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16.28 The periodic square-wave voltage seen seen in Fig. P16.28(a) is applied to the circuit shown in Fig. P16.28(b). Derive the first three nonzero terms in the Fourier series that represents the steady-state voltage vo if Vm= 157 V and the period of the in- put voltage is 47 ms. Figure P16.28 VI Vm 0 -Vm T/2 (a) T 1 + Vi 10 Ω www 10 mH , (b)

16.28 The periodic square-wave voltage seen seen in Fig. P16.28(a) is applied to the circuit shown in Fig. P16.28(b). Derive the first three nonzero terms in the Fourier series that represents the steady-state voltage vo if Vm= 157 V and the period of the in- put voltage is 47 ms. Figure P16.28 VI Vm 0 -Vm T/2 (a) T 1 + Vi 10 Ω www 10 mH , (b)

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16.28 The periodic square-wave voltage seen in Fig. P16.28(a) is applied to the circuit shown in Fig. P16.28(b). Derive the first three nonzero terms in the Fourier series that represents the steady-state voltage vo if Vm 157 V and the period of the in- put voltage is 47 ms. Figure P16.28 Vi Vm 0 -Vm T/2 T (a) t + Vi 10 Ω W (b) + 10 mH ,
Transcribed Image Text:16.28 The periodic square-wave voltage seen in Fig. P16.28(a) is applied to the circuit shown in Fig. P16.28(b). Derive the first three nonzero terms in the Fourier series that represents the steady-state voltage vo if Vm 157 V and the period of the in- put voltage is 47 ms. Figure P16.28 Vi Vm 0 -Vm T/2 T (a) t + Vi 10 Ω W (b) + 10 mH ,
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