Equipotential surfaces are always at right angles to the electric field. TRUE of FALSE?
The electric field points from high potential region to low potential region. all the points on an imaginary surface perpendicular to the electric fdield lines have the same potential. The potential only changes in the direction of the electric field or in the opposite direction of the electric field. the potential is same in perpendicular direction to the electric field. therefore, the any imaginary surafce perpendicular to the electric field has same potential any point on it.
The statement is TRUE.
Equipotential surfaces are always at right angles to the electric field. TRUE of FALSE?
1) Electric field is a vector. a) true b) false 2) It is known that the direction of electric field is always pointing from high to low electric potential. a) true b) false 3) Electric potential is a vector. a) true b) false 4) To map equipotential surfaces, you need to find the points of the same electric potential, and connect them together. a) true b) false 5) It is known that electric field is always ______________ equipotential surfaces. a) parallel...
2) Explain why the equipotential surfaces should be always perpendicular to the electric field lines? 3) A uniform electric field is parallel to the y-axis. What direction can a charge be displaced in this field without any external work being done on the charge?
1) Do the electric field lines cross? Can two equipotential 2) Explain why the equipotential surfaces should be always 3) A uniform electric field is parallel to the y-axis. What lines ever cross? Explain. perpendicular to the electric field lines? direction can a charge be displaced in this field without any external work being done on the charge?
For a given charge configuration, electric field lines should intersect equipotential lines at right angles. Explain using math why these two sets of lines should be mutually perpendicular.
Draw the Electric Field and Equipotential surfaces for a negative point charge.
1) Which of the following statements about electric fields and equipotential surfaces are correct? (check all that apply) a)The electric field direction is always from higher potential to lower potential. b)The number of electric field lines per unit area perpendicular to the field lines is proportional to the strength of the electric field in that region c)Equipotential surfaces are surfaces where the potential is constant over this surface. d)Electric field lines begin on positive charges and end on negative charges....
In a uniform electric field, a pair of equipotential surfaces with potential difference 7.4 V are separated by 8.5 mm. Find the magnitude of the field.
If you draw a few electric field lines and equipotential surfaces outside a negatively charged hollow conducting sphere, what will be the shape of the equipotential surfaces? ! o o semicircle o Sphere o hemisphere
The drawing shows a cross-sectional view of two spherical equipotential surfaces and two electric field lines that are perpendicular to these surfaces. When an electron moves from point A to point B (against the electric field), the electric force does +3.2 x 10-19 J of work. What are the electric potential differences (a) VB - VA, (b) VC - VB, and (c) VC - VA? Electric field lines Equipotential surfaces Cross-sectional view) O (a) o V, (b) 0 V, (c)...
(Figure 1) shows a region of space with an electric field. Vertical lines indicate equipotential surfaces. A particle with charge q = -4.8 nC is initially at the location of the -20-V equipotential line. At time t = 0 the particle is released from rest. Ignore the force exerted by Earth on the particle. Part A: Estimate the magnitude of force exerted by the electric field on the particle when it passes the 0-V equipotential line. Part B: Estimate the...