FST 2
NEET Test Series from KOTA - 10 Papers In MS WORD WhatsApp Here
TEST SERIES (PHYSICS FST)

263917 In a circuit shown in figure, if the internal resistances of the sources are negligible then at what value of R will the thermal power generated in it will be the maximum:

1 \(1 \Omega\)
2 \(2 \Omega\)
3 \(3 \Omega\)
4 \(4 \Omega\)
TEST SERIES (PHYSICS FST)

263918 A series combination of \(n_1\) capacitors, each of value \(\mathrm{C}_1\), is charged by a source of potential difference 4 V . When another parallel combination of \(\mathrm{n}_2\) capacitors, each of value \(\mathrm{C}_2\) is connected across potential difference of 4 V . it has the same (total) energy stored in it, as first combination has. The value of \(\mathrm{C}_2\) in terms of \(\mathrm{C}_1\) is then:

1 \(\frac{\mathrm{C}_1}{\Pi_1 \Pi_2}\)
2 \(\frac{16 \frac{\Pi_2}{n_1} C_1}{}\)
3 \(2 \frac{n_2}{6 n_1} c_1\)
4 \(\frac{16 \mathrm{C}_1}{\pi_1 n_2}\)
TEST SERIES (PHYSICS FST)

263919 Two batteries, one of emf 18 volt and internal resistance 22 and the other of emf 12 volt and internal resistance \(1 \Omega\), are connected as shown in the adjoining figure. The voltmeter V will record a reading of:

1 30 wolt
2 18 wolt
3 15 wolt
4 14 wolt
TEST SERIES (PHYSICS FST)

263920 Two similar coils of radius \(R\) are lying concentrically with their planes at right angles to each other. The currents flowing in them are land 2l respectively. The resultant magnetic field induction at the center will be:

1 \(\frac{\mu_0 \mathrm{I}}{\mathrm{R}}\)
2 \(\frac{\sqrt{5} \mu_0}{2 R}\)
3 \(\frac{\mu_0 \mathrm{I}}{2 R}\)
4 \(\frac{3 \mu_0 \mathrm{l}}{2 R}\)
TEST SERIES (PHYSICS FST)

263917 In a circuit shown in figure, if the internal resistances of the sources are negligible then at what value of R will the thermal power generated in it will be the maximum:

1 \(1 \Omega\)
2 \(2 \Omega\)
3 \(3 \Omega\)
4 \(4 \Omega\)
TEST SERIES (PHYSICS FST)

263918 A series combination of \(n_1\) capacitors, each of value \(\mathrm{C}_1\), is charged by a source of potential difference 4 V . When another parallel combination of \(\mathrm{n}_2\) capacitors, each of value \(\mathrm{C}_2\) is connected across potential difference of 4 V . it has the same (total) energy stored in it, as first combination has. The value of \(\mathrm{C}_2\) in terms of \(\mathrm{C}_1\) is then:

1 \(\frac{\mathrm{C}_1}{\Pi_1 \Pi_2}\)
2 \(\frac{16 \frac{\Pi_2}{n_1} C_1}{}\)
3 \(2 \frac{n_2}{6 n_1} c_1\)
4 \(\frac{16 \mathrm{C}_1}{\pi_1 n_2}\)
TEST SERIES (PHYSICS FST)

263919 Two batteries, one of emf 18 volt and internal resistance 22 and the other of emf 12 volt and internal resistance \(1 \Omega\), are connected as shown in the adjoining figure. The voltmeter V will record a reading of:

1 30 wolt
2 18 wolt
3 15 wolt
4 14 wolt
TEST SERIES (PHYSICS FST)

263920 Two similar coils of radius \(R\) are lying concentrically with their planes at right angles to each other. The currents flowing in them are land 2l respectively. The resultant magnetic field induction at the center will be:

1 \(\frac{\mu_0 \mathrm{I}}{\mathrm{R}}\)
2 \(\frac{\sqrt{5} \mu_0}{2 R}\)
3 \(\frac{\mu_0 \mathrm{I}}{2 R}\)
4 \(\frac{3 \mu_0 \mathrm{l}}{2 R}\)
TEST SERIES (PHYSICS FST)

