Advanced partial discharge testing equipment by KPM for precise detection, insulation analysis, and condition monitoring of electrical assets. ÇEVRİMİÇİ PD & TOPRAK İZLEME KPM PENTA PD (HAND HELD) View more Partial Discharge Detector Penta-PD is an ideal partner for condition-based maintenance programs. Partial Discharge Detector Penta-PD incorporates all 5 types of online PD sensor technology. Information from multiple sensors gives Partial Discharge Detector Penta-PD the versatility to detect various type PD in variety of substation apparatus. KPM PDM-01,Partial Discharge Monitor View more The KPM PDM-01 partial discharge detector stands out as a versatile digital tool within KPM's product range. Featuring a 10.1-inch touch screen, it replaces the traditional oscilloscope tube and physical knob operation, enhancing user convenience. The instrument employs a full touch screen interface, contributing to extended product longevity and incorporates useful features such as automatic correction, high voltage divider ratio settings, and serial communication for uploading test data. KPM PDTI Cable Termination Monitor View more The KPM PDTI system is deployed on primary switching equipment such as ring network switch cabinets, cable termination boxes, and transformer output cables etc. within the power distribution network. Its primary function is to conduct online monitoring of partial discharge, indicating potential short circuits and ground faults in corresponding cable sections, along with real-time temperature monitoring. KPM Corona Pointer View more KPM Corona Pointer is an ideal equipment for condition-based maintenance programs. Online partial discharge testing is a method of inspecting the insulation of electric power systems while equipment remains energized and in service. Corona Pointer is based on online Ultrasonic PD sensor technology. KPM Duo PD - Handheld PD monitoring system View more KPM Duo PD is a handheld partial discharge tester which uses the ultrasonic signal generated by partial discharge to determine the existence and location of partial discharge and combines the real-time displayed images and data to quickly diagnose partial discharge conditions. KPM PDA-01, Partial Discharge Monitor View more The KPM PDA-01 features a split, modular design, with the local discharge signal conditioning module, digital acquisition module, and test voltage acquisition module integrated into the instrument. The powerful local discharge test and analysis system software is installed on the host computer, which connects to the instrument via USB and RS232 serial ports. KPM PD Pulse-8, Online Partial Discharge Monitor View more KPM PD Pulse-8 partial discharge online monitoring device includes a modularly designed partial discharge sensor and a partial discharge data processing terminal. The partial discharge sensor can effectively monitor ultrasonic and transient earth voltage signals. Its sensors are a two-in-one integrated assembly that can be installed on the HV equipment. Sık Sorulan Sorular ( SSS ) FAQ about Partial discharge : 01 What are the Top 5 PD Testing Techniques – A Quick Comparison? 1) Ultrasonic PD Detection - Detects sound waves from PD events - Portable, good for on-site inspections - Limited sensitivity in noisy environments 2) High-Frequency Current Transformer (HFCT) - Measures high-frequency currents on cables - Effective for early PD detection - Requires access to grounding points 3) Transient Earth Voltage (TEV) - Detects electromagnetic signals from PD inside metal enclosures - Non-intrusive and widely used in switchgear - Limited for external PD sources 4) Oscilloscopic PD Measurement - Directly captures PD pulses using specialized sensors - Very detailed and accurate - Requires expert analysis and controlled environment 5) Acoustic Emission (AE) Sensors - Captures elastic waves from PD activity - Useful for localizing PD sources - Can be affected by external noise - KPM offers advanced PD measurement systems combining multiple techniques for comprehensive, reliable diagnostics. 02 What do you understanding AE, HFCT, TEV, and UHF – Which PD Kit Do You Need? Choosing the right Partial Discharge (PD) testing kit depends on your equipment type, accessibility, and testing goals. Here’s a quick comparison: 1. AE – Acoustic Emission How it works: Detects sound waves from PD using piezoelectric sensors. Best for: Transformers, bushings, and GIS (localizing PD points). Pros: Non-invasive, good for pinpointing PD. Limitations: Sensitive to external noise. 2. HFCT – High-Frequency Current Transformer How it works: Clamped around the grounding conductor to detect PD pulses. Best for: Cables, terminations, rotating machines. Pros: Early detection, non-intrusive. Limitations: Needs grounding access; less effective in noisy ground systems. 3. TEV – Transient Earth Voltage How it works: Senses electromagnetic emissions on metal-clad switchgear. Best for: MV switchgear (metal-enclosed). Pros: Easy to use, fast screening. Limitations: Doesn’t work well on non-metallic enclosures. 4. UHF – Ultra High Frequency How it works: Captures high-frequency EM waves from PD (300 MHz+). Best for: GIS, gas-insulated transformers, sealed systems. Pros: Very sensitive and noise-immune. Limitations: Needs access to UHF sensors or couplers. Which Kit Do You Need? For switchgear: TEV + AE For cables and rotating machines: HFCT For GIS or sealed systems: UHF + AE For transformers and bushings: AE + HFCT KPM offers hybrid PD testing kits combining AE, TEV, HFCT, and UHF sensors for complete diagnostics across all asset types—helping you localize, classify, and trend PD activity efficiently. 03 What is principle of detecting PD in Switchgear Using TEV Method ? The Transient Earth Voltage (TEV) method detects partial discharge activity in metal-clad switchgear by capturing fast, high-frequency voltage transients that appear on the internal metal surfaces of the switchgear enclosure. How It Works: When partial discharge occurs inside the insulation of live parts (e.g., busbars, bushings), it emits electromagnetic pulses. These pulses induce high-frequency voltage transients on the inner surface of the switchgear's metal enclosure. These transients propagate through the metal, eventually reaching the outer surface. A TEV sensor, placed magnetically or capacitively on the metal surface, detects these transient voltages—typically in the range of MHz frequencies. Why It Works Well for Switchgear: Switchgear panels are metal-enclosed, which acts as a waveguide for the transient signals. TEV signals indicate internal insulation defects like surface tracking, void discharges, or corona inside the equipment. TEV detection is non-invasive, requires no shutdown, and is widely used for condition-based maintenance. What TEV Tells You: Presence of internal PD Severity of the discharge (by amplitude and repetition rate) Useful for early detection before insulation failure KPM’s PD testing kits integrate TEV sensors with digital displays and trending software, making it easy to perform on-site diagnostics of medium-voltage switchgear for early PD detection and risk assessment. 04 What are the Diagnosing Cable Defects With HFCT-Based PD Testing ? High-Frequency Current Transformer (HFCT) sensors are widely used for detecting and diagnosing partial discharge (PD) activity in power cables. They are clamped around the earth (ground) conductor to sense high-frequency current pulses generated by insulation defects. How HFCT PD Testing Works: PD Activity Inside Cable Insulation: Voids, cracks, or deteriorated insulation cause small electrical discharges. Pulse Propagation: These discharges generate high-frequency current pulses (MHz range) that flow along the grounding system. HFCT Sensor Detection: The HFCT sensor detects these pulses non-invasively by clamping it around the cable’s earth conductor without disconnecting the system. Signal Analysis: The captured pulses are analyzed for: Pulse shape and repetition rate Time-of-flight (for PD location) Amplitude and phase-resolved patterns (PRPD) What It Diagnoses: Defects in cable joints, terminations, insulation Water trees or aging in XLPE cables Internal corona or tracking activity Advantages of HFCT PD Testing: Online or offline testing possible Non-intrusive and safe Early detection prevents costly cable failures Can be used with multiple sensors for PD location (triangulation) KPM’s HFCT-based PD testing solutions are designed for rapid setup, high sensitivity, and advanced diagnostics—enabling utilities and industries to monitor cable health with confidence. 