The electric potential V(x) in an electric field depends only on x and `V(x) = ax - bx^(3)` where a and b are constants. Where on the x-axis will electric field intensity be zero?

What is potential gradient? The electric potential is found to depend on X only and is given by V(x) = ax - bx^2 , where a and b are constants. Find the positions on the X - axis where electric field intensity is zero.

In an electric field, the potential V(x), depending only on the x-coordinate, is given by V(x) = ax -bx^(3) , where a and b are constants, find out the points on the x -axis where the electric field intensity would vanish.

The electric potential is V=(x^(2)-2x) . What is the electric field strength at x=1?

Can potential be zero where electric field is not zero ?

The potential in the electric field varies as V = -a x^2 + b with respect to x - coordinate, where a and b are constants. Find the charge density rho (x) in a space.

The potential in the electric field varies as V = -a x^2 + b with respect to x - coordinate, where a and b are constants. Find the charge density rho (x) in a space.

the electric potential in the region of space is given by : V(x)=A+Bx+Cx^(2) where V is in volts, x is in meters and A,B,C are constants.Then,

The electric potential in a region is given by V = (2x^(2) - 3y) volt where x and y are in meters. The electric field intensity at a point (0, 3m, 5m) is

The potential of the electric field produced by point charge at any point (x, y, z) is given by V = 3x^(2) + 5 , where x ,y are in are in metres and V is in volts. The intensity of the electric field at (-2,1,0) is :

The potential of the electric field produced by point charge at any point (x, y, z) is given by V = 3x^(2) + 5 , where x ,y are in are in metres and V is in volts. The intensity of the electric field at (-2,1,0) is :