High power programmable power supply

High power programmable power supply is a kind of high precision and high efficiency power supply product used in the field of power supply testing and circuit research. Its technical characteristics mainly include the following aspects:

1. High-precision output: The output accuracy of high-power programmable power supply is high, generally reaching an error of less than 0.05%, which can meet the requirements of extremely high test and research accuracy.

2. Programmable control: High-power programmable power supply supports a variety of programming control methods, including analog control, digital control, RS-232, GPIB and other interfaces.

3. High-power output: The output power of high-power programmable power supply is usually at the level of several hundred watts or several kilowatts (tens of kilowatts or even higher), which can meet the power supply needs of various high-power equipment.

4. Full power supply protection: The high power programmable power supply has multiple built-in protection mechanisms, including overcurrent protection, overvoltage protection, overtemperature protection, voltage reverse protection, etc., which can ensure the safe operation of the power supply and the powered equipment.

5. Stable reliability: High-power programmable power supply uses high-quality components and perfect heat dissipation design, has high stability and reliability, and also has better performance in service life.

High-power programmable power supply is widely used in various fields, including electronic product research and development, power electronic testing, aerospace, medical equipment, new energy and so on. By changing the power output waveform, voltage and current and other parameters, the high-power programmable power supply can meet the testing, research and simulation needs in different application scenarios, and provide strong support for the development of various industries.

Common parameters of high power programmable power supply:

1. Output voltage range

2. Output current range

Step 3: Stability

4. Ripple and noise

5. Efficiency

6. Display accuracy

7. Protection function

8. Programming control interface (such as GPIB, USB, etc.)

9. Instrument size and weight.

10. Operating temperature and humidity range.