Resonance in Series LCR Circuit
« Previous Topic: Power in AC Circuits Next Topic: Transformers »
NEET Test Series from KOTA - 10 Papers In MS WORD WhatsApp Here
PHXII07:ALTERNATING CURRENT

356227 In an \(L-C-R\) series, AC circuit at resonance,

1 the capacitive reactance is more than the inductive reactance
2 the capacitive reactance equals the inductive reactance
3 the capacitive reactance is less than the inductive reactance
4 the power dissipated is minimum
PHXII07:ALTERNATING CURRENT

356228 A circuit consists of a resistor, an inductor and a capacitor connected in series. If the resistance of a resistor is \(25 \Omega\) and the value of inductive reactance is equal to capacitive reactance, then the net impedance of the circuit will be

1 \(5\,\Omega \)
2 \(25\,\Omega \)
3 \(125\,\Omega \)
4 \(625\,\Omega \)
PHXII07:ALTERNATING CURRENT

356229 Assertion :
In series L-C-R circuit resonance can take place.
Reason :
Resonance takes place if inductive and capacitive reactances are equal and opposite.

1 Both assertion and reason are correct and reason isthe correct explanation of assertion.
2 Both assertion and reason are correct but reason is not the correct explanation of assertion.
3 Assertion is correct but reason is incorrect.
4 Assertion is incorrect but reason is correct.
PHXII07:ALTERNATING CURRENT

356230 In a series resonant \(L C R\) circuit, the voltage across \(R\) is \(100\,V\) and \(R = 1\,k\Omega \) with \(C = 2\,\mu {\rm{F}}\). The resonant frequency \(\omega\) is \(200\,rad{\rm{/}}s\). At resonance, the voltage across \(L\) is:

1 \(40\;V\)
2 \(250\;V\)
3 \(4 \times {10^{ - 3}}\;V\)
4 \(25\,mV\)
NEET DIGITAL LIBRARY
PHXII07:ALTERNATING CURRENT

356227 In an \(L-C-R\) series, AC circuit at resonance,

1 the capacitive reactance is more than the inductive reactance
2 the capacitive reactance equals the inductive reactance
3 the capacitive reactance is less than the inductive reactance
4 the power dissipated is minimum
PHXII07:ALTERNATING CURRENT

356228 A circuit consists of a resistor, an inductor and a capacitor connected in series. If the resistance of a resistor is \(25 \Omega\) and the value of inductive reactance is equal to capacitive reactance, then the net impedance of the circuit will be

1 \(5\,\Omega \)
2 \(25\,\Omega \)
3 \(125\,\Omega \)
4 \(625\,\Omega \)
PHXII07:ALTERNATING CURRENT

356229 Assertion :
In series L-C-R circuit resonance can take place.
Reason :
Resonance takes place if inductive and capacitive reactances are equal and opposite.

1 Both assertion and reason are correct and reason isthe correct explanation of assertion.
2 Both assertion and reason are correct but reason is not the correct explanation of assertion.
3 Assertion is correct but reason is incorrect.
4 Assertion is incorrect but reason is correct.
PHXII07:ALTERNATING CURRENT

356230 In a series resonant \(L C R\) circuit, the voltage across \(R\) is \(100\,V\) and \(R = 1\,k\Omega \) with \(C = 2\,\mu {\rm{F}}\). The resonant frequency \(\omega\) is \(200\,rad{\rm{/}}s\). At resonance, the voltage across \(L\) is:

1 \(40\;V\)
2 \(250\;V\)
3 \(4 \times {10^{ - 3}}\;V\)
4 \(25\,mV\)
Join With Us for More Updates
PHXII07:ALTERNATING CURRENT

356227 In an \(L-C-R\) series, AC circuit at resonance,

1 the capacitive reactance is more than the inductive reactance
2 the capacitive reactance equals the inductive reactance
3 the capacitive reactance is less than the inductive reactance
4 the power dissipated is minimum
PHXII07:ALTERNATING CURRENT

356228 A circuit consists of a resistor, an inductor and a capacitor connected in series. If the resistance of a resistor is \(25 \Omega\) and the value of inductive reactance is equal to capacitive reactance, then the net impedance of the circuit will be

1 \(5\,\Omega \)
2 \(25\,\Omega \)
3 \(125\,\Omega \)
4 \(625\,\Omega \)
PHXII07:ALTERNATING CURRENT

356229 Assertion :
In series L-C-R circuit resonance can take place.
Reason :
Resonance takes place if inductive and capacitive reactances are equal and opposite.

1 Both assertion and reason are correct and reason isthe correct explanation of assertion.
2 Both assertion and reason are correct but reason is not the correct explanation of assertion.
3 Assertion is correct but reason is incorrect.
4 Assertion is incorrect but reason is correct.
PHXII07:ALTERNATING CURRENT

356230 In a series resonant \(L C R\) circuit, the voltage across \(R\) is \(100\,V\) and \(R = 1\,k\Omega \) with \(C = 2\,\mu {\rm{F}}\). The resonant frequency \(\omega\) is \(200\,rad{\rm{/}}s\). At resonance, the voltage across \(L\) is:

1 \(40\;V\)
2 \(250\;V\)
3 \(4 \times {10^{ - 3}}\;V\)
4 \(25\,mV\)
For More Updates join with Us
NEET Test Series from KOTA - 10 Papers In MS WORD WhatsApp Here
PHXII07:ALTERNATING CURRENT

356227 In an \(L-C-R\) series, AC circuit at resonance,

1 the capacitive reactance is more than the inductive reactance
2 the capacitive reactance equals the inductive reactance
3 the capacitive reactance is less than the inductive reactance
4 the power dissipated is minimum
PHXII07:ALTERNATING CURRENT

356228 A circuit consists of a resistor, an inductor and a capacitor connected in series. If the resistance of a resistor is \(25 \Omega\) and the value of inductive reactance is equal to capacitive reactance, then the net impedance of the circuit will be

1 \(5\,\Omega \)
2 \(25\,\Omega \)
3 \(125\,\Omega \)
4 \(625\,\Omega \)
PHXII07:ALTERNATING CURRENT

356229 Assertion :
In series L-C-R circuit resonance can take place.
Reason :
Resonance takes place if inductive and capacitive reactances are equal and opposite.

1 Both assertion and reason are correct and reason isthe correct explanation of assertion.
2 Both assertion and reason are correct but reason is not the correct explanation of assertion.
3 Assertion is correct but reason is incorrect.
4 Assertion is incorrect but reason is correct.
PHXII07:ALTERNATING CURRENT

356230 In a series resonant \(L C R\) circuit, the voltage across \(R\) is \(100\,V\) and \(R = 1\,k\Omega \) with \(C = 2\,\mu {\rm{F}}\). The resonant frequency \(\omega\) is \(200\,rad{\rm{/}}s\). At resonance, the voltage across \(L\) is:

1 \(40\;V\)
2 \(250\;V\)
3 \(4 \times {10^{ - 3}}\;V\)
4 \(25\,mV\)
NEET DIGITAL LIBRARY