Transmission line type pulsed electric field corona discharge reactor and manufacturing method
A technology of pulsed electric field and corona discharge, applied in the direction of electrical components, plasma, etc., can solve the problems of large structural capacitance and inability to generate pulsed electric field
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Embodiment 1
[0054] Embodiment 1: A method for manufacturing a transmission line type pulsed electric field corona discharge reactor, characterized in that it includes
[0055] Step 1: According to the total length L of high-voltage electrodes and the length X of each high-voltage electrode, determine the total number of high-voltage electrodes N according to the formula (1), and N is a positive integer:
[0056] N=L / X(1);
[0057] Step 2: Feed the high-voltage pulse signal into the head end of the first-stage high-voltage electrode through the high-voltage pulse generator, and monitor the waveform of the output high-voltage pulse signal at the end of the first-stage high-voltage electrode, and adjust so that the waveform of the fed-in high-voltage pulse signal is the same as the output high-voltage The waveform of the pulse signal is not distorted, so that a uniform transmission line is formed between the first-stage high-voltage electrode and the casing; the first end of the first-stage ...
Embodiment 2
[0059] Embodiment 2: On the basis of Embodiment 1, the specific step of determining the total length L of the high-voltage electrode in the step 1 is to calculate the total length L of the high-voltage electrode according to the formula (2):
[0060] L=P / Q (2)
[0061] Where P is the allowable attenuation of the pulse voltage amplitude during signal transmission in N-level series high-voltage electrodes, the unit is dB, and the Q is the attenuation of the signal transmitted by the high-voltage electrodes per meter, and the unit is dB / m.
Embodiment 3
[0062] Embodiment three: on the basis of embodiment one or two, the determination of the length X of each high-voltage electrode in the step 1, the specific steps:
[0063] Step 11: The insulation withstand voltage distance S between the high-voltage electrode and the shell can be obtained by formula (3):
[0064] S=k*Vcc / E (3)
[0065] Where E is the working field strength, the unit is V / m, and k is a safety factor greater than 1;
[0066] Step 12: According to the formula (4), the length X length of the high voltage electrode is obtained:
[0067] X=H-2*(S+M) (4)
[0068] where H is the height of the reactor in m and M is the height of the electrical connector in m.
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