(Solved): 37 In the RLC circuit shown in Figure 3.10 assume L=2H,R=7Omega, and C=(1)/(3)F. Write the governing ...
37 In the RLC circuit shown in Figure 3.10 assume L=2H,R=7Omega, and C=(1)/(3)F. Write the governing equation as a second-order ODE in current i(t). If the circuit is subject to initial conditions i(0)=(3)/(2)A and (di)/(dt)(0)=0, find the current i(t) for t >= 0. 38 In the RLC circuit of Figure 3.10 , assume L=1H,R=3Omega, and C=0.5F. Write the governing equation as a second-order ODE in electric charge q(t). If the circuit is subject to initial conditions i(0)=0 and (di)/(dt)(0)=1, find the current i(t) for t >= 0. 39 Write the governing equation for the LC circuit in Figure 3.11 as a second-order ODE in current i(t). Assuming initial conditions i(0)=0 and (di)/(dt)(0)=(1)/(sqrt(LC)), find the current i(t) for t >= 0.
Figure 3.8 Figure 3.9 37 In the RLC circuit shown in Figure 3.10 assume L=2H,R=7?, and C=31?F. Write the governing equation as a second-order ODE in current i(t). If the circuit is subject to initial conditions i(0)=23?A and dtdi?(0)=0, find the current i(t) for t?0. 38 In the RLC circuit of Figure 3.10, assume L=1H,R=3?, and C=0.5F. Write the governing equation as a second-order ODE in electric charge q(t). If the circuit is subject to initial conditions i(0)=0 and dtdi?(0)=1, find the current i(t) for t?0. 39 Write the governing equation for the LC circuit in Figure 3.11 as a second-order ODE in current i(t). Assuming initial conditions i(0)=0 and dtdi?(0)=LC?1?, find the current i(t) for t?0. Figure 3.11 Figure 3.10