359413 A thin spherical shell is charged by some source. The potential difference between the two points \({C}\) and \({P}\) (in \({V}\) ) shown in the figure is:
\({\left(\right.}\) Take \({\dfrac{1}{4 \pi \varepsilon_{0}}=9 \times 10^{9} S I}\) units \({)}\)

359414 Statement A :
Two adjacent conductors of unequal dimensions, carrying the same positive charge have non-zero potential difference between them.
Statement B :
The potential of a conductor depends upon only the charge given to it.

359415 Assertion :
For practical purposes, the earth is used as a reference at zero potential in electrical circuits.
Reason :
The electrical potential of a sphere of radius \(R\) with charge \(Q\) uniformly distributed on the surface is given by \(\dfrac{Q}{4 \pi \varepsilon_{0} R}\). As \(R\) is very large and \(Q\) is very small (total charge of earth) so the net potential of earth is approximately zero.

359416 The potential of a large liquid drop when eight liquid drops are combined is \(20\;V\). Then the potential of each single drop was

359417 A hollow conducting sphere is placed in an electric field produced by a point charge placed at \(P\) as shown in figure. Let \({V_A},{V_B},{V_C}\) be the potential at points \(A\),\(B\) and \(C\) respectively. Then

359413 A thin spherical shell is charged by some source. The potential difference between the two points \({C}\) and \({P}\) (in \({V}\) ) shown in the figure is:
\({\left(\right.}\) Take \({\dfrac{1}{4 \pi \varepsilon_{0}}=9 \times 10^{9} S I}\) units \({)}\)

359414 Statement A :
Two adjacent conductors of unequal dimensions, carrying the same positive charge have non-zero potential difference between them.
Statement B :
The potential of a conductor depends upon only the charge given to it.

359415 Assertion :
For practical purposes, the earth is used as a reference at zero potential in electrical circuits.
Reason :
The electrical potential of a sphere of radius \(R\) with charge \(Q\) uniformly distributed on the surface is given by \(\dfrac{Q}{4 \pi \varepsilon_{0} R}\). As \(R\) is very large and \(Q\) is very small (total charge of earth) so the net potential of earth is approximately zero.

359416 The potential of a large liquid drop when eight liquid drops are combined is \(20\;V\). Then the potential of each single drop was

359417 A hollow conducting sphere is placed in an electric field produced by a point charge placed at \(P\) as shown in figure. Let \({V_A},{V_B},{V_C}\) be the potential at points \(A\),\(B\) and \(C\) respectively. Then

359413 A thin spherical shell is charged by some source. The potential difference between the two points \({C}\) and \({P}\) (in \({V}\) ) shown in the figure is:
\({\left(\right.}\) Take \({\dfrac{1}{4 \pi \varepsilon_{0}}=9 \times 10^{9} S I}\) units \({)}\)

359414 Statement A :
Two adjacent conductors of unequal dimensions, carrying the same positive charge have non-zero potential difference between them.
Statement B :
The potential of a conductor depends upon only the charge given to it.

359415 Assertion :
For practical purposes, the earth is used as a reference at zero potential in electrical circuits.
Reason :
The electrical potential of a sphere of radius \(R\) with charge \(Q\) uniformly distributed on the surface is given by \(\dfrac{Q}{4 \pi \varepsilon_{0} R}\). As \(R\) is very large and \(Q\) is very small (total charge of earth) so the net potential of earth is approximately zero.

359416 The potential of a large liquid drop when eight liquid drops are combined is \(20\;V\). Then the potential of each single drop was

359417 A hollow conducting sphere is placed in an electric field produced by a point charge placed at \(P\) as shown in figure. Let \({V_A},{V_B},{V_C}\) be the potential at points \(A\),\(B\) and \(C\) respectively. Then

359413 A thin spherical shell is charged by some source. The potential difference between the two points \({C}\) and \({P}\) (in \({V}\) ) shown in the figure is:
\({\left(\right.}\) Take \({\dfrac{1}{4 \pi \varepsilon_{0}}=9 \times 10^{9} S I}\) units \({)}\)

359414 Statement A :
Two adjacent conductors of unequal dimensions, carrying the same positive charge have non-zero potential difference between them.
Statement B :
The potential of a conductor depends upon only the charge given to it.

359415 Assertion :
For practical purposes, the earth is used as a reference at zero potential in electrical circuits.
Reason :
The electrical potential of a sphere of radius \(R\) with charge \(Q\) uniformly distributed on the surface is given by \(\dfrac{Q}{4 \pi \varepsilon_{0} R}\). As \(R\) is very large and \(Q\) is very small (total charge of earth) so the net potential of earth is approximately zero.

359416 The potential of a large liquid drop when eight liquid drops are combined is \(20\;V\). Then the potential of each single drop was

359417 A hollow conducting sphere is placed in an electric field produced by a point charge placed at \(P\) as shown in figure. Let \({V_A},{V_B},{V_C}\) be the potential at points \(A\),\(B\) and \(C\) respectively. Then

359413 A thin spherical shell is charged by some source. The potential difference between the two points \({C}\) and \({P}\) (in \({V}\) ) shown in the figure is:
\({\left(\right.}\) Take \({\dfrac{1}{4 \pi \varepsilon_{0}}=9 \times 10^{9} S I}\) units \({)}\)

359414 Statement A :
Two adjacent conductors of unequal dimensions, carrying the same positive charge have non-zero potential difference between them.
Statement B :
The potential of a conductor depends upon only the charge given to it.

359415 Assertion :
For practical purposes, the earth is used as a reference at zero potential in electrical circuits.
Reason :
The electrical potential of a sphere of radius \(R\) with charge \(Q\) uniformly distributed on the surface is given by \(\dfrac{Q}{4 \pi \varepsilon_{0} R}\). As \(R\) is very large and \(Q\) is very small (total charge of earth) so the net potential of earth is approximately zero.

359416 The potential of a large liquid drop when eight liquid drops are combined is \(20\;V\). Then the potential of each single drop was

359417 A hollow conducting sphere is placed in an electric field produced by a point charge placed at \(P\) as shown in figure. Let \({V_A},{V_B},{V_C}\) be the potential at points \(A\),\(B\) and \(C\) respectively. Then