 1
052667M
In
Vn
fn
ENGLISH ELECTRIC
VAG/VAA
VTR
Nominal Ratings:
Station Name
Manufacturer
Serial Number
Relay Name
Protected Object Parameters
Protected Object Name
Protected Object Parameters
Test Name Test Type Ramp
Arranque 27
Arranque 27
Pass
Evaluation
Antonio
V pickup = 80 V Sec.
Tested By
Tested Date
Test Definition Description
Test Definition Name
24/11/2019
Test Configuration
Amplitude-Voltage-Stepped-Auto-Single - Ramp
Test Module
Values are Secondary
Amplitude Ph Ang[deg] Frequency(Hz)
Source Configuration
Source
Amplitude Ph Ang[deg]
Action
Prefault
VA 0.00 60.000
Action
0.00
100.00 V
VB 0.00 60.000
0.00 V
0.00
0.00 V
VC 0.00 60.000
0.00 V
0.00
0.00 V
78. Test Result Details 03-Dic-19
Minima Tension Lado Transf. G3/VAG/VAA
Ramp Details
0.0000 s s
0.0000
Duration
Delay
Trigger LN1 0->1
s
2.0000
Prefault Duration
Offset Voltage
s
Offset Voltage Duration 0.0000
84.00 V
Delta Voltage V
-0.20
Delta Time s
0.1000
V
Voltage Limit 76.00
Ramp Result
Expected
Test Objective Actual -tol [%] +tol [%] Error[%] Eval
[V]
[V]
0.75 Pass
5.00
80.60
80.00
Arranque 27' 5.00
Test Name Test Type SSIMUL
Tiempo 27
Tiempo 27_1 V = 78 V
Pass
Evaluation
Antonio
T = 0.10 seg
Tested By
Tested Date
Test Definition Description
Test Definition Name
24/11/2019
Test Configuration
State1Name
Name
1
State No
VA VB VC
Amplitude 100.00 V 0.00 V 0.00 V
Ph Ang[deg] 0.00 0.00 0.00
Frequency (Hz) 60.000 60.000 60.000
79. Test Result Details 03-Dic-19
Minima Tension Lado Transf. G3/VAG/VAA
s
State Duration 0.2500
State2Name
Name
2
State No
VA VB VC
Amplitude 78.00 V 0.00 V 0.00 V
Ph Ang[deg] 0.00 0.00 0.00
Frequency (Hz) 60.000 60.000 60.000
s
State Duration 1.0000
t Exp
[s]
t Act
[s]
+ tol - tol Eval
Measurement
Timer Name Start State Stop Signal t Err
[s]
[s] [s]
Pass
0.1000 0.1281 0.0500
0.0500 0.0281
2-State2Name LN1, 0->1
Timer
Oscillograph
Test Name Test Type SSIMUL
Tiempo 27
Tiempo 27_2 V = 76 V
Pass
Evaluation
Antonio
T = 0.10 seg
Tested By
Tested Date
Test Definition Description
Test Definition Name
24/11/2019
Test Configuration
State1Name
Name
1
State No
VA VB VC
Amplitude 100.00 V 0.00 V 0.00 V
80. Test Result Details 03-Dic-19
Minima Tension Lado Transf. G3/VAG/VAA
State1Name
Name
1
State No
Ph Ang[deg] 0.00 0.00 0.00
Frequency (Hz) 60.000 60.000 60.000
s
State Duration 0.2500
State2Name
Name
2
State No
VA VB VC
Amplitude 76.00 V 0.00 V 0.00 V
Ph Ang[deg] 0.00 0.00 0.00
Frequency (Hz) 60.000 60.000 60.000
s
State Duration 1.0000
t Exp
[s]
t Act
[s]
+ tol - tol Eval
Measurement
Timer Name Start State Stop Signal t Err
[s]
[s] [s]
Pass
0.1000 0.1111 0.0500
0.0500 0.0111
2-State2Name LN1, 0->1
Timer
Oscillograph
Test Name Test Type SSIMUL
Tiempo 27
Tiempo 27_3 V = 74 V
Pass
Evaluation
Antonio
T = 0.10 seg
Tested By
Tested Date
Test Definition Description
Test Definition Name
24/11/2019
Test Configuration
81. Test Result Details 03-Dic-19
Minima Tension Lado Transf. G3/VAG/VAA
State1Name
Name
1
State No
VA VB VC
Amplitude 100.00 V 0.00 V 0.00 V
Ph Ang[deg] 0.00 0.00 0.00
Frequency (Hz) 60.000 60.000 60.000
s
State Duration 0.2500
State2Name
Name
2
State No
VA VB VC
Amplitude 74.00 V 0.00 V 0.00 V
Ph Ang[deg] 0.00 0.00 0.00
Frequency (Hz) 60.000 60.000 60.000
s
State Duration 1.0000
t Exp
[s]
t Act
[s]
+ tol - tol Eval
Measurement
Timer Name Start State Stop Signal t Err
[s]
[s] [s]
Pass
0.1000 0.0930 0.0500
0.0500 -0.0070
2-State2Name LN1, 0->1
Timer
Oscillograph
82. F6Test Relay Test Report
SSimul Test Report 06-Dic-19
Rele Termico Trafo G3/Rele Termico Trafo G3
Rele Termico Trafo G3
Location Path
Termico G3
Pass
Evaluation
Antonio
I = 9 A Sec.
T = 350 s
Nota: Por pruebas se inyecto de manera que se obtenga como temperatura inicial 0° y se
modifico el ajuste del rele a 30°
Tested By
Tested Date
Test Definition Description
Test Definition Name
24/11/2019
Relay Under Test General Parameters
A-B-C
Vn
In
2000.000%
STF
1000.00%
1 : 1
CTR
Phase Names And Rotation
Max Test Voltage
Max Test Current
Model
A
V (Ph-Ph)
Hz
5.000
120.00
50.000
1 : 1
5521747
In
Vn
fn
BBC
Rele Termico Trafo G3
VTR
Nominal Ratings:
Station Name
Manufacturer
Serial Number
Relay Name
Protected Object Parameters
Protected Object Name
Protected Object Parameters
Values are Secondary
Test Configuration
State1Name
Name
1
State No
IA
Amplitude 9.000 A
Ph Ang[deg] 0.00
Frequency (Hz) 60.000
s
State Duration 500.0000
LN1 0->1
Trigger Condition
Trigger
t Exp
[s]
t Act
[s]
+ tol - tol Eval
Measurement
Timer Name Start State Stop Signal t Err
[s]
[s] [s]
Pass
350.0000 273.5408 80.0000
80.0000 -76.459
2
1-State1Name LN1, 0->1
Timer