A damped oscillatory wave generation circuit, method and damped oscillatory generator
A damped oscillatory wave and generation method technology, applied in the field of damped oscillator generators and damped oscillatory wave generating circuits, can solve problems such as the lack of reliable generation of damped oscillatory waves, achieve improved accuracy, simple circuit structure and parameter calculation methods, Accurate effect
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Embodiment 1
[0044] Such as figure 2 As shown, Embodiment 1 of the present disclosure provides a damped oscillatory wave generating circuit, including a DC power supply E, a first resistor R 1 , the second resistor R 2 , the first capacitor C, the first inductance L, the first switch K 1 and the second switch K 2 , the positive output terminal of the DC power supply E passes through the first resistor R 2 with the first switch K 1 Connected at one end, the first switch K 1 The other end is divided into two paths, one path is connected to the positive pole of the first capacitor C, the negative pole of the first capacitor C is connected to the negative pole of the DC power supply E, and the other path passes through the second switch K connected in series in turn 2 , the first inductor L and the second resistor R 2 Then connect to the negative pole of the first capacitor C, the negative pole of the DC power supply E and the negative pole of the first capacitor C are both grounded.
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Embodiment 2
[0047] Such as image 3 As shown, Embodiment 2 of the present disclosure discloses a method for generating a damped oscillatory wave;
[0048] Utilize the damped oscillatory wave generation circuit described in embodiment 1;
[0049] After confirming that the DC power supply is connected, switch K 1 opening time, K 2 close at the same time;
[0050] The DC power supply voltage, the required oscillation frequency, the oscillation coefficient, and the value of the second resistor are preset. Since the value of the first resistor does not affect the peak voltage across the first inductor, the first resistor can be any value, and The value of the second resistor determines the size of the first inductance and the first capacitor in the RLC circuit and the peak value of the damped oscillation wave generated at both ends of the second resistor;
[0051] Determine the values of the first capacitance and the first inductance according to the required oscillation wave frequency, th...
Embodiment 3
[0089] Embodiment 3 of the present disclosure discloses a method for generating a 3MHz damped oscillatory wave, specifically:
[0090] Using Matlab software for circuit simulation to generate a 3MHz damped oscillatory wave with a voltage level of 0.5kV.
[0091] Assume that the switch action time is 1μs after the power is turned on, the power supply voltage is 8kV, the frequency f is 3MHz, the coefficient k=0.2, and the resistance R 2 =10Ω, then L and C are respectively:
[0092]
[0093] The resistance R is simulated in Matlab 2 The voltage waveforms at both ends are shown in Figure 4(a) and Figure 4(b), from which it can be concluded that at this time the second resistor R 2 A damped oscillatory wave with a peak value of 0.48kV and a frequency of 3MHz is generated at both ends.
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