358338 There is a point charge \(q\) located at the centre of a cube. What is the electric flux of this point charge, through a face of the cube?

358339 A charge \(q\) is distributed uniformly on a ring of radius \(R\). A sphere of equal radius \(R\) is constructed with its centre at the periphery of the ring. Find the flux of the electric field through the surface of the sphere.

358340 A spherical rubber balloon carries a charge, uniformly distributed over the surface. As the balloon is blown up and increase in size, the total electric flux coming out of the surface

358341 Assertion :
A point charge is lying at the centre of a cube of each side in space. The electric flux emanating from each surface of the cube is \(\dfrac{1^{\text {th }}}{6}\) of total flux.
Reason :
According to Gauss theorem, total electric flux through a closed surface enclosing a charge is equal to \(1 / \varepsilon_{0}\) times the magnitude of the charge enclosed.

358338 There is a point charge \(q\) located at the centre of a cube. What is the electric flux of this point charge, through a face of the cube?

358339 A charge \(q\) is distributed uniformly on a ring of radius \(R\). A sphere of equal radius \(R\) is constructed with its centre at the periphery of the ring. Find the flux of the electric field through the surface of the sphere.

358340 A spherical rubber balloon carries a charge, uniformly distributed over the surface. As the balloon is blown up and increase in size, the total electric flux coming out of the surface

358341 Assertion :
A point charge is lying at the centre of a cube of each side in space. The electric flux emanating from each surface of the cube is \(\dfrac{1^{\text {th }}}{6}\) of total flux.
Reason :
According to Gauss theorem, total electric flux through a closed surface enclosing a charge is equal to \(1 / \varepsilon_{0}\) times the magnitude of the charge enclosed.

358338 There is a point charge \(q\) located at the centre of a cube. What is the electric flux of this point charge, through a face of the cube?

358339 A charge \(q\) is distributed uniformly on a ring of radius \(R\). A sphere of equal radius \(R\) is constructed with its centre at the periphery of the ring. Find the flux of the electric field through the surface of the sphere.

358340 A spherical rubber balloon carries a charge, uniformly distributed over the surface. As the balloon is blown up and increase in size, the total electric flux coming out of the surface

358341 Assertion :
A point charge is lying at the centre of a cube of each side in space. The electric flux emanating from each surface of the cube is \(\dfrac{1^{\text {th }}}{6}\) of total flux.
Reason :
According to Gauss theorem, total electric flux through a closed surface enclosing a charge is equal to \(1 / \varepsilon_{0}\) times the magnitude of the charge enclosed.

358338 There is a point charge \(q\) located at the centre of a cube. What is the electric flux of this point charge, through a face of the cube?

358339 A charge \(q\) is distributed uniformly on a ring of radius \(R\). A sphere of equal radius \(R\) is constructed with its centre at the periphery of the ring. Find the flux of the electric field through the surface of the sphere.

358340 A spherical rubber balloon carries a charge, uniformly distributed over the surface. As the balloon is blown up and increase in size, the total electric flux coming out of the surface

358341 Assertion :
A point charge is lying at the centre of a cube of each side in space. The electric flux emanating from each surface of the cube is \(\dfrac{1^{\text {th }}}{6}\) of total flux.
Reason :
According to Gauss theorem, total electric flux through a closed surface enclosing a charge is equal to \(1 / \varepsilon_{0}\) times the magnitude of the charge enclosed.