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
A. A circuit with neither a source of current nor a source of potential difference
Superposition theorem
Millman�s theorem
Thevenin�s theorem
Norton�s theorem
Junction
Node
Terminal
Loop
Infinite
Zero
Low
High
A wave with twice the amplitude
A wave with half the amplitude
Zero signal
A wave with twice the frequency
Number of plates
Dielectric
Distance between plates
Plate area
Manganin
Carbon
Bronze
German silver wire
Reactance
Impedance
Resistance
Conductance
RL= 2 r
RL= 1.5 r
RL= r
RL= 3 r
Current magnification factor
Voltage magnification factor
Load factor
Leakage factor
3 mH
9 mH
27mH
18 mH
Parallel LC circuit
Series LCcircuit
A resonant circuit
A non-resonant circuit
Increases with increasing temperature
Increase with decreasing temperature
Stays unchanged with temperature change
Stays unaffected even with increasing temperature
Child�s law
CR law
Coulomb�s law
Debye T3 law
0.707times peak value
0.577 times peak value
0.577times average value
0.707times rms value
I2XL
IXL
IXL2
Moving the coils closer
Moving the coils apart
Decreasing the number of turns of either coil
Increasing the number of turns of either coil
Positive or negative ions
Free electrons
Ions that are lighter in weight than electrons
Protons
Rms
Peak
Average
Instantaneous
Dielectric strength
Potential gradient
Breakdown voltage
Specific inductance capacity
Zero
Infinite
High but within the tolerance
Low but not zero
It is a simple circuit
This makes the operation of appliances independent with each other
This results in reduced power consumption
All of the above
Voltages across R and XL are in phase
Voltage across R lags the voltage across XLby 90°
Voltages across R and XL are 180° outof-phase
Voltage across R leads the voltage across XLby 90°
Inductance
Capacitance
Resistance
Impedance
10.1 kHz
10.1 MHz
101 MHz
101 kHz
Infinite
Mica
Ceramic
Mylar
Electrolytic
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
Internal heating
Internal bleeding
Shorter useful life
Short-circuiting
Power system
Electronic system
Refrigeration
Air conditioning
Inductance
Conductance
Impedance
Resistance