Current
Voltage
Gain
Impedance
A. Current
Infinite
Zero
Equal to the load resistance
To be determined
Equals its peak value
Equals its peak-to-peak value
Peak divided by square root of two
Peak divided by pi
Internal heating
Internal bleeding
Shorter useful life
Short-circuiting
1.65 kHz
16.5 MHz
16.5 kHz
165 kHz
Increasing capacitance
Decreasing capacitance
Reducing the working voltage
Increasing the distance between the plates
Decreases
Remains the same
Increases
Varies
By using multiplate construction
By using air as dielectric
By decreasing distance between plates
By using dielectric of low permittivity
Thickness
Length
Thinness
Area
Resistor
Capacitor
Inductor
Both inductor and capacitor
Increases two times
Increases four times
Decreases two times
Decreases four times
CV2/2
2Q2/C
C2/V
CV
Infinite
Zero
Low
High
6 K
3.7 K
5 K
4.7K
Superposition theorem
Millman�s theorem
Thevenin�s theorem
Norton�s theorem
Paper
Mica
Air
Electrolyte
Series resonance
Parallel resonance
Current magnification
Gain magnification
Inductive
Capacitive
Resistive
Infinite
Cryogenics
Superconductivity
Subsonic
Thermionic
Greater electrical power saving
Power loss is minimum
Appliances have different current ratings
All of the above
Mica
Air
Electrolyte
Ceramic
Reluctance
Susceptance
Elastance
Conductance
Unity
Leading
Lagging
Either B or C
Electric shock
Effects produced
Magnetic shock
Flashing
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
Infinite
Equal to the load resistance
Zero
To be determined
Directly proportional to
Inversely proportional to
Independent to
Equal to
Increases with increasing temperature
Increase with decreasing temperature
Stays unchanged with temperature change
Stays unaffected even with increasing temperature
Power absorbed is maximum
Power absorbed is minimum
Power absorbed is zero
The impedance is minimum
Current
Voltage
Gain
Impedance