05 What is UHF PD Testing in GIS – High Sensitivity Explained? Ultra High Frequency (UHF) PD testing in Gas-Insulated Switchgear (GIS) is a highly sensitive method that detects partial discharge by capturing electromagnetic signals in the 300 MHz to 1.5 GHz range. GIS enclosures, being metallic and sealed, confine PD signals and create a low-noise environment—making UHF detection extremely effective. UHF sensors, typically built into or attached to the GIS via couplers or antennae, pick up these fast transients without interfering with system operation. This method offers excellent immunity to external noise and allows early detection of insulation defects such as voids, surface discharges, or corona, enabling preventive maintenance and reducing outage risk. KPM’s UHF PD solutions are optimized for GIS testing, offering precise, real-time diagnostics with minimal intrusion. 06 How PD Can Cause Catastrophic Failures If Left Undetected ? Partial Discharge (PD) is a small electrical spark that occurs within insulation systems due to defects like voids, cracks, or contamination. While each discharge releases only a small amount of energy, repeated activity degrades insulation over time, leading to progressive damage. If left undetected, PD can cause tracking, erosion, thermal breakdown, and eventually a complete insulation failure. This can result in catastrophic equipment breakdowns, fires, arc flash events, or prolonged outages. Early PD detection helps identify developing faults before they escalate, allowing timely intervention. KPM’s PD monitoring solutions provide accurate diagnostics to prevent such costly and dangerous failures. 07 How Often Should You Perform Partial Discharge Tests? The frequency of Partial Discharge (PD) testing depends on equipment type, criticality, age, and operating environment: New Installations: Test during commissioning to detect manufacturing or installation defects. Routine Maintenance: For critical assets (e.g., GIS, transformers, cables): annually or semi-annually For less critical systems: every 2–3 years Condition-Based Monitoring: For aging or high-risk equipment, use continuous or periodic online PD monitoring. After Major Events: Test after faults, repairs, or overloading. KPM offers both portable and continuous PD monitoring solutions tailored to asset condition and reliability goals. 08 What is Acoustic Emission for PD Detection – Emerging Trends? Acoustic Emission (AE) is an emerging technique in Partial Discharge (PD) detection, leveraging sound waves generated by PD activity within high-voltage equipment. AE sensors capture ultrasonic emissions, allowing non-intrusive, real-time monitoring of insulation health. Recent trends include the integration of AI algorithms for noise discrimination, wireless AE sensor networks for wide-area monitoring, and hybrid systems combining AE with UHF or HFCT methods for higher accuracy. KPM’s PD monitoring device incorporates these advancements by using sensitive AE sensors to detect PD in transformers, switchgear, and cable terminations. The system filters external noise and correlates AE signals with discharge activity, ensuring precise fault localization. Its compact design, cloud integration, and user-friendly interface make it suitable for continuous condition monitoring. This enables utilities to predict insulation failure early, plan timely maintenance, and improve grid reliability while aligning with modern digital substation standards. 09 What to Watch Out For while working on PD Testing in Motors and Generators ? Partial Discharge (PD) testing in motors and generators is critical for identifying early insulation deterioration, especially in high-voltage rotating machines. Key factors to watch out for include surface discharge near end windings, slot discharges, and internal PD caused by insulation voids. External noise interference, poor sensor placement, and incorrect test settings can lead to false readings or missed defects. It’s essential to differentiate between actual PD signals and electrical noise, especially in operational (online) testing. KPM’s PD tester addresses these challenges with high-frequency current transformer (HFCT) sensors, advanced noise separation algorithms. The device enables clear PD signal capture even in electrically noisy environments. It provides real-time analysis, waveform capture, and trend data, helping maintenance teams make informed decisions. KPM’s compact, rugged design and intuitive interface make it ideal for field diagnostics in motors and generators across power plants and industrial sites. 10 How to Interpret PD Signals? Interpreting Partial Discharge (PD) signals is crucial for diagnosing insulation issues accurately. Real-world case studies reveal that many failures arise not from PD presence, but from misinterpretation. In one case, a generator end-winding PD signal was mistaken for noise due to poor sensor grounding. Another involved a cable joint where increasing PD magnitude over time indicated a void-related breakdown—early intervention prevented a costly outage. Key learnings include the importance of phase-resolved PD (PRPD) pattern analysis, baseline signal comparison, and monitoring PD trends over time. Environmental noise, load conditions, and sensor placement significantly impact data quality. KPM’s PD tester simplifies interpretation with built-in PRPD pattern recognition, automated classification, and trend analytics. Its intelligent algorithms filter out noise and identify critical PD types—internal, surface, or corona—with high accuracy. By offering both real-time insights and historical tracking, KPM's tester empowers engineers to make confident maintenance decisions and extend asset life. FAQ about Monitoring testing : 01 What is the use of online partial discharge (PD) monitoring of panels using TEV and contact ultrasonic methods? Online partial discharge monitoring of medium-voltage and high-voltage panels using TEV (Transient Earth Voltage) and contact ultrasonic methods is used to detect and localize internal insulation defects and surface discharges without shutting down the equipment. Here's how each method contributes: 1. TEV (Transient Earth Voltage) Method Use: Detects internal PD activity, especially within air-insulated switchgear (AIS) and cable terminations inside metal-clad panels. How it works? When PD occurs inside enclosed metal-clad gear, it emits fast-rising electromagnetic pulses that induce transient voltages on the metal surfaces. TEV sensors pick up these signals from outside the panel. Benefit: Non-invasive, detects internal voids, tracking, and corona effects. 2. Contact Ultrasonic Method Use: Detects surface discharges, such as corona or tracking, which emit high-frequency acoustic signals. How it works? A piezoelectric sensor placed on the panel surface detects ultrasonic noise generated by PD activity, even through the enclosure. Benefit: Helps locate poor insulation, loose connections, or contamination issues causing discharge on the surface. Combined Use – Why It Matters? Using both TEV and ultrasonic methods together enhances diagnostic accuracy: TEV gives insight into internal discharge severity and location. Ultrasonic confirms surface or near-surface PD sources and allows cross-verification. This dual-method approach is vital for: Preventive maintenance, Avoiding insulation failures, Improving switchgear reliability, and Extending equipment life without needing shutdowns.

