The transformer comprehensive test bench can measure most of the test parameters of the transformer. The transformer comprehensive test bench integrates all auxiliary equipment such as high and low voltage control cabinets, power frequency transformers, and frequency doubling generator sets, which can usually be customized according to the actual usage needs of users. So, what test parameters can a transformer comprehensive test bench with this set of testing equipment measure for transformers?
The DC resistance, transformer ratio, polarity, group, transformer no-load, load characteristics, power frequency withstand voltage, induction withstand voltage and other test items of the distribution transformer of the power transformer can be professionally and accurately tested through a comprehensive transformer testing system.
A transformer comprehensive test bench can solve most of the testing problems that users face for power transformers. This saves a lot of testing time and improves the efficiency of transformer detection for users in their testing projects for power transformers.
The transformer comprehensive test bench can measure these test parameters of power transformers:
1. Effective value of three-phase voltage
2. Effective value of three-phase current
3. Three phase active power loss
4. Three phase reactive power loss
5. Three phase average voltage
6. Average three-phase voltage
7. Average three-phase current
8. Total power
9. Percentage of no-load current
10. Impedance voltage percentage
11. Frequency
12. Power factor
13. Power frequency withstand voltage test
14. Induced voltage withstand test
15. DC resistance test
16. Voltage ratio test
From this, it can be seen that the transformer comprehensive test bench is very friendly to the overall detection of transformers, with a wide range of testing items and powerful functions. This is entirely dependent on the high-tech configuration of the transformer comprehensive testing platform. The testing platform is controlled by high-end microcontrollers, with digital display. High precision microcontrollers are used to sample test data such as no-load and short circuits with high precision, and then calculated by precise internal intelligent software, making the data accurate and reliable. This avoids the errors caused by traditional testing methods, which are separately detected and read by instruments such as voltmeter, ammeter, and power meter, and then manually calculated.
