Cell
PHXII03:CURRENT ELECTRICITY

356892 The external resistance of a circuit is \(\eta \) times higher than the internal resistance of the source. The raito of the potential difference across the terminals of the source to its emf is

1 \(\frac{1}{\eta }\)
2 \(\eta \)
3 \(\frac{{1 + \eta }}{\eta }\)
4 \(\frac{\eta }{{1 + \eta }}\)
PHXII03:CURRENT ELECTRICITY

356893 A battery of \(\varepsilon \) and internal resistance r is connected across a resistance \(R\). Resistance \(R\) can be adjusted to any value greater than are equal to zero. A graph is plotted between the current (\(I\)) passing through the resistance and potential difference (\(V\)) across it.
Select the correct alternative (\(s\)):
supporting img

1 Internal resistance of battery is
2 Maximum current which can be taken from the battery is 4 \(A\)
3 \(V\) - \(I\) graph can never be a straight line as shown in figure
4 E.M.F of the battery is 20 \(V\)
PHXII03:CURRENT ELECTRICITY

356894 When a resistor of \(11\,\Omega\) is connected in series with an electric cell, the current flowing in it is \(0.5\;A\). Instead when a resistor of \(5\, \Omega\) is connected to the same electric cell in series, the current increases by \(0.4\;A\). The internal resistance of the cell is

1 \(1.5\, \Omega\)
2 \(2 \,\Omega\)
3 \(2.5\, \Omega\)
4 \(3.5\, \Omega\)
PHXII03:CURRENT ELECTRICITY

356895 The potential difference across the terminals of a battery is \(50\;V\) when \(11\;A\) current is drawn and \(60\;V\) when \(1\;A\) current is drawn. The emf and the internal resistance of the battery are

1 \(62\;V,2\,\Omega \)
2 \(63\;V,1\,\Omega \)
3 \(61\;V,1\,\Omega \)
4 \(64\;V,2\,\Omega \)
PHXII03:CURRENT ELECTRICITY

356896 A cell of internal resistance \(r\) is connected across an external resistance \(n r\). Then the ratio of the terminal voltage to the emf of the cell is

1 \(\dfrac{1}{n}\)
2 \(\dfrac{1}{n+1}\)
3 \(\dfrac{n}{n+1}\)
4 \(\dfrac{n-1}{n}\)
PHXII03:CURRENT ELECTRICITY

356892 The external resistance of a circuit is \(\eta \) times higher than the internal resistance of the source. The raito of the potential difference across the terminals of the source to its emf is

1 \(\frac{1}{\eta }\)
2 \(\eta \)
3 \(\frac{{1 + \eta }}{\eta }\)
4 \(\frac{\eta }{{1 + \eta }}\)
PHXII03:CURRENT ELECTRICITY

356893 A battery of \(\varepsilon \) and internal resistance r is connected across a resistance \(R\). Resistance \(R\) can be adjusted to any value greater than are equal to zero. A graph is plotted between the current (\(I\)) passing through the resistance and potential difference (\(V\)) across it.
Select the correct alternative (\(s\)):
supporting img

1 Internal resistance of battery is
2 Maximum current which can be taken from the battery is 4 \(A\)
3 \(V\) - \(I\) graph can never be a straight line as shown in figure
4 E.M.F of the battery is 20 \(V\)
PHXII03:CURRENT ELECTRICITY

356894 When a resistor of \(11\,\Omega\) is connected in series with an electric cell, the current flowing in it is \(0.5\;A\). Instead when a resistor of \(5\, \Omega\) is connected to the same electric cell in series, the current increases by \(0.4\;A\). The internal resistance of the cell is

1 \(1.5\, \Omega\)
2 \(2 \,\Omega\)
3 \(2.5\, \Omega\)
4 \(3.5\, \Omega\)
PHXII03:CURRENT ELECTRICITY

356895 The potential difference across the terminals of a battery is \(50\;V\) when \(11\;A\) current is drawn and \(60\;V\) when \(1\;A\) current is drawn. The emf and the internal resistance of the battery are

1 \(62\;V,2\,\Omega \)
2 \(63\;V,1\,\Omega \)
3 \(61\;V,1\,\Omega \)
4 \(64\;V,2\,\Omega \)
PHXII03:CURRENT ELECTRICITY

356896 A cell of internal resistance \(r\) is connected across an external resistance \(n r\). Then the ratio of the terminal voltage to the emf of the cell is

1 \(\dfrac{1}{n}\)
2 \(\dfrac{1}{n+1}\)
3 \(\dfrac{n}{n+1}\)
4 \(\dfrac{n-1}{n}\)
PHXII03:CURRENT ELECTRICITY

356892 The external resistance of a circuit is \(\eta \) times higher than the internal resistance of the source. The raito of the potential difference across the terminals of the source to its emf is

1 \(\frac{1}{\eta }\)
2 \(\eta \)
3 \(\frac{{1 + \eta }}{\eta }\)
4 \(\frac{\eta }{{1 + \eta }}\)
PHXII03:CURRENT ELECTRICITY

356893 A battery of \(\varepsilon \) and internal resistance r is connected across a resistance \(R\). Resistance \(R\) can be adjusted to any value greater than are equal to zero. A graph is plotted between the current (\(I\)) passing through the resistance and potential difference (\(V\)) across it.
Select the correct alternative (\(s\)):
supporting img

1 Internal resistance of battery is
2 Maximum current which can be taken from the battery is 4 \(A\)
3 \(V\) - \(I\) graph can never be a straight line as shown in figure
4 E.M.F of the battery is 20 \(V\)
PHXII03:CURRENT ELECTRICITY

356894 When a resistor of \(11\,\Omega\) is connected in series with an electric cell, the current flowing in it is \(0.5\;A\). Instead when a resistor of \(5\, \Omega\) is connected to the same electric cell in series, the current increases by \(0.4\;A\). The internal resistance of the cell is