Advanced monitoring solutions by KPM for real-time system monitoring, diagnostics, and performance analysis in industrial applications. ÇEVRİMİÇİ PD & TOPRAK İZLEME Penta PD - Kısmi Deşarj Dedektörü Daha fazlasını öğrenin Penta PD Kısmi Deşarj Dedektörü Kısmi Deşarj Dedektörü Penta-PD, duruma dayalı bakım programları için ideal bir ortaktır. Kısmi Deşarj Dedektörü Penta-PD, 5 tür çevrimiçi PD sensör teknolojisinin tümünü bünyesinde barındırır. Birden fazla sensörden gelen bilgiler, Kısmi Deşarj Dedektörü Penta-PD'ye, çeşitli trafo merkezi aparatlarında çeşitli tipte PD'yi algılamak için çok yönlülük sağlar. Algılama Bant Genişliği 1.TEV - Geçici Toprak Gerilimi, Aralık 3～100 MHz 2.UHF - Ultra Yüksek Frekans 300MHz～2000 MHz 3.UA – Ultrasonik 40 ～ 200 KHz Ölçüm aralığı 1.UA: -90~80dB 2.TEV: -80~10dBm 3.UHF: -80~10dBm. Sensör: a) Ultrasonik sensör: 20~200(kHz); b) EV (Geçici Toprak Gerilimi) sensörü: 5 ~ 100MHz; c) UHF sensörü: 300~2000(MHz), yönlü alım karakteristiği ile. Penta PD - Kısmi Deşarj Dedektörü Daha fazlasını öğrenin Penta PD Kısmi Deşarj Dedektörü Kısmi Deşarj Dedektörü Penta-PD, duruma dayalı bakım programları için ideal bir ortaktır. Kısmi Deşarj Dedektörü Penta-PD, 5 tür çevrimiçi PD sensör teknolojisinin tümünü bünyesinde barındırır. Birden fazla sensörden gelen bilgiler, Kısmi Deşarj Dedektörü Penta-PD'ye, çeşitli trafo merkezi aparatlarında çeşitli tipte PD'yi algılamak için çok yönlülük sağlar. Algılama Bant Genişliği 1.TEV - Geçici Toprak Gerilimi, Aralık 3～100 MHz 2.UHF - Ultra Yüksek Frekans 300MHz～2000 MHz 3.UA – Ultrasonik 40 ～ 200 KHz Ölçüm aralığı 1.UA: -90~80dB 2.TEV: -80~10dBm 3.UHF: -80~10dBm. Sensör: a) Ultrasonik sensör: 20~200(kHz); b) EV (Geçici Toprak Gerilimi) sensörü: 5 ~ 100MHz; c) UHF sensörü: 300~2000(MHz), yönlü alım karakteristiği ile. PQ Analiz Cihazı Light Daha fazlasını öğrenin Model KPM PQ Işık 1) Ürün bileşen tipi Tutma yeri çok fazlı güç ölçer 2) Faz açıklaması 3PH4W (In olmadan) 3PH3W 1PH2W (LN); 1PH2W(LL);1PH3W(LLN) 3. Cihaz uygulaması • Güç analizi • Enerji ölçer 4. Giriş tipi • Harici Rogowski bobini • Harici CT (yalnızca 333mV) 5. Ekran 3,5 inç TFT ekran görüntüsü 6. Örnekleme hızı Saniyede 8k örnek 7. Harmonik 52. Maks 8. Mekanik özellikler • Ağırlık 350g • Boyut U*G*D:21,5*10*3,5CM Güç Kalitesi Analizörü + Daha fazlasını öğrenin Model KPM PQ Işık 1) Ürün bileşen tipi Tutma yeri çok fazlı güç ölçer 2) Faz açıklaması 3PH4W (In ile) 3PH3W 1PH2W (LN); 1PH2W(LL);1PH3W(LLN) 3. Cihaz uygulaması • Güç analizi • Enerji ölçer 4. Giriş tipi • Harici Rogowski bobini • Harici CT (yalnızca 333mV) 5. Ekran 3,5 inç TFT ekran görüntüsü 6. Örnekleme hızı Saniyede 8k örnek 7. Harmonik 52. Maks 8. PC Bağlantısı 8. Mekanik özellikler • Ağırlık 350g • Boyut U*G*D:21,5*10*3,5CM Güç Kalitesi Analizörü + Daha fazlasını öğrenin Model KPM PQ Işık 1) Ürün bileşen tipi Tutma yeri çok fazlı güç ölçer 2) Faz açıklaması 3PH4W (In ile) 3PH3W 1PH2W (LN); 1PH2W(LL);1PH3W(LLN) 3. Cihaz uygulaması • Güç analizi • Enerji ölçer 4. Giriş tipi • Harici Rogowski bobini • Harici CT (yalnızca 333mV) 5. Ekran 3,5 inç TFT ekran görüntüsü 6. Örnekleme hızı Saniyede 8k örnek 7. Harmonik 52. Maks 8. PC Bağlantısı 8. Mekanik özellikler • Ağırlık 350g • Boyut U*G*D:21,5*10*3,5CM Penta PD - Kısmi Deşarj Dedektörü Daha fazlasını öğrenin Penta PD Kısmi Deşarj Dedektörü Kısmi Deşarj Dedektörü Penta-PD, duruma dayalı bakım programları için ideal bir ortaktır. Kısmi Deşarj Dedektörü Penta-PD, 5 tür çevrimiçi PD sensör teknolojisinin tümünü bünyesinde barındırır. Birden fazla sensörden gelen bilgiler, Kısmi Deşarj Dedektörü Penta-PD'ye, çeşitli trafo merkezi aparatlarında çeşitli tipte PD'yi algılamak için çok yönlülük sağlar. Algılama Bant Genişliği 1.TEV - Geçici Toprak Gerilimi, Aralık 3～100 MHz 2.UHF - Ultra Yüksek Frekans 300MHz～2000 MHz 3.UA – Ultrasonik 40 ～ 200 KHz Ölçüm aralığı 1.UA: -90~80dB 2.TEV: -80~10dBm 3.UHF: -80~10dBm. Sensör: a) Ultrasonik sensör: 20~200(kHz); b) EV (Geçici Toprak Gerilimi) sensörü: 5 ~ 100MHz; c) UHF sensörü: 300~2000(MHz), yönlü alım karakteristiği