155045 A parallel combination of pure inductor and capacitor is connected across a source of alternating e.m.f. ' $e$ '. The currents flowing through an inductor and capacitor are $i_{L}$ and $i_{C}$ respectively. In this parallel resonant circuit, the condition for currents $i, i_{L}$ and $i_{C}$ is $(i=$ net r.m.s. current in the circuit)
155045 A parallel combination of pure inductor and capacitor is connected across a source of alternating e.m.f. ' $e$ '. The currents flowing through an inductor and capacitor are $i_{L}$ and $i_{C}$ respectively. In this parallel resonant circuit, the condition for currents $i, i_{L}$ and $i_{C}$ is $(i=$ net r.m.s. current in the circuit)
155045 A parallel combination of pure inductor and capacitor is connected across a source of alternating e.m.f. ' $e$ '. The currents flowing through an inductor and capacitor are $i_{L}$ and $i_{C}$ respectively. In this parallel resonant circuit, the condition for currents $i, i_{L}$ and $i_{C}$ is $(i=$ net r.m.s. current in the circuit)
155045 A parallel combination of pure inductor and capacitor is connected across a source of alternating e.m.f. ' $e$ '. The currents flowing through an inductor and capacitor are $i_{L}$ and $i_{C}$ respectively. In this parallel resonant circuit, the condition for currents $i, i_{L}$ and $i_{C}$ is $(i=$ net r.m.s. current in the circuit)
155045 A parallel combination of pure inductor and capacitor is connected across a source of alternating e.m.f. ' $e$ '. The currents flowing through an inductor and capacitor are $i_{L}$ and $i_{C}$ respectively. In this parallel resonant circuit, the condition for currents $i, i_{L}$ and $i_{C}$ is $(i=$ net r.m.s. current in the circuit)