Solve previous problem using the mesh-current method.

Determine values of the mesh currents if, $i_1, i_2, t_3$, and $\tau_4$ in the circuit shown in Figure

a) Use the mesh-current method to find the power delivered to the $2 \Omega$ resistor in the circuit

b) What percentage of the total power developed in the circuit is delivered to the $2 \Omega$ resistor?

Solve previous problem using the mesh-current method.

Refer to the circuit of the given figure. a. Simplify the circuit and write the mesh equations. b. Solve for the loop currents. c. Determine the voltage $\mathbf{V}$ across the $15-\Omega$ capacitor.

Solve Problem earlier using the mesh-current method.

The circuit in the given figure is in the zero state. Use mesh-current equations to find the circuit determinant. Select values of if, $R, L$, and $C$ so that the circuit has $\omega_{0}=$ $10 \mathrm{~krad} / \mathrm{s}$ and $\zeta=1$.

Using node voltage analysis in the circuit of the figure, find the current $i$ through the voltage source.

Consider the circuit of the given figure. a. Simplify the circuit and write the mesh equations. b. Solve for the loop currents. c. Determine the voltage $\mathrm{V}$ across the $2-\Omega$ resistor.

Using the method of mesh currents, any resistance common to two meshes has a. two opposing mesh currents. b. one common mesh current. c. zero current. d. none of the above.

(a) Using a computer simulation, determine each diode current and voltage in the circuit. (b) Repeat part (a) using the circuit parameters given in previous exercise.

Use the mesh-current method to find the power dissipated in the $20 \Omega$ resistor in the circuit in Fig. earlier

Write mesh equations for the circuit of the given figure. (This is a very challenging problem.)

The noninverting amplifier has a current-boosted output. What is the voltage gain of the circuit? If the transistor has a current gain of 100, what is the short-circuit output current?