ile. Penta PD - Kısmi Deşarj Dedektörü Daha fazlasını öğrenin Penta PD Kısmi Deşarj Dedektörü Kısmi Deşarj Dedektörü Penta-PD, duruma dayalı bakım programları için ideal bir ortaktır. Kısmi Deşarj Dedektörü Penta-PD, 5 tür çevrimiçi PD sensör teknolojisinin tümünü bünyesinde barındırır. Birden fazla sensörden gelen bilgiler, Kısmi Deşarj Dedektörü Penta-PD'ye, çeşitli trafo merkezi aparatlarında çeşitli tipte PD'yi algılamak için çok yönlülük sağlar. Algılama Bant Genişliği 1.TEV - Geçici Toprak Gerilimi, Aralık 3～100 MHz 2.UHF - Ultra Yüksek Frekans 300MHz～2000 MHz 3.UA – Ultrasonik 40 ～ 200 KHz Ölçüm aralığı 1.UA: -90~80dB 2.TEV: -80~10dBm 3.UHF: -80~10dBm. Sensör: a) Ultrasonik sensör: 20~200(kHz); b) EV (Geçici Toprak Gerilimi) sensörü: 5 ~ 100MHz; c) UHF sensörü: 300~2000(MHz), yönlü alım karakteristiği ile. Güç Kalitesi Analizörü + Daha fazlasını öğrenin Model KPM PQ Işık 1) Ürün bileşen tipi Tutma yeri çok fazlı güç ölçer 2) Faz açıklaması 3PH4W (In ile) 3PH3W 1PH2W (LN); 1PH2W(LL);1PH3W(LLN) 3. Cihaz uygulaması • Güç analizi • Enerji ölçer 4. Giriş tipi • Harici Rogowski bobini • Harici CT (yalnızca 333mV) 5. Ekran 3,5 inç TFT ekran görüntüsü 6. Örnekleme hızı Saniyede 8k örnek 7. Harmonik 52. Maks 8. PC Bağlantısı 8. Mekanik özellikler • Ağırlık 350g • Boyut U*G*D:21,5*10*3,5CM Güç Kalitesi Analizörü + Daha fazlasını öğrenin Model KPM PQ Işık 1) Ürün bileşen tipi Tutma yeri çok fazlı güç ölçer 2) Faz açıklaması 3PH4W (In ile) 3PH3W 1PH2W (LN); 1PH2W(LL);1PH3W(LLN) 3. Cihaz uygulaması • Güç analizi • Enerji ölçer 4. Giriş tipi • Harici Rogowski bobini • Harici CT (yalnızca 333mV) 5. Ekran 3,5 inç TFT ekran görüntüsü 6. Örnekleme hızı Saniyede 8k örnek 7. Harmonik 52. Maks 8. PC Bağlantısı 8. Mekanik özellikler • Ağırlık 350g • Boyut U*G*D:21,5*10*3,5CM Güç Kalitesi Analizörü + Daha fazlasını öğrenin Model KPM PQ Işık 1) Ürün bileşen tipi Tutma yeri çok fazlı güç ölçer 2) Faz açıklaması 3PH4W (In ile) 3PH3W 1PH2W (LN); 1PH2W(LL);1PH3W(LLN) 3. Cihaz uygulaması • Güç analizi • Enerji ölçer 4. Giriş tipi • Harici Rogowski bobini • Harici CT (yalnızca 333mV) 5. Ekran 3,5 inç TFT ekran görüntüsü 6. Örnekleme hızı Saniyede 8k örnek 7. Harmonik 52. Maks 8. PC Bağlantısı 8. Mekanik özellikler • Ağırlık 350g • Boyut U*G*D:21,5*10*3,5CM Sık Sorulan Sorular ( SSS ) FAQ about Monitoring testing : 01 What is the use of online partial discharge (PD) monitoring of panels using TEV and contact ultrasonic methods? Online partial discharge monitoring of medium-voltage and high-voltage panels using TEV (Transient Earth Voltage) and contact ultrasonic methods is used to detect and localize internal insulation defects and surface discharges without shutting down the equipment. Here's how each method contributes: 1. TEV (Transient Earth Voltage) Method Use: Detects internal PD activity, especially within air-insulated switchgear (AIS) and cable terminations inside metal-clad panels. How it works? When PD occurs inside enclosed metal-clad gear, it emits fast-rising electromagnetic pulses that induce transient voltages on the metal surfaces. TEV sensors pick up these signals from outside the panel. Benefit: Non-invasive, detects internal voids, tracking, and corona effects. 2. Contact Ultrasonic Method Use: Detects surface discharges, such as corona or tracking, which emit high-frequency acoustic signals. How it works? A piezoelectric sensor placed on the panel surface detects ultrasonic noise generated by PD activity, even through the enclosure. Benefit: Helps locate poor insulation, loose connections, or contamination issues causing discharge on the surface. Combined Use – Why It Matters? Using both TEV and ultrasonic methods together enhances diagnostic accuracy: TEV gives insight into internal discharge severity and location. Ultrasonic confirms surface or near-surface PD sources and allows cross-verification. This dual-method approach is vital for: Preventive maintenance, Avoiding insulation failures, Improving switchgear reliability, and Extending equipment life without needing shutdowns.

