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Title |
One-Step Power Factor Correction Choke, connected before rectifier bridge with switching transistor, diode and RC-Load
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Input |
· Set inductance at peak current (View the peak value on the current diagram) · Select the AC inductance : L-Type = 2 · Select Cu round wire: Wire = 0 · The frequency of the first harmonic is 50Hz · Set the rms values of harmonics of the thermal current: · Set the temperature rise · Select grain oriented steel. Note that the induction will be optimized by program in order to get optimal relationship between core losses and winding losses · Set Gap = 1 and Core Assembly = 2 or better · Select suitable core family |

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Output |
· Control the value of induction, gap and connected wires in parallel |
|
Test |
· Round the number of turns |
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Note |
· In order to calibrate the choke, connect it on the calculated calibration AC-voltage (rms value) with the calibration frequency (normally 50Hz or 60Hz) and then vary the gap until you get the calculated calibration AC-current (rms value). |
|
Title |
One-Step Power Factor Correction Choke, connected between rectifier bridge and switching transistor with diode and RC-Load
|
|
Input |
· Set inductance at peak current (View the peak value on the current diagram) · Select the differential inductance : L-Type = 4 · Select Cu round wire: Wire = 0 · The frequency of the first harmonic is 60Hz · Set the rms values of harmonics of the thermal current: · Set the temperature rise · Select grain oriented steel. Note that the induction will be optimized by program in order to get optimal relationship between core losses and winding losses · Set Gap = 1 and Core Assembly = 2 or better · Select suitable core family
|

|
Output |
· Control the value of induction, gap and wires connected in parallel |
|
Test |
· Round the number of turns
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|
Note |
·
In order to calibrate the choke, connect it on the
calculated calibration AC-voltage (rms value) with the calibration
frequency (normally 50Hz or 60Hz) and then vary the gap until you
get the calculated calibration AC-current (rms value). |
|
Title |
5-Step Power Factor Correction Choke, connected before rectifier bridge with switching transistor, diode and RC-Load
|
|
Input |
· Set inductance at peak current (View the peak value on the current diagram) · Select the AC inductance : L-Type = 2 · Select Cu round wire: Wire = 0 · The frequency of the first harmonic is 50Hz · Set the rms values of harmonics of the thermal current: · Set the temperature rise · Select grain oriented steel. Note that the induction will be optimized by program in order to get optimal relationship between core losses and winding losses · Set Gap = 1 and Core Assembly = 2 or better · Select suitable core family |

|
Output |
· Control the value of induction, gap and connected wires in parallel |
|
Test |
· Round the number of turns |
|
Note |
· In order to calibrate the choke, connect it on the calculated calibration AC-voltage (rms value) with the calibration frequency (normally 50Hz or 60Hz) and then vary the gap until you get the calculated calibration AC-current (rms value). |
|
Title |
5-Step Power Factor Correction Choke, connected between rectifier bridge and switching transistor with diode and RC-Load
|
|
Input |
· Set inductance at peak current (View the peak value on the current diagram) · Select the differential inductance : L-Type = 4 · Select Cu round wire: Wire = 0 · The frequency of the first harmonic is 50Hz · Set the rms values of harmonics of the thermal current: · Set the temperature rise · Select grain oriented steel. Note that the induction will be optimized by program in order to get optimal relationship between core losses and winding losses · Set Gap = 1 and Core Assembly = 2 or better · Select suitable core family |

|
Output |
· Control the value of induction, gap and connected wires in parallel |
|
Test |
· Round the number of turns |
|
Note |
· In order to calibrate the choke, connect it on the calculated calibration AC-voltage (rms value) with the calibration frequency (normally 50Hz or 60Hz) and then vary the gap until you get the calculated calibration AC-current (rms value). |