359495 The charges \(Q\), \( + q\) and \( + q\) are placed at the vertices of an equilateral triangle of side \(l\). If the net electrostatic potential energy of the system is zero, the \(Q\) is equal to

359496 If an electron is brought towards another electron, then the electric potential energy of the system

359497 Two equal point charges \(Q\) are fixed at \(x=-a\) and \(x=+a\) on \(X\)-axis. Another point charge is placed at the origin. The change in electrical potential energy of \(Q\), when it is displaced by a small amount \(x\) along \(X\)-axis, is approximately proportional to

359498 If \(E\) is the electric field intensity of an electrostatic field, then the electrostatic energy density is proportional to

359499 A hollow conducting sphere of radius \({R}\) is given a charge \({q}\). Another point charge \({q}\) is taken from centre to surface. Work done in the process is

359495 The charges \(Q\), \( + q\) and \( + q\) are placed at the vertices of an equilateral triangle of side \(l\). If the net electrostatic potential energy of the system is zero, the \(Q\) is equal to

359496 If an electron is brought towards another electron, then the electric potential energy of the system

359497 Two equal point charges \(Q\) are fixed at \(x=-a\) and \(x=+a\) on \(X\)-axis. Another point charge is placed at the origin. The change in electrical potential energy of \(Q\), when it is displaced by a small amount \(x\) along \(X\)-axis, is approximately proportional to

359498 If \(E\) is the electric field intensity of an electrostatic field, then the electrostatic energy density is proportional to

359499 A hollow conducting sphere of radius \({R}\) is given a charge \({q}\). Another point charge \({q}\) is taken from centre to surface. Work done in the process is

359495 The charges \(Q\), \( + q\) and \( + q\) are placed at the vertices of an equilateral triangle of side \(l\). If the net electrostatic potential energy of the system is zero, the \(Q\) is equal to

359496 If an electron is brought towards another electron, then the electric potential energy of the system

359497 Two equal point charges \(Q\) are fixed at \(x=-a\) and \(x=+a\) on \(X\)-axis. Another point charge is placed at the origin. The change in electrical potential energy of \(Q\), when it is displaced by a small amount \(x\) along \(X\)-axis, is approximately proportional to

359498 If \(E\) is the electric field intensity of an electrostatic field, then the electrostatic energy density is proportional to

359499 A hollow conducting sphere of radius \({R}\) is given a charge \({q}\). Another point charge \({q}\) is taken from centre to surface. Work done in the process is

359495 The charges \(Q\), \( + q\) and \( + q\) are placed at the vertices of an equilateral triangle of side \(l\). If the net electrostatic potential energy of the system is zero, the \(Q\) is equal to

359496 If an electron is brought towards another electron, then the electric potential energy of the system

359497 Two equal point charges \(Q\) are fixed at \(x=-a\) and \(x=+a\) on \(X\)-axis. Another point charge is placed at the origin. The change in electrical potential energy of \(Q\), when it is displaced by a small amount \(x\) along \(X\)-axis, is approximately proportional to

359498 If \(E\) is the electric field intensity of an electrostatic field, then the electrostatic energy density is proportional to

359499 A hollow conducting sphere of radius \({R}\) is given a charge \({q}\). Another point charge \({q}\) is taken from centre to surface. Work done in the process is

359495 The charges \(Q\), \( + q\) and \( + q\) are placed at the vertices of an equilateral triangle of side \(l\). If the net electrostatic potential energy of the system is zero, the \(Q\) is equal to

359496 If an electron is brought towards another electron, then the electric potential energy of the system

359497 Two equal point charges \(Q\) are fixed at \(x=-a\) and \(x=+a\) on \(X\)-axis. Another point charge is placed at the origin. The change in electrical potential energy of \(Q\), when it is displaced by a small amount \(x\) along \(X\)-axis, is approximately proportional to

359498 If \(E\) is the electric field intensity of an electrostatic field, then the electrostatic energy density is proportional to

359499 A hollow conducting sphere of radius \({R}\) is given a charge \({q}\). Another point charge \({q}\) is taken from centre to surface. Work done in the process is