Two particles with different charges are on the same equipotential line. Do these particles have the same electric potential energy? Please, explain
It is given both the charges are on the same equipotential line which means the potential V at which the two charges are is same for both
Now the potential energy of a charge at potential V is given by
qV where q is the charge value
Thus Higher the charge for a given value of potential , higher will be the potential energy
Thus the larger charge will have higher potential energy not same
Two particles with different charges are on the same equipotential line. Do these particles have the...
1. Is it possible for two different equipotential lines to cross each other? Explain why or why not? 2. Is it possible for two different electric field lines to cross each other? Explain why or why 3. Where do the electric field lines begin and end? If they are equally spaced at their beginning, 4. If you wanted to push a charge along one of the electric field lines from one conductor to the 5. The potential is everywhere the...
Two parallel plates
Equipotential Lines represent for us on a graph the same thing
Elevation Lines do for us on a map: They represent a line where the
Electric or Gravitational potential is a constant. Maps and voltage
graphs have even spacing between values (1V or 500ft or 100m etc)so
they can be read easier. These potentials were at 3V, 6V, 9V, 12V,
and 15V. In the figure are 5 lines of electric potential drawn from
positive charge at left...
The
electric field line and equipotential line surrounding two charges
are shown. The charge q1 = + 2 nC is on left. The q2 = +1 nC is on
right. The spacing between two charges is d = 3 m. If r1 is
distance from q1 toward q2 along the join line, what is the
electric field E and electric potential V at r1 = 1.0 m? k =
8.9876•109 Nm2/C2
Questions: 1) Is it possible for two different equipotential lines or two lines of forces to cross each other? Explain. 2) How does the electric field strength vary with the distance from an isolated charged particle? is the electric field most nearly uniform in the two opposite point charges
HELP PLEASE!!! 1. Two particles having charges of 0.550nC and 4.95nC are separated by a distance of 1.90m . A)At what point along the line connecting the two charges is the net electric field due to the two charges equal to zero? _____________ m from 0.550nC . B) Where would the net electric field be zero if one of the charges were negative? Enter your answer as a distance from the charge initially equal 0.550nC _______________. 2. Two stationary point...
The figure shows the equipotential contours in the plane of two point charges. The labels on the contours are in V. Determine for each of the following statement whether it is true or false -10 1.8 2.7 6.0 6.0 2.2 1.8 10 1.4 20 20 10 20 x axis (m) TrueThere is a point along the line y 0 and between x-10 and +10 where the field is zero FalseThe above charge configuration can be described as an electric dipole....
If two particles have the same momentum but different mass then the heavier particle has the higher kinetic energy. (t/f)
3.) Suppose you moved a charge of +1.0 C from point A (on a 10V equipotential line) to point B (also on a 10V equipotential line). (a) How much would its electric potential energy change? Explain. (b) How much would its electric potential change? Explain. (c) How (if at all) would the answers to the previous two questions cange if the charge had magnitude 2C? Explain 4.) Suppose you moved a charge of +3C from point A on a 10V...
What does the spacing of equipotential lines tell you about the electric potential in different regions of space? Do equipotential lines have a beginning and/or an end? If so, where? Do equipotential lines have a direction? How should the electric FIELD lines connect/relate to the equipotential lines? What does the spacing of the electric field lines tell you about the electric field in different regions of space? Do electric field lines have a beginning and/or an end? If so, where?...
Two particles have equal masses m and electric charges of equal magnitude and opposite sign (+q and –q). The particles are held at rest in uniform magnetic field with a magnitude of B. The direction of the field is perpendicular to the line connecting the charges. The particles are released simultaneously. What is the minimum initial separation L so that the particles do not collide after they are released? Neglect the magnetic fields produced by the particles themselves and the...