Child�s law
CR law
Coulomb�s law
Debye T3 law
B. CR law
Because it is a simple circuit
Because dc circuits require only resistance as load
Because they do not exist in a dc circuit
Because frequency of dc is zero
Half
Twice
One-fourth
Three times
Compensation theorem
Reciprocity theorem
Millman�s theorem
Superposition theorem
Negative
Positive
Zero
Infinite
Reactance
Impedance
Resistance
Conductance
Unity
Leading
Lagging
Either B or C
Polar
Rectangular
Trigonometric
Exponential
Increases with increasing temperature
Increase with decreasing temperature
Stays unchanged with temperature change
Stays unaffected even with increasing temperature
Decreases
Remains the same
Increases
Varies
503 kHz
403 kHz
603 kHz
303 kHz
Equals its peak value
Equals its peak-to-peak value
Peak divided by square root of two
Peak divided by pi
Positive
Negative
Zero
Infinite
Electrolytic
Bases
Acid
Electrolytes
3 mH
9 mH
27mH
18 mH
Large self-induced voltage across L
Long time constant
Low resistance of the open switch
Surge of resistance
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
Square wave
Triangular wave
Trapezoidal wave
Sawtooth wave
The greater the bandwidth
The narrower the passband
The broader the resonance curve
The wider the passband
1501 V
1174V
1877V
991 V
Conductors only
Dielectric only
Conductors separated by a dielectric
Dielectric separated by a conductor
Area of plates
Number of plates
Distance between plates
Dielectric material used
0.001 H
0.01 H
0.0001 H
0.10 H
Carbon
Nickel
Brass
Constantan
Bifilar resistor
Wire-wound resistor
Anti-inductive resistor
Bleeder resistor
The current is zero in all the other resistances
The current is maximum in all the other resistances
The voltage is zero across the open resistance
The voltage is infinite across the open resistance
Square wave
Sinusoidal wave
Triangular wave
Rectangular wave
Directly proportional to
Inversely proportional to
Equal to
Inversely proportional to the square of
Power absorbed is maximum
Power absorbed is minimum
Power absorbed is zero
The impedance is minimum
The same as
The converse of
Older that
More accurate than