263917 In a circuit shown in figure, if the internal resistances of the sources are negligible then at what value of R will the thermal power generated in it will be the maximum:

1 \(1 \Omega\)
2 \(2 \Omega\)
3 \(3 \Omega\)
4 \(4 \Omega\)
TEST SERIES (PHYSICS FST)

263918 A series combination of \(n_1\) capacitors, each of value \(\mathrm{C}_1\), is charged by a source of potential difference 4 V . When another parallel combination of \(\mathrm{n}_2\) capacitors, each of value \(\mathrm{C}_2\) is connected across potential difference of 4 V . it has the same (total) energy stored in it, as first combination has. The value of \(\mathrm{C}_2\) in terms of \(\mathrm{C}_1\) is then:

1 \(\frac{\mathrm{C}_1}{\Pi_1 \Pi_2}\)
2 \(\frac{16 \frac{\Pi_2}{n_1} C_1}{}\)
3 \(2 \frac{n_2}{6 n_1} c_1\)
4 \(\frac{16 \mathrm{C}_1}{\pi_1 n_2}\)
TEST SERIES (PHYSICS FST)

263919 Two batteries, one of emf 18 volt and internal resistance 22 and the other of emf 12 volt and internal resistance \(1 \Omega\), are connected as shown in the adjoining figure. The voltmeter V will record a reading of:

1 30 wolt
2 18 wolt
3 15 wolt
4 14 wolt
TEST SERIES (PHYSICS FST)

263920 Two similar coils of radius \(R\) are lying concentrically with their planes at right angles to each other. The currents flowing in them are land 2l respectively. The resultant magnetic field induction at the center will be:

1 \(\frac{\mu_0 \mathrm{I}}{\mathrm{R}}\)
2 \(\frac{\sqrt{5} \mu_0}{2 R}\)
3 \(\frac{\mu_0 \mathrm{I}}{2 R}\)
4 \(\frac{3 \mu_0 \mathrm{l}}{2 R}\)
TEST SERIES (PHYSICS FST)

263917 In a circuit shown in figure, if the internal resistances of the sources are negligible then at what value of R will the thermal power generated in it will be the maximum:

1 \(1 \Omega\)
2 \(2 \Omega\)
3 \(3 \Omega\)
4 \(4 \Omega\)
TEST SERIES (PHYSICS FST)

263918 A series combination of \(n_1\) capacitors, each of value \(\mathrm{C}_1\), is charged by a source of potential difference 4 V . When another parallel combination of \(\mathrm{n}_2\) capacitors, each of value \(\mathrm{C}_2\) is connected across potential difference of 4 V . it has the same (total) energy stored in it, as first combination has. The value of \(\mathrm{C}_2\) in terms of \(\mathrm{C}_1\) is then:

1 \(\frac{\mathrm{C}_1}{\Pi_1 \Pi_2}\)
2 \(\frac{16 \frac{\Pi_2}{n_1} C_1}{}\)
3 \(2 \frac{n_2}{6 n_1} c_1\)
4 \(\frac{16 \mathrm{C}_1}{\pi_1 n_2}\)
TEST SERIES (PHYSICS FST)

263919 Two batteries, one of emf 18 volt and internal resistance 22 and the other of emf 12 volt and internal resistance \(1 \Omega\), are connected as shown in the adjoining figure. The voltmeter V will record a reading of:

1 30 wolt
2 18 wolt
3 15 wolt
4 14 wolt
TEST SERIES (PHYSICS FST)

263920 Two similar coils of radius \(R\) are lying concentrically with their planes at right angles to each other. The currents flowing in them are land 2l respectively. The resultant magnetic field induction at the center will be:

1 \(\frac{\mu_0 \mathrm{I}}{\mathrm{R}}\)
2 \(\frac{\sqrt{5} \mu_0}{2 R}\)
3 \(\frac{\mu_0 \mathrm{I}}{2 R}\)
4 \(\frac{3 \mu_0 \mathrm{l}}{2 R}\)