Advanced earth testing kits by KPM for precise ground resistance measurement, soil resistivity testing, and electrical safety compliance. TOPRAK / ZEMİN TESTİ Earth Tester - Spike Yöntemi Daha fazlasını öğrenin Earth Tester (Spike Method) KPM -ET30K Earth Resistance & Soil Resistivity Tester is specially designed and manufactured for measuring earth resistance, soil resistivity, earth voltage &_cc781905-5cde-3194-bb3b- 136bad5cf58d_AC gerilimi. ET30K adopts the latest technology for precise 4-pole, 3 -pole and simple 2-pole measurement for earth direnç. importing FFT and AFC technology,_cc781905-5cde- 3194-bb3b-136bad5cf58d_ with a unique function of anti-interference capability and the ability to adapt to the_cc781905-5cde-3194- bb3b-136bad5cf58d_ environment, consistency of repeat testing,_cc781905-5cde-3194-bb3b -136bad5cf58d_ uzun süreli ölçümlerde yüksek hassasiyet, yüksek kararlılık ve güvenilirlik sağlamak için Toprak Test Cihazı - Kelepçe Yöntemi Daha fazlasını öğrenin Kelepçeli Topraklama Test Cihazı (KPM-CET1200) is zemin direnci ölçümünde yaygın olarak uygulanır, loop elektrik_cc781905-5cde-3194-bb3cd5b-5b-136 gibi alanlarda direnç ölçümü , petrol sahası, architecture and endüstriyel elektrikli ekipman, etc. Döngü ile zemin sistemini ölçerken, hiçbir zemin bağlantısını kesme ihtiyacı yoktur yardımcı olmayan tel electrode, bu daha güvenli ve daha hızlı anlamına gelir. Clamp Topraklama Test Cihazının (KPM-CET1200) Temel Özellikleri Toprak direncini/döngü direncini ölçer Büyük çene ölçüsü (65mmx32mm) Geniş direnç ölçüm aralığı (0,01Ω ila 1200Ω) Geniş akım ölçüm aralığı (0,01A - 20A) Karşılıklı bağlı toprak çukuru devrelerini test etmek için ideal Earth Tester - Spike Yöntemi Daha fazlasını öğrenin Earth Tester (Spike Method) KPM -ET30K Earth Resistance & Soil Resistivity Tester is specially designed and manufactured for measuring earth resistance, soil resistivity, earth voltage &_cc781905-5cde-3194-bb3b- 136bad5cf58d_AC gerilimi. ET30K adopts the latest technology for precise 4-pole, 3 -pole and simple 2-pole measurement for earth direnç. importing FFT and AFC technology,_cc781905-5cde- 3194-bb3b-136bad5cf58d_ with a unique function of anti-interference capability and the ability to adapt to the_cc781905-5cde-3194- bb3b-136bad5cf58d_ environment, consistency of repeat testing,_cc781905-5cde-3194-bb3b -136bad5cf58d_ uzun süreli ölçümlerde yüksek hassasiyet, yüksek kararlılık ve güvenilirlik sağlamak için Çevrimiçi Toprak Test Cihazı (GERM) Daha fazlasını öğrenin Kritik Topraklama Sisteminizin sağlığını çevrimiçi izlemek için Son Teknoloji Cihaz Izgara Toprak Direnci Monitörü (Germ ), Online'ın Toprak Çukurlarının gerçek zamanlı toprak direnci değerini izleyen ve herhangi bir arıza tespit ettiğinde alarm veren bir art cihazının durumudur . Siteden gelen tüm bilgiler güvenli bir şekilde gelişmiş iletişim yöntemleri ile sunucuya gönderilir. Sık Sorulan Sorular ( SSS ) FAQ about Earth testing : 01 Difference between Clamp and Spike Method? Earth Resistance Testing: Clamp vs. Spike Method : The Clamp Method and the Spike (Fall-of-Potential) Method are two commonly used techniques for measuring earth resistance, each with distinct use cases. The Spike Method (also known as the three-point or fall-of-potential method) is considered the most accurate and is typically used during installation or scheduled maintenance when it’s feasible to disconnect the grounding system. It requires driving two auxiliary spikes into the ground at set distances from the earth electrode and measuring the voltage drop created by a test current. This method provides a true earth resistance value but is time-consuming, invasive, and requires open ground access. In contrast, the Clamp Method (or Stakeless method) is a quick, non-intrusive test ideal for live systems where disconnecting the earth rod is not possible. Using a special clamp meter, the method induces a test signal and measures current flow through parallel earth paths. It’s convenient and fast but is only applicable when multiple grounding paths exist (e.g., in mesh or grid systems). The Clamp Method does not provide accurate results for isolated earth rods or when there is only a single grounding point. In summary, the Spike Method is best for accurate baseline testing during commissioning, while the Clamp Method is ideal for routine checks on operational systems without disrupting service. 02 How to Ensure Compliance With Earth Testing in Renewable Sites? Ensuring Compliance with Earth Testing in Renewable Sites : To ensure safety and meet regulatory standards in solar, wind, or hybrid renewable energy systems, proper earth resistance testing is essential. Key Steps: Follow Standards: Comply with IEC 60364, IEEE 80, BS 7430, or local codes. Test Soil Early: Conduct soil resistivity surveys during design to select the right grounding method. Use Proper Methods: Apply the Fall-of-Potential method for commissioning and Clamp Method for periodic checks. Keep Records: Log all test data with method, instrument, and environmental details. Test Regularly: Schedule annual or biannual resistance tests to catch degradation early. Use Remote Monitoring (if available): SCADA or sensors can track resistance levels continuously. Train Personnel: Ensure field staff know correct testing procedures and safety protocols. Third-Party Verification: For audits or large projects, use certified inspectors for compliance reporting. 03 What will be seasonal Impact on Ground Resistance Measurements? Seasonal Impact on Ground Resistance Measurements Ground resistance values can vary significantly with seasonal changes due to environmental factors affecting soil conditions: Soil Moisture: During wet seasons (rainy or winter), soil moisture increases, lowering ground resistance by improving conductivity. Conversely, dry seasons cause soil to dry out, increasing resistance. Soil Temperature: Colder temperatures can increase soil resistivity as water in soil may freeze, reducing conductivity. Warmer temperatures generally improve conductivity. Soil Composition Changes: Seasonal changes in organic matter decomposition and salt concentration may also affect soil resistivity. Vegetation and Ground Cover: Plant growth during certain seasons can affect soil moisture retention and contact with grounding electrodes. Implications Testing during different seasons may yield varying results; hence, baseline measurements should be taken in both dry and wet conditions to understand worst-case scenarios. For accurate monitoring and compliance, schedule tests consistently or adjust acceptable resistance thresholds based on seasonal variation.

KPM India |We are electrical test equipment manufacturers, We deal in CT PT Analyzer, Relay Test Kit , Tan delta , Transformer Test Kits , LA Testers etc.|PD DEMO |https://kpmtek.wixsite.com/website/tr/pd-demo Live PD Dashboard

In KPM Engineering Solution Pvt. Ltd our solutions are Thermal Imager camera, fever monitoring solution, Relay Test Kit, CT/PT Analyzer, Oil BDV, Transformer Testing , Circuit Breaker Testing, LA Testing, Ground Testing, Partial Discharge Testing. Visit www.kpmtek.com for details LAB INFRA

