Increases with increasing temperature
Increase with decreasing temperature
Stays unchanged with temperature change
Stays unaffected even with increasing temperature
B. Increase with decreasing temperature
Increase the power rating compared with one resistor alone
Increase the voltage rating compared with one resistor alone
Reduce the voltage rating compared with resistor alone
Result in an expensive circuit
Resistor
Capacitor
Inductor
Both inductor and capacitor
Highest R has the highest V
Lowest R has the highest V
Lowest R has the highest I
Highest R has the highest I
A series resonant circuit is of high impedance
A parallel resonant circuit is of low impedance
A series resonant circuit is inductive if it operates at a frequency higher than the resonant frequency
A parallel resonant circuit is inductive if it operates at a frequency higher than the resonant frequency
A circuit with neither a source of current nor a source of potential difference
A circuit with a voltage source
A circuit with a current source
A circuit with only resistance as a load
Child�s law
CR law
Coulomb�s law
Debye T3 law
One-terminal
Two-terminal
Three-terminal
Complex
Voltage across the inductance leads the voltage across the resistance by 90°
Resistive branch current is 90° out of phase with the inductive branch current
Resistive and inductive branch currents have the same phase
Resistive and inductive branch currents are 180° outof-phase
1 c
5 c
25 C
200 c
Purely resistive circuit
Purely inductive circuit
Purely capacitive circuit
Circuit containing resistancea capacitance and inductance
Current magnification factor
Voltage magnification factor
Load factor
Leakage factor
RL= 2 r
RL= 1.5 r
RL= r
RL= 3 r
Wire-wound resistor
Carbon-composition resistor
Potentiometer
Rheostat
To increase the circuit current
To decrease the circuit current
To utilize electrical energy
To make the circuit complete
Half
Twice
One-fourth
Three times
2.592 x 105C
2.592 x 103 C
2.592 x 108 C
2.592 x 1012 C
Permittivity
Field intensity
Permeability
Elasticity
Current
Voltage
Gain
Impedance
Algebraic
Arithmetic
Vector
Phasor
Increased
The same
Decreased
Variable
40 H
40 mH
40 pH
40 nH
Voltage magnification factor
Current magnification factor
Gain magnification factor
Resonance magnification factor
The multiplier
The second digit of the value
The temperature
The tolerance
Increasing the frequency decreases the resistance
Increasing the frequency increases the resistance
Both XLand XCchange as frequency changes
Impedance will always decrease
Voltage
Power
Current
Resistance
Resonance quotient
Quality factor
Power quotient
Qualification test
Moving the coils closer
Moving the coils apart
Decreasing the number of turns of either coil
Increasing the number of turns of either coil
Electric current is directly proportional to both voltage and resistance
Electric current varies directly as the voltage and inversely as the resistance
Electrical power is directly proportional to the resistance and inversely as the current squared
Electrical power is directly proportional to both voltage squared and the resistance