30.1 The parallel network of Figure 2.33 is connected to a sinusoidal ac supply that is...

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30.1 The parallel network of Figure 2.33 is connected to a sinusoidal ac supply that is represented by the following equation: 339.411 cos (@t-2) V at 60 Hz 30.2 e(t) = Calculate the voltage drop across the coil ZL3. C Calculate the resistance and inductance of the coil Z₁3. ) 30.3 Calculate the current drawn from the supply. 30.4 Calculate the total power factor of the circuit. 30.5 Calculate the value of the component to be connected in the circuit to improve the power factor to unity. The current flowing in the capacitor C3 is measured as 8.842-6.5° A. The current flowing in the resistor R2 is measured as 7.7 A at a power factor of 0.9063. R₂ = 16 Ω wwwww ZL3 ✓000000 C3 = 180 μF Z₁2 +www-000000 R₁ = 30 92 wwwww C₁ = 150 μF 30.1 The parallel network of Figure 2.33 is connected to a sinusoidal ac supply that is represented by the following equation: 339.411 cos (@t-2) V at 60 Hz 30.2 e(t) = Calculate the voltage drop across the coil ZL3. C Calculate the resistance and inductance of the coil Z₁3. ) 30.3 Calculate the current drawn from the supply. 30.4 Calculate the total power factor of the circuit. 30.5 Calculate the value of the component to be connected in the circuit to improve the power factor to unity. The current flowing in the capacitor C3 is measured as 8.842-6.5° A. The current flowing in the resistor R2 is measured as 7.7 A at a power factor of 0.9063. R₂ = 16 Ω wwwww ZL3 ✓000000 C3 = 180 μF Z₁2 +www-000000 R₁ = 30 92 wwwww C₁ = 150 μF