1 \(1.5\, \Omega\)
2 \(2 \,\Omega\)
3 \(2.5\, \Omega\)
4 \(3.5\, \Omega\)
PHXII03:CURRENT ELECTRICITY

356895 The potential difference across the terminals of a battery is \(50\;V\) when \(11\;A\) current is drawn and \(60\;V\) when \(1\;A\) current is drawn. The emf and the internal resistance of the battery are

1 \(62\;V,2\,\Omega \)
2 \(63\;V,1\,\Omega \)
3 \(61\;V,1\,\Omega \)
4 \(64\;V,2\,\Omega \)
PHXII03:CURRENT ELECTRICITY

356896 A cell of internal resistance \(r\) is connected across an external resistance \(n r\). Then the ratio of the terminal voltage to the emf of the cell is

1 \(\dfrac{1}{n}\)
2 \(\dfrac{1}{n+1}\)
3 \(\dfrac{n}{n+1}\)
4 \(\dfrac{n-1}{n}\)
NEET Test Series from KOTA - 10 Papers In MS WORD WhatsApp Here
PHXII03:CURRENT ELECTRICITY

356892 The external resistance of a circuit is \(\eta \) times higher than the internal resistance of the source. The raito of the potential difference across the terminals of the source to its emf is

1 \(\frac{1}{\eta }\)
2 \(\eta \)
3 \(\frac{{1 + \eta }}{\eta }\)
4 \(\frac{\eta }{{1 + \eta }}\)
PHXII03:CURRENT ELECTRICITY

356893 A battery of \(\varepsilon \) and internal resistance r is connected across a resistance \(R\). Resistance \(R\) can be adjusted to any value greater than are equal to zero. A graph is plotted between the current (\(I\)) passing through the resistance and potential difference (\(V\)) across it.
Select the correct alternative (\(s\)):
supporting img

1 Internal resistance of battery is
2 Maximum current which can be taken from the battery is 4 \(A\)
3 \(V\) - \(I\) graph can never be a straight line as shown in figure
4 E.M.F of the battery is 20 \(V\)
PHXII03:CURRENT ELECTRICITY

356894 When a resistor of \(11\,\Omega\) is connected in series with an electric cell, the current flowing in it is \(0.5\;A\). Instead when a resistor of \(5\, \Omega\) is connected to the same electric cell in series, the current increases by \(0.4\;A\). The internal resistance of the cell is

1 \(1.5\, \Omega\)
2 \(2 \,\Omega\)
3 \(2.5\, \Omega\)
4 \(3.5\, \Omega\)
PHXII03:CURRENT ELECTRICITY

356895 The potential difference across the terminals of a battery is \(50\;V\) when \(11\;A\) current is drawn and \(60\;V\) when \(1\;A\) current is drawn. The emf and the internal resistance of the battery are

1 \(62\;V,2\,\Omega \)
2 \(63\;V,1\,\Omega \)
3 \(61\;V,1\,\Omega \)
4 \(64\;V,2\,\Omega \)
PHXII03:CURRENT ELECTRICITY

356896 A cell of internal resistance \(r\) is connected across an external resistance \(n r\). Then the ratio of the terminal voltage to the emf of the cell is

1 \(\dfrac{1}{n}\)
2 \(\dfrac{1}{n+1}\)
3 \(\dfrac{n}{n+1}\)
4 \(\dfrac{n-1}{n}\)
PHXII03:CURRENT ELECTRICITY

356892 The external resistance of a circuit is \(\eta \) times higher than the internal resistance of the source. The raito of the potential difference across the terminals of the source to its emf is

1 \(\frac{1}{\eta }\)
2 \(\eta \)
3 \(\frac{{1 + \eta }}{\eta }\)
4 \(\frac{\eta }{{1 + \eta }}\)
PHXII03:CURRENT ELECTRICITY

356893 A battery of \(\varepsilon \) and internal resistance r is connected across a resistance \(R\). Resistance \(R\) can be adjusted to any value greater than are equal to zero. A graph is plotted between the current (\(I\)) passing through the resistance and potential difference (\(V\)) across it.
Select the correct alternative (\(s\)):
supporting img

1 Internal resistance of battery is
2 Maximum current which can be taken from the battery is 4 \(A\)
3 \(V\) - \(I\) graph can never be a straight line as shown in figure
4 E.M.F of the battery is 20 \(V\)
PHXII03:CURRENT ELECTRICITY

356894 When a resistor of \(11\,\Omega\) is connected in series with an electric cell, the current flowing in it is \(0.5\;A\). Instead when a resistor of \(5\, \Omega\) is connected to the same electric cell in series, the current increases by \(0.4\;A\). The internal resistance of the cell is

1 \(1.5\, \Omega\)
2 \(2 \,\Omega\)
3 \(2.5\, \Omega\)
4 \(3.5\, \Omega\)
PHXII03:CURRENT ELECTRICITY

356895 The potential difference across the terminals of a battery is \(50\;V\) when \(11\;A\) current is drawn and \(60\;V\) when \(1\;A\) current is drawn. The emf and the internal resistance of the battery are

1 \(62\;V,2\,\Omega \)
2 \(63\;V,1\,\Omega \)
3 \(61\;V,1\,\Omega \)
4 \(64\;V,2\,\Omega \)
PHXII03:CURRENT ELECTRICITY

356896 A cell of internal resistance \(r\) is connected across an external resistance \(n r\). Then the ratio of the terminal voltage to the emf of the cell is

1 \(\dfrac{1}{n}\)
2 \(\dfrac{1}{n+1}\)
3 \(\dfrac{n}{n+1}\)
4 \(\dfrac{n-1}{n}\)