Given \(n\) resistors each of resistance \(R,\) what is the ratio of the maximum to minimum resistance?
1. \(\dfrac{1}{n}\)
2. \(n\)
3. \(\dfrac{1}{n^2}\)
4. \(n^2\)
Given the resistances of 1Ω, 2Ω, 3Ω, how will we combine them to get an equivalent resistance of (11/3):
1. | 1Ω, 2Ω in parallel and the combination in series with 3Ω |
2. | 3Ω, 2Ω in parallel and the combination in series with 1Ω |
3. | 1Ω, 2Ω and 3Ω in parallel |
4. | 1Ω, 2Ω in series and the combination in parallel with 3Ω |
Three resistors \(2~\Omega, 4~\Omega\)
1. \(10~\text A\)
2. \(17~\text A\)
3. \(13~\text A\)
4. \(19~\text A\)
The current drawn from a \(12~\text{V}\) supply with internal resistance \(0.5~\Omega\) by the infinite network (shown in the figure) is:
1. \(3.12~\text{A}\)
2. \(3.72~\text{A}\)
3. \(2.29~\text{A}\)
4. \(2.37~\text{A}\)