A. Inductors
B. Resistance
C. Capacitors
D. Transistors

A. Algebraic sum of losses in closed-loop
B. Algebraic sum of voltages in closed-loop
C. Algebraic sum of currents in closed-loop
D. Algebraic sum of power in closed-loop

A. It will be double the supply voltage
B. It will be half of the supply voltage
C. It will aid the supply voltage
D. It will oppose the supply voltage

A. Element is neither absorbing nor supplying power
B. Element is absorbing power
C. Element is supplying power
D. Element may absorb or supply power

A. One
B. Many
C. Two
D. Zero

A. Algebraic sum of voltages across the input and output
B. Algebraic sum of currents entering and leaving a junction
C. Algebraic sum of currents in closed-loop
D. Algebraic sum of power in closed-loop

A. Electrons
B. Protons and Electrons
C. Protons
D. Nucleus

A. Gustav Robert Kirchhoff
B. Hans Christian Orsted
C. Alexander Graham Bell
D. Michael Faraday

A. Frequency is zero
B. Flows in one direction
C. Magnitude is constant
D. Can be transported to larger distances with less loss in power

A. 12.48 * 10¹⁸ electrons
B. 3.204 * 10¹⁹ electrons
C. 6.24 * 10¹⁸ electrons
D. 1.602 * 10¹⁹ electrons