![ESP Sharing & Activities](/img/default-banner.jpg)
- 83
- 43 248
ESP Sharing & Activities
Registrace 26. 12. 2012
Sharing Knowledge Around Electric Submersible Pump (ESP), Artificial Lift, Oil Gas, and Activities
ESP Sharing History,2024-07
ESP Sharing History,2024-07
1.ESP Pump Flushing
2.DIFA Severe Scratches on the Rotor
3.Star Vs Delta Transformer Step Up
4.Pump Performance,P21,P22,P23
5.ESP Temperature Calculation at Discharge Head
6.Vector +,X150,RS-485,The Reading was Wrong
7.ESP Basic Training
8.ESP DIFA Novomet
9.ESP Max Deflection,Dogleg
10.Rule of Tumb for Cooling Housing Motor
11.Normal Vibration Acceleration ESP
12.ESP Selection Webinar
13.Triol ESP Webinar,LESP EP02
14.Formulas Runlife MTBF
15.Pump Affinity Law
1.ESP Pump Flushing
2.DIFA Severe Scratches on the Rotor
3.Star Vs Delta Transformer Step Up
4.Pump Performance,P21,P22,P23
5.ESP Temperature Calculation at Discharge Head
6.Vector +,X150,RS-485,The Reading was Wrong
7.ESP Basic Training
8.ESP DIFA Novomet
9.ESP Max Deflection,Dogleg
10.Rule of Tumb for Cooling Housing Motor
11.Normal Vibration Acceleration ESP
12.ESP Selection Webinar
13.Triol ESP Webinar,LESP EP02
14.Formulas Runlife MTBF
15.Pump Affinity Law
zhlédnutí: 89
Video
ESP Sharing History, 2024 June
zhlédnutí 86Před 2 měsíci
ESP Sharing History,2024 June 1.ESP Switchboard SWB Manual,WMC05 2.Turbine Trip Alarm 3.Bypass Back Spin alarm 4.ESP Removing Screen Intake,Advantage and Disadvantage. 5.ESP Recomended Torque Value.by Summit 6.ESP RIH,Max Dogleg Deviation DLS 7.ESP MTBF 8.ESP CFER PC Pump Manual.
ESP Sharing History, 2024 May
zhlédnutí 68Před 3 měsíci
ESP Sharing History, 2024 May 1. H2S leakage at Surface 2. ESP Increase Temperature 3. Triol UMKA04, alarm ST TR Input Volt 4. Mark on the coupling 5. Axiom 2, undervoltage Alarm 6. PIOPETRO Free Summer Training 7. Sensor Lost Reading 8. VSD, AC to DC to AC 9. PWM 10. Commander 2, WMCO5 Manual
ESP Sharing History,2024 April
zhlédnutí 82Před 3 měsíci
ESP Sharing History, 2024 April 1.FIN Max Trip in UMKA-03 2.Manual SLB Star View 3.Does Motor Oil Expires? 4.SLB Acquare ChampionX 5.Pictures Namplate 6.Mudbus Map Register,Unico and Uniconn Vsd 7.Triol AK06 UMKA07 VSD View Necessary. 8.Turnado Curve 9.Reliability Pump Operating Temperature 10.VncSvrWG.exe issue GE Appollo Controller.firmware 11.Multiphase Flow Meter 12.Downgrade the Firmware B...
ESP Sharing History,2024 March
zhlédnutí 78Před 4 měsíci
ESP Sharing History, 2024 March 1.Triol VFD Manual 2.Capacitor Type,VSD 4500-4-ADV-12P-LCPWM 3.VSD Unico,Tripped, Gate Drive DSAT. 4.How Fast RIH ESP 5.Recommended Distance Between Packer and ESP Assy. 6.EMF, Electromotive Force. 7.Defference Maximus ESP and Conventional ESP 8.Collapsed Difusers 9.Safety Imtegrity Level,SIL 10.Min and Max BEP Pump,E3000,FlexerHV,XPS3000C,XPS4300C,P60AXL. 11.Cha...