All type of electrical testing and commissioning services Test Hizmetleri Test Etme ve Devreye Alma Hepsinin test edilmesi ve devreye alınması LV / HV / UHV Pano Kartları şalt cihazları Birkaç Kapalı ve Açık trafo merkezi 400V - 765KV gerilim aralığında Gaz Yalıtımlı İstasyon[GIS] OG/AG Jeneratörleri Güç transformatörleri Motorlar Kapasitör Bankaları reaktörler Kablolar İzolatörler Paratonerler CT'ler, PT'ler, CVT'ler, Devre Kesiciler Jeneratör için NG, NGT, Kontrol & Röle Panoları, FBus Bağlayıcı, Veri Yolu Transferi ve Hat Kontrolü Vb. Bize Sor izleme Kapasitans ve Tan Deltası Tarama Frekans Tepkisi Analizi [SFRA] Kısmi boşalma Elektro Manyetik Çekirdek Kusur Tespiti [ELCID] Kama Sapması RSO Testi Dalgalanma Karşılaştırması DC Hi-Pot Testi, Yalıtım Direnci, Polarizasyon İndeksi. Bize Sor

Advanced tap changer testing equipment by KPM for precise diagnostics, condition monitoring, and maintenance of transformer tap changers. YÜKTE KADEME DEĞİŞTİRİCİ (OLTC) ANALİZÖRÜ Daha fazla göster Bize Ulaşın KPM-Kademe Değiştirici Analiz Cihazı Transformatör yük altında kademe değiştirici analizörü, 'nin bir kombinasyonudur Geçiş Zamanlayıcısı & Sargı Direnci Test Cihazı. KPM Transformer yük altında kademe değiştirici analizörü, güç transformatörlerinin ve özel transformatör yük altında kademe değiştiricilerin elektriksel performans göstergelerini ölçmek ve analiz etmek için kapsamlı bir ölçüm cihazıdır. güç sistemleri. Mikrobilgisayar kontrolünü benimser ve hassas ölçüm devresinin tasarımı sayesinde, geçiş süresinin, geçiş dalga formunun, geçiş direncinin ve üç fazlı senkronizasyonun doğru ölçümünü gerçekleştirebilir. -yük kademe değiştiricisi. Kullanıcı, kademe değiştiriciyi trafo sargılı ve sargısız olarak test edebilir. Cihaz, ölçülen verileri görüntüleme, analiz etme, saklama ve yazdırma işlevlerine sahiptir. Güç ekipmanı ve revizyon önleyici testinde yük altında kademe değiştiricinin olası arızasını teşhis etmek mümkündür güç sisteminin çalışmasının güvenilirliğini artırmak için büyük önem taşıyan transformatörün. Teknik parametreler 1>Çıkış akımı: 1.0A, 0.5A, 0.3A 2> Direnç aralığı: 1.0A dişli 0.1~10Ω, 0.5A dişli 5~20Ω, 0.3A dişli 10~40Ω 3> Direnç ölçüm hassasiyeti: 0.1Ω~1Ω±0.1Ω, 1Ω~40Ω±1% (1Ω hariç) 4> Geçiş süresi ölçümü: aralık 1~250Ms, doğruluk: 1ms~100ms±0.1ms100ms~250ms±1% 5>Örnekleme frekansı: 10～20KHz 6>Üç fazlı senkronizasyon: 0.01ms 7>Çalışma sıcaklığı: 0~40°C 8> Ortam nemi: ≤90% BN, yoğuşmasız 9> Boyutlar (mm): 420 × 350 × 220, ağırlık: 12kg (aksesuarlar dahil)

KPM India |We are electrical test equipment manufacturers, We deal in CT PT Analyzer, Relay Test Kit , Tan delta , Transformer Test Kits , LA Testers etc.|test |https://kpmtek.wixsite.com/website/tr/about-1 Heading 1 Heading 2 Heading 3 Heading 4 I'm a paragraph. Click here to add your own text and edit me. It's easy. I'm a paragraph. Click here to add your own text and edit me. It's easy. Maximum ROI

KPM India |We are electrical test equipment manufacturers, We deal in CT PT Analyzer, Relay Test Kit , Tan delta , Transformer Test Kits , LA Testers etc.|Measuring Impedance |https://kpmtek.wixsite.com/website/tr/measuring-impedance Empedans Ölçümü

Expert high voltage testing and partial discharge (PD) analysis. KPM advanced HV lab provides precise diagnostic services to ensure insulation integrity and equipment reliability. Kısmi Deşarj Dedektörü NON PD Capacitive Voltage Divider_edited Non PD Capacitive Voltage Divider KPM Non PD Transformer Non PD Test Transformer Calibrator PD Calibrator Non PD Coupling Capacitor01 Non PD Coupling Capacitor Motor driven contact type voltage regular Motor driven contact Motor driven contact type voltage regula Motor driven contact type voltage regular Measuring Impedance Measuring Impedance Intermediate Transformer Intermediate transformer KPM PDA-01 Digital PD Monitor KPM PDM-01 Analog PD Monitor KPM Current Input unit High Current Input Unit

Advanced meter test kits by KPM for precise energy meter testing, calibration, and performance verification. Enerji Ölçer Testi 3 Fazlı Enerji Ölçer Referansı - MT 3000D MT 3000D MT 3000D, enerji sayaçlarının test edilmesi ve kalibrasyonu için son teknoloji taşınabilir 3 fazlı bir enerji ölçer referansıdır. MT3000D, kullanımı kolay ve hafif bir cihazdır. MT 3000D iki doğruluk seçeneğiyle sunulur (%0,05 ve %0,1) MT3000D, aşağıdaki işlevlere sahip hepsi bir arada bir birimdir Otomatik yanlış bağlantı testi Oran testi Harmonik testi Metre Doğruluk Testi ( 0.05 / 1 Sınıf ) Rapor Yazdır MT 3000B Taşınabilir üç fazlı kWh Metre yerinde Kalibratör, çalışma sırasında üç fazlı, tek fazlı, aktif veya reaktif enerji sayacını kalibre etmek için kullanılır ve ayrıca üç fazlı güç hattının AC parametresini ölçmek için voltaj, akım ve güç ölçer olarak kullanılabilir , ayrıca dalga bozulma faktörünü ve 2 ila 63 zamanlı harmonic dalgasını ölçebilir. Aşağıdaki özelliklere sahiptir: •32 bit ARM işlemci, çok kanallı 16 bit hassas A/D dönüştürücü, yüksek çözünürlüklü TFT LCD'yi benimseyin. •İç kısım %0,01 geniş aralıklı akım trafosu ile donatılmıştır ve çeşitli tip akım pensleri, geniş ölçüm aralığı ve yüksek doğruluk ile donatılabilir. •Düşük tüketimli devre tasarımı, yüksek enerjili Li pil kaynağı, enstrümanın 10 saate kadar sürekli çalışmasını sağlayan entelektüel güç yönetimi yazılımı 1 Fazlı Enerji Ölçer Test Referansı Katalog EMR 1, enerji ölçerlerin test edilmesi ve kalibrasyonu için son teknoloji taşınabilir 1 fazlı enerji ölçer referansıdır . EMR 1, kullanımı kolay ve hafif bir cihazdır. EMR 1, doğruluk oranı %0,3'tür. Özellikler 1. Şebeke beslemesini kesmeden sayaç hatalarını test edin. 2. İsteğe bağlı boş yük kutusu 3. Sertifika: ISO 9001 Features Özel plastik kalıp kutusu, hafif ve taşınabilir, LCD ekran Voltajı, akımı, gücü ölçün. güç devresinin bağlantısını kesmeden faz güç faktörü Güç devresinin bağlantısını kesmeden tek faz ölçerin pozitif/negatif hatasını test edin Geniş akım kelepçesi çaldı: 0.5-100A Geniş çalışma voltajı: AC180 - 250V Doğrudan voltaj test kablosuyla sağlanan güç kaynağı Yüksek ve düşük frekanslı enerji darbe çıkışı. Göndermesi ve test etmesi kolay Tarama kafası ile örnekleme, doğrudan elektronik ölçüm cihazının darbe girişi veya manuel anahtar kalibrasyonu Harici akım yük kutusuna bağlanabilir ve simüle edilmiş yükü destekler 1 Fazlı Enerji Ölçer Test Referansı Katalog EMR 1, enerji ölçerlerin test edilmesi ve kalibrasyonu için son teknoloji taşınabilir 1 fazlı enerji ölçer referansıdır . EMR 1, kullanımı kolay ve hafif bir cihazdır. EMR 1, doğruluk oranı %0,3'tür. Özellikler 1. Şebeke beslemesini kesmeden sayaç hatalarını test edin. 2. İsteğe bağlı boş yük kutusu 3. Sertifika: ISO 9001 Features Özel plastik kalıp kutusu, hafif ve taşınabilir, LCD ekran Voltajı, akımı, gücü ölçün. güç devresinin bağlantısını kesmeden faz güç faktörü Güç devresinin bağlantısını kesmeden tek faz ölçerin pozitif/negatif hatasını test edin Geniş akım kelepçesi çaldı: 0.5-100A Geniş çalışma voltajı: AC180 - 250V Doğrudan voltaj test kablosuyla sağlanan güç kaynağı Yüksek ve düşük frekanslı enerji darbe çıkışı. Göndermesi ve test etmesi kolay Tarama kafası ile örnekleme, doğrudan elektronik ölçüm cihazının darbe girişi veya manuel anahtar kalibrasyonu Harici akım yük kutusuna bağlanabilir ve simüle edilmiş yükü destekler 1 Fazlı Enerji Ölçer Test Referansı Katalog EMR 1, enerji ölçerlerin test edilmesi ve kalibrasyonu için son teknoloji taşınabilir 1 fazlı enerji ölçer referansıdır . EMR 1, kullanımı kolay ve hafif bir cihazdır. EMR 1, doğruluk oranı %0,3'tür. Özellikler 1. Şebeke beslemesini kesmeden sayaç hatalarını test edin. 2. İsteğe bağlı boş yük kutusu 3. Sertifika: ISO 9001 Features Özel plastik kalıp kutusu, hafif ve