A medium-high frequency high-power transformer
A high-power, transformer technology, applied in transformers, transformer/inductor cores, transformer/inductor coils/windings/connections, etc., can solve problems such as complex design process, poor product performance, waste of raw materials, etc., to achieve production Simple, good economic and social benefits, good cooling effect
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Embodiment 1
[0020] In this embodiment, the input voltage of the unit module is 250V, the frequency is 20KHz, and the power is 3KW. Around 25 turns, each turn electromotive force 10V.
[0021] like figure 2 As shown, using three above-mentioned 3KW / 250V / 20KHz unit modules, through the superposition of the unit modules and the parallel connection of the primary coil 12, a transformer with an input parameter of 250V / 20KHz / 9KW can be formed. like figure 2 , under the above premise, winding the secondary coil 21 for one turn can obtain a transformer with an output voltage of 30V and an output current of 300A; or winding the secondary coil 21 for two turns can obtain a transformer with an output voltage of 60V and an output current of 150A; By winding the secondary coil 21 for three turns, a transformer with an output voltage of 90V and an output current of 100A can be obtained; by analogy, by changing the number of turns of the secondary coil 21, a transformer with different output voltage...
Embodiment 2
[0023] In this embodiment, the same unit modules as in Embodiment 1 are used.
[0024] like image 3 As shown, by using 4 above-mentioned 3KW / 250V / 20KHz unit modules, through the superposition of the unit modules and the 2 series and then 2 parallel connections of the primary coil 12, a transformer with an input parameter of 500V / 20KHz / 12KW can be formed. Under the above premise, winding the secondary coil 21 for one turn can obtain a transformer with an output voltage of 40V and an output current of 300A; winding the secondary coil 21 for two turns can obtain a transformer with an output voltage of 80V and an output current of 150A; winding the secondary With three turns of the coil 21, a transformer with an output voltage of 120V and an output current of 100A can be obtained; by analogy, by changing the number of turns of the secondary coil 21, a transformer with different output voltages and currents can be obtained.
Embodiment 3
[0026] In this embodiment, the same unit modules as in Embodiment 1 are used.
[0027] A transformer with input parameters of 500V / 20KHz / 30KW can be formed by using 10 above-mentioned 3KW / 250V / 20KHz unit modules, superimposing the unit modules, and connecting the primary coil 12 in series by 2 and then in parallel by 5. Under the above premise, a transformer with an output voltage of 100V and an output current of 300A can be obtained by winding the secondary coil 21 for one turn; a transformer with an output voltage of 200V and an output current of 150A can be obtained by winding the secondary coil 21 for two turns; winding the secondary Three turns of the coil 21 can obtain a transformer with an output voltage of 300V and an output current of 100A; by analogy, by changing the number of turns of the secondary coil 21, a transformer with different output voltages and currents can be obtained.
[0028] By analogy, if the power of the unit module used is 5KW, 10KW, 25KW or even h...
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