Marhaban Yaa Ramadhan ESP Downhole Equipment Onsite
zhlédnutí 143Před 5 měsíci
InsyaALLAH tonight Ramadhan Will Come Ramdhan, ESP Downhole Equipment onsite before ESP Installion
ESP Sharing History, 2024 Feb
zhlédnutí 58Před 6 měsíci
ESP Sharing History,2024 Feb 1.Cable Splicimg Rules,Finger KPC 2.CT 9.5 - 10.5 mA in Zenith Sensor 3.New BH Tool Boasts Safety of PMM 4.Housing Motor leak 5.Underload Alarm with Packer in Well 6.ESP Dual Zone 7.Estimate Run Life 8.Zenith Intermittence when freq below 35 Hz 9.Reynolds Lift Motor OD 3.99” with 500 HP 10.ESP Life Cycle 11.BP ESP Troubleshooting 12.Triol Group Chat 13.ESP Brake Hor...
ESP Sharing History, 2024 Jan
zhlédnutí 112Před 6 měsíci
ESP Sharing History, 2024 Jan 1.Calculation Completion 2.Calculation Fluid Gradient 3.GFI Sensor Cannot take Reading 4.Quantex gauges TS 5.Triol Inverter VSD back fans Problem 6.Calculation Fluid Level 7.Output Current Unbalance 8.VSD SWD S7 SLB Toshiba, Overcurrent Constant Speed 9.Fatality Incident in one PMM 2019 or 2020 10.VSD Subcoe, Tripped MCCB alarm 11.Sensor Failure Root Cause 12.ESP R...
STOP GENOCIDE, FREE THE TRUTH, FREE PALESTINE…ESP Sharing History, 2023 Dec
zhlédnutí 31Před 7 měsíci
STOP GENOCIDE, FREE THE TRUTH, FREE PALESTINE…ESP Sharing History, 2023 Dec
ESP Design,Part 4,Total Dynamic Head (TDH)
zhlédnutí 518Před rokem
ESP Design,Part 4,Total Dynamic Head (TDH)
History ESP Sharing Discussion 2023 January
zhlédnutí 161Před rokem
History ESP Sharing Discussion 2023 January
في اي حقل هذا البنئر
God jon
I want to ask you quation if the fault phase a neg iot repeated every time we need to increase the target hertz how we can solve this problem
Meaning_of the IOT Fault "IOT does not indicate a failure; it indicates a condition of the system. The IOT circuit monitors each power semiconductor in the inverter and watches for improper operation. It is important to understand the actual function of the IOT circuit is to protect the VSD and make troubleshooting simpler. Basically, the assumption is that for normal operation, when the IGBT is supposed to be on, it will look like a switch, or have a very low voltage drop. If, on the other hand, the device is asked to handle more current than it is capable of, the voltage drop across it will rise dramatically. The IOT circuit, therefore monitors the voltage across each IGBT. When that voltage exceeds a predetermined threshold (approximately 8 V), the IOT circuit turns the device off within 1uS and sends an inhibit signal to all other IGBT gate signals as well as a stop command to the microprocessor. Because of this, within about 10-15uS of detecting a problem on one power device, the entire drive will be shut down. Note that the IOT circuit does not tell you that there has been an over current (although that will be the most common reason for an IOT) or that the device is bad. simply tells you that there has been too much voltage drop across the device during operation Causes of the IOT Fault There are four possible sources of an IOT condition. Incoming Transient/Power Faults Converter Hardware Faults Inverter Hardware Faults Load Faults Incoming Transient/Power Faults A transient disturbance on the power system can cause the DC bus voltage to increase rapidly. Since the VSD output frequency must follow the voltage, this means that if the DC bus voltage increases, there will be extra current on the output as the drive tries to accelerate the motor. The sudden increase of output current can result in an IOT condition. trospeed Advantage Variable Speed Drive Troubleshooting Manual Converter Hardware Faults Abrupt changes to the DC bus voltage will cause changes to VSD output frequency and output current which in turn can cause an IOT condition. Inverter Hardware Faults The VSD output current, voltage, and frequency are dependent on proper operation and switching of the output IGBTs. Any interruption to the switching of IGBTs will result in Incorrect operation which will most likely create an IOT condition. Load Faults Load faults are usually due to a sudden arc of electricity to earth-ground. Examples of load faults would be if one phase of the motor or cable experienced insulation failure which provides a low-resistance path to ground . Typically this will cause increased current through one VSD output phase and may result in an IOT condition. Measure With the possible sources of the I0T condition defined above, this section will provide a method of identifying which of the above sources IS most likely to be the cause of the I0T Please note that the process below identifies as many of the relevant steps in the source identification as possible. When Field Service assumptions can be made why a step was either skipped or combined with other steps, it is a best practice to include that reasoning in the field Service report. The flow chart in figure 1 and 2 provides the general steps in defining which direction the investigation should take in assessing each of the four sources of IOT condition as the root cause.
