\(10~\mu\text F\) capacitor is connected to a \(210~\text V,50~\text{Hz}\) source as shown in the figure. The peak current in the circuit is nearly \((\pi = 3.14)\):
1. \(0.93~\text A\) 2. \(1.20~\text A\)
3. \(0.35~\text A\) 4. \(0.58~\text A\)
Subtopic:  RMS & Average Values |
 55%
Level 3: 35%-60%
NEET - 2024
Hints

A standard filament lamp consumes \(100~\text W\) when connected to \(200~\text V\) AC mains supply. The peak current through the bulb will be:
1. \(0.707~\text A\) 
2. \(1~\text A\) 
3. \(1.414~\text A\) 
4. \(2~\text A\) 
Subtopic:  RMS & Average Values |
 75%
Level 2: 60%+
NEET - 2022
Hints

The peak voltage of the AC source is equal to:
1. \(1 / \sqrt{2}\) times the rms value of the AC source.
2. the value of voltage supplied to the circuit.
3. the rms value of the AC source.
4. \(\sqrt{2}\) times the rms value of the AC source.
Subtopic:  RMS & Average Values |
 78%
Level 2: 60%+
NEET - 2022
Hints

advertisementadvertisement

A \(40~\mu\text F\) capacitor is connected to a \(200~\text V,\) \(50~\text{Hz}\) AC supply. The RMS value of the current in the circuit is, nearly:
1. \(2.05~\text A\) 2. \(2.5~\text A\)
3. \(25.1~\text A\) 4. \(1.7~\text A\)
Subtopic:  RMS & Average Values |
 72%
Level 2: 60%+
NEET - 2020
Hints
Links

A small-signal voltage \(V(t)= V_0 \text{sin}(\omega t)\) is applied across an ideal capacitor \(C\): Find the correct statement from the options given below:
1. over a full cycle, the capacitor \(C\) does not consume any energy from the voltage source.
2. current \(I(t)\) is in phase with voltage \(V(t)\).
3. current \(I(t)\) leads voltage \(V(t)\) by \(180^{\circ}\).
4. current \(I(t)\), lags voltage \(V(t)\) by \(90^{\circ}\).
Subtopic:  Power factor |
 76%
Level 2: 60%+
NEET - 2016
Hints

In the circuit shown below, the inductance \(L\) is connected to a source. The current flowing in the circuit is \({I=I_{0}\sin\omega t.}\) The voltage drop \((V_L)\) across \(L\) is:
1. \(\omega L~I_0\sin\omega t\) 2. \(\frac{{I}_0}{\omega{L}}\sin\omega t\)
3. \(\frac{{I}_0}{\omega{L}}\cos\omega t\) 4. \(\omega L~I_0\cos\omega t\)
Subtopic:  Different Types of AC Circuits |
 51%
Level 3: 35%-60%
NEET - 2024
Hints

advertisementadvertisement

\(L,C\) and \(R\) represent the value of inductance, capacitance, and resistance, respectively. The factor which has the same dimensions as that of the inverse of the resonance frequency is:
1. \(\sqrt{LC}\) 2. \(\sqrt{\dfrac{L}{C}}\)
3. \(\dfrac{C}{L}\) 4. \(\dfrac{R}{L}\)
Subtopic:  Different Types of AC Circuits |
 78%
Level 2: 60%+
NEET - 2024
Hints

An AC source is connected to the given circuit. The value of \(\phi\) will be:
1. \(60^\circ\) 2. \(90^\circ\)
3. \(30^\circ\) 4. \(45^\circ\)
Subtopic:  Different Types of AC Circuits |
 70%
Level 2: 60%+
NEET - 2023
Hints

If \(Z_1\) and \(Z_2\) are the impedances of the given circuits \(\mathrm{(a)}\) and \(\mathrm{(b)}\) as shown in the figures, then choose the correct option:
1. \(Z_1<Z_2\) 2. \(Z_1+Z_2=20~\Omega\)
3. \(Z_1=Z_2\) 4. \(Z_1>Z_2\)
Subtopic:  Different Types of AC Circuits |
 67%
Level 2: 60%+
NEET - 2023
Hints

advertisementadvertisement

The maximum power is dissipated for an AC in a/an:
1. resistive circuit 2. \({LC}\) circuit
3. inductive circuit 4. capacitive circuit
Subtopic:  Power factor |
 75%
Level 2: 60%+
NEET - 2023
Hints