taşınabilir, LCD ekran Voltajı, akımı, gücü ölçün. güç devresinin bağlantısını kesmeden faz güç faktörü Güç devresinin bağlantısını kesmeden tek faz ölçerin pozitif/negatif hatasını test edin Geniş akım kelepçesi çaldı: 0.5-100A Geniş çalışma voltajı: AC180 - 250V Doğrudan voltaj test kablosuyla sağlanan güç kaynağı Yüksek ve düşük frekanslı enerji darbe çıkışı. Göndermesi ve test etmesi kolay Tarama kafası ile örnekleme, doğrudan elektronik ölçüm cihazının darbe girişi veya manuel anahtar kalibrasyonu Harici akım yük kutusuna bağlanabilir ve simüle edilmiş yükü destekler Sık Sorulan Sorular ( SSS ) FAQ about Energy meter testing : 01 What is the purpose of reference testing in energy meter calibration? The purpose of reference testing in energy meter calibration is to verify and ensure the accuracy of the energy meter by comparing its measurements against a highly precise and traceable standard—called the reference meter or standard. This process identifies any measurement errors or deviations in the energy meter under test, allowing for correction or adjustment to meet specified accuracy classes. Reference testing helps maintain measurement reliability, billing fairness, and compliance with industry standards. 02 How is the accuracy class of an energy meter determined during calibration? The accuracy class of an energy meter is determined by evaluating its measurement error under a range of standardized test conditions during calibration. This involves comparing the meter’s energy readings against those of a highly accurate reference standard meter over a set period and at various load levels and power factors. The calibration process typically tests the meter at multiple points such as: Light load (e.g., 10% of rated current) Medium load (e.g., 50% of rated current) Full load (100% of rated current) Additionally, measurements are taken at different power factors, including unity (1.0), lagging (inductive), and leading (capacitive) conditions, to simulate real operating scenarios. At each test point, the percentage error is calculated by comparing the meter’s recorded energy to that of the reference meter. The accuracy class is assigned based on whether these errors stay within the maximum allowable limits defined by standards such as IEC 62053 or ANSI C12.20. For example, a Class 1.0 meter must not exceed ±1% error under these conditions. Consistent performance across all test points confirms the meter’s accuracy class, ensuring it meets the required precision for billing or monitoring applications. 03 Do you know the common standards and regulations followed for energy meter calibration? What are the common standards and regulations followed for energy meter calibration? Energy meter calibration is governed by international and regional standards to ensure accuracy, reliability, and uniformity. The most widely followed standards include: IEC 62053 series: International standards specifying performance and accuracy requirements for different classes of electricity meters (e.g., IEC 62053-21 for static meters, IEC 62053-22 for active energy meters, and IEC 62053-23 for reactive energy meters). IEC 60521 and IEC 60522: Standards covering calibration methods and testing procedures for electric meters. ANSI C12 series: North American standards, such as ANSI C12.20, that define accuracy classes and testing protocols for electric meters. OIML R46: International recommendation by the International Organization of Legal Metrology outlining accuracy requirements and test procedures for electricity meters used in billing. National regulations: Many countries have their own legal metrology regulations and certification requirements to ensure meters used for billing comply with local laws. 04 Do you know which equipment is used as a reference standard during energy meter calibration? The reference standard in energy meter calibration is a highly accurate and traceable device known as a calibration standard meter or reference meter. This equipment has a much higher precision than the meter under test, typically with an accuracy class of 0.02% or better. Common types include: Standard reference meters: Precision static energy meters designed specifically for calibration, with traceability to national or international measurement standards. Calibrated instrument transformers: High-accuracy current and voltage transformers to supply accurate test signals. Precision power sources: Devices that can generate stable and controllable voltage and current at various loads and power factors to simulate real operating conditions. Calibration benches or test rigs: Integrated setups that combine the above equipment to perform automated, controlled calibration tests. Using these reference standards ensures that the energy meter calibration is accurate, repeatable, and compliant with metrology requirements. 05 How do environmental conditions affect energy meter calibration results? Environmental factors like temperature, humidity, and atmospheric pressure can influence the accuracy of energy meter calibration. Temperature: Changes in temperature can affect the electrical characteristics of meter components, causing measurement drift or errors. Most calibration standards specify temperature ranges within which tests should be performed to ensure consistency. Humidity: High humidity can cause condensation or moisture ingress, impacting insulation resistance and electronic circuits, leading to inaccurate readings during calibration. Atmospheric pressure: Variations in pressure can subtly affect electrical properties, especially in sensitive equipment, although its impact is generally less significant than temperature or humidity. To minimize these effects, calibrations are ideally conducted in controlled laboratory environments with stable temperature and humidity, or environmental conditions are recorded and accounted for in the calibration report. 06 What is the difference between static and dynamic energy meter calibration? Static calibration tests the energy meter under steady-state conditions by applying fixed voltage and current values at set loads and power factors. It measures the meter’s accuracy when the electrical parameters remain constant, helping to verify basic performance and error under controlled, stable conditions. Dynamic calibration, on the other hand, evaluates the meter’s performance under varying, real-world operating conditions where voltage, current, and load fluctuate over time. It simulates actual usage patterns to assess how accurately the meter records energy during transient events, load changes, and power quality variations. While static calibration is simpler and faster, dynamic calibration provides a more comprehensive assessment of meter accuracy in practical scenarios, especially important for modern smart meters and complex electrical systems. 07 How often should energy meters be recalibrated to ensure accuracy? Energy meters should typically be recalibrated every 3 to 5 years, depending on regulatory requirements, manufacturer recommendations, and the operating environment. Frequent recalibration helps detect any drift in accuracy caused by aging, environmental factors, or mechanical wear. In critical applications or harsh conditions, more frequent recalibration may be necessary. Utilities often follow national standards or legal metrology guidelines that specify maximum intervals to maintain measurement reliability and billing fairness. 