Meaning_of the IOT Fault "IOT does not indicate a failure; it indicates a condition of the system. The IOT circuit monitors each power semiconductor in the inverter and watches for improper operation. It is important to understand the actual function of the IOT circuit is to protect the VSD and make troubleshooting simpler. Basically, the assumption is that for normal operation, when the IGBT is supposed to be on, it will look like a switch, or have a very low voltage drop. If, on the other hand, the device is asked to handle more current than it is capable of, the voltage drop across it will rise dramatically. The IOT circuit, therefore monitors the voltage across each IGBT. When that voltage exceeds a predetermined threshold (approximately 8 V), the IOT circuit turns the device off within 1uS and sends an inhibit signal to all other IGBT gate signals as well as a stop command to the microprocessor. Because of this, within about 10-15uS of detecting a problem on one power device, the entire drive will be shut down. Note that the IOT circuit does not tell you that there has been an over current (although that will be the most common reason for an IOT) or that the device is bad. simply tells you that there has been too much voltage drop across the device during operation Causes of the IOT Fault There are four possible sources of an IOT condition. Incoming Transient/Power Faults Converter Hardware Faults Inverter Hardware Faults Load Faults Incoming Transient/Power Faults A transient disturbance on the power system can cause the DC bus voltage to increase rapidly. Since the VSD output frequency must follow the voltage, this means that if the DC bus voltage increases, there will be extra current on the output as the drive tries to accelerate the motor. The sudden increase of output current can result in an IOT condition. trospeed Advantage Variable Speed Drive Troubleshooting Manual Converter Hardware Faults Abrupt changes to the DC bus voltage will cause changes to VSD output frequency and output current which in turn can cause an IOT condition. Inverter Hardware Faults The VSD output current, voltage, and frequency are dependent on proper operation and switching of the output IGBTs. Any interruption to the switching of IGBTs will result in Incorrect operation which will most likely create an IOT condition. Load Faults Load faults are usually due to a sudden arc of electricity to earth-ground. Examples of load faults would be if one phase of the motor or cable experienced insulation failure which provides a low-resistance path to ground . Typically this will cause increased current through one VSD output phase and may result in an IOT condition. Measure With the possible sources of the I0T condition defined above, this section will provide a method of identifying which of the above sources IS most likely to be the cause of the I0T Please note that the process below identifies as many of the relevant steps in the source identification as possible. When Field Service assumptions can be made why a step was either skipped or combined with other steps, it is a best practice to include that reasoning in the field Service report. The flow chart in figure 1 and 2 provides the general steps in defining which direction the investigation should take in assessing each of the four sources of IOT condition as the root cause.
Hi dear The link it’s not work plz I need it
You're running a zenith download tool nice
شكرا محمد يونس حبيبي
mahmood mae Ahmed Heard
Hello brother can i get any documents about OGM and welding & Testing oil pipeline procedures
0/10 to this presentation!
I would like to join your ESP Sharing channel in WhatsApp
Hello dear could you please share with me files that help me with VSD alarms 🚨
chat.whatsapp.com/H8U0RheF0HvFMZoSARa998 Please Join in ESP Sharing
Promo sm 💕
Thanks
Gents, appreciate if you will share documents or videos for ESP Parameters daily monitoring activities.
Shukran habibi
Thank you for the video. The sound is not clear though especially in the last minutes while explaining the valves
Thank you..
good presentation , thanks a lot .
I think you need to know what choke size given first. What purpose for flushing the choke?
Thank you
Bikin Tutorial lengkap instal ESPnya dong pak, pake bahasa indonesia
Good job