08 What is the process for checking the linearity of an energy meter? Checking the linearity of an energy meter involves verifying that the meter’s measurement error remains consistent across a wide range of loads. The process includes: Apply multiple test currents: The meter is tested at different load levels, typically ranging from low (e.g., 10% of rated current) to full load (100%) and sometimes even above. Maintain constant voltage and power factor: During each test point, voltage and power factor are kept steady to isolate the current’s effect. Record meter readings: The energy measured by the meter under test is compared against a reference standard meter at each load level. Calculate percentage error: For each load, the error percentage is calculated based on the difference between the test meter and reference meter readings. Analyze results: A linear meter will show minimal variation in error across all loads. Significant deviations indicate non-linearity, which can affect billing accuracy. This test ensures the meter accurately measures energy consumption regardless of load size, essential for fair billing and reliable performance. 09 How are errors in energy meters identified and corrected during calibration? During calibration, errors in energy meters are identified by comparing the meter’s recorded energy values to those of a highly accurate reference standard under controlled test conditions. The percentage difference between the meter reading and the reference reading reveals the magnitude and direction of the error. If errors exceed acceptable limits defined by standards, corrective actions may include: Adjustment: For mechanical meters, physical adjustments (like repositioning the dial or adjusting the braking magnet) can reduce errors. Reprogramming or firmware updates: For electronic meters, software recalibration or parameter tuning may correct measurement deviations. Component replacement: Faulty parts, such as sensors or electronic modules, may be replaced to restore accuracy. Rejecting the meter: If the errors cannot be corrected within tolerance, the meter may be deemed unfit for use. After correction, the meter is re-tested to confirm that errors now fall within the required accuracy class, ensuring reliable measurement and billing.

KPM India |We are electrical test equipment manufacturers, We deal in CT PT Analyzer, Relay Test Kit , Tan delta , Transformer Test Kits , LA Testers etc. |Career | https://www.kpmtek.com/career Do you have it in you Careers "Welcome to KPM's Careers Page, where opportunities for growth and innovation abound. At the heart of our success is a vibrant culture that values collaboration, diversity, and continuous learning. We're on a mission "to bring reliable & robust solutions to customers all across the world with best ROI and backing them with expert application support " , and we're searching for dedicated individuals who share our commitment to excellence. Explore our current job openings and discover a workplace where your unique skills and aspirations can thrive. Our employees are at the core of our success, and we invite you to be a part of our dynamic team. With comprehensive benefits, a commitment to diversity and inclusion, and a supportive environment, KPM is not just a workplace—it's a place to build a rewarding career. Take the first step toward joining us on this exciting journey!" Lab Assistant/Manager – Transformer Oil Testing Lab Tanzania Job Title: Lab Assistant – Transformer Oil Testing Lab Location: Tanzania Company: Confidencial, KPM's Client Joining : Immediate About the Role: We are seeking a dedicated and detail-oriented Lab Assistant to manage a state-of-the-art Transformer Oil Testing Lab for our esteemed client in Tanzania. This role offers an exciting opportunity to work with advanced diagnostic equipment and contribute to ensuring the reliability and efficiency of critical power sector assets. With infinite future growth prospects, this position is ideal for someone passionate about electrical testing and laboratory operations. Key Responsibilities: Conduct Dissolved Gas Analysis (DGA) to detect and diagnose faults in transformer oil. Perform Furan Analysis to assess the degradation of transformer insulation. Test Oil Acidity to monitor the chemical stability and performance of insulating oils. Operate and maintain the Karl Fischer Titrator for precise moisture content determination. Prepare oil samples, follow standard testing procedures, and document all results accurately. Ensure proper calibration and maintenance of lab equipment. Analyze test results and prepare detailed technical reports. Adhere to safety protocols and maintain a clean, organized lab environment. Collaborate with engineers and technical staff to interpret data and recommend actions. Qualifications and Skills: Diploma or Bachelor’s degree in Chemistry, Electrical Engineering, or a related field. Proven experience in transformer oil testing or similar laboratory environments. Familiarity with DGA, Furan Analysis, Oil Acidity tests, and Karl Fischer testing methods. Strong analytical and problem-solving skills. Excellent attention to detail and data recording accuracy. Ability to work independently and as part of a team. Effective communication skills for reporting and client interactions. Why Join Us: Opportunity to work in a growing power sector in Tanzania. Hands-on experience with cutting-edge testing equipment. Career advancement and future leadership opportunities. Collaborative and innovative work environment. Remuneration: Competitive salary based on experience and qualifications. Additional benefits and performance-based incentives. Opportunities for professional development and career growth. If you are passionate about electrical testing and eager to grow your career in a dynamic lab setting, we invite you to apply and become a vital part of our client’s success story. How to Apply: Please send your updated resume and a cover letter to consultant@kpmtek.com . We look forward to building the future of transformer diagnostics together! Customer Support Engineer - Electrical Testing Equip. Gurgaon , Bangalore We are a close-knit team of electrical engineers supplying and supporting our high-tech solutions in field of electrical testing and measuring equipment. We are looking for a self motivated Customer Support Engineer with below profile. Shall be capable of having technical discussions with customers and backing the sales team , Competition Study , Customer Tracing etc. Computer Savvy and capable of coordinating webinars, Ms Office Reporting , editing Technical Manuals & Data-sheets etc. Shall have basic knowledge in all electrical equipment such as ,Transformers, HV /MV and LV Switchgear, circuit breakers, earthing system, Lightning Arresters , Relays etc. Knowledge of below subjects will be an advantage -: CT / PT Testing Equipment Relay Testing Equipment Transformer Testing Equipment Circuit Breaker Testing Equipment Earth Testing You'll work in an office environment, but will frequently travel within the day for face-to-face meetings with customers and other business partners. You will be involved in technical discussions, product trainings and application support. If you are looking for a next level of challenge we motivate you to mail your CV to us today on below email ID - consultant@kpmtek.com