d.
the work done in taking a charge from one point to another point only depends on the potential difference between the two points and not on the path taken to move the charge. hence the work done will remain same as that in part c)
e)
C to point A
because the potential difference between C and A is greater as compared to potential difference between C and B
A gray conductor shown in Figure 7-8 is charged, and generates an electric field corresponding to...
The equipotential lines in a region of electric field are shown in the diagram below. For each path indicated below, what is the work done by the electric field in moving a charge q = +9.2 x 10-7C along that path? Here V0 = +120 V. (a) from A to B(b) from A to C (c) from A to D(d) from D to C
3 V 4 V 3 V 1 V 2 V IV Figure 5 Figure 6 6. In Figure 6, where is the field stronger- point W or point Z? Sketch on the figure what direction a positive charge placed at point Z would move. Sketch the direction in which a negative charge placed at point W would move. IS A gray conductor shown in Figure 7-8 is charged, and generates an electric field corresponding to the following equipotential lines: V,-3.0...
uestions for electric field experiment i) Info and draw on in it three more equipotential lines: one at the one slightly to the right of center and another slightly o 1. Use Fig. 5.6 center of the dipole, to the left of center sli Figure 5.6: The dashed lines are field lines for a dipole configuration. At each point it shows the direction that a positive probe-charge would follow if left alone there. The concentric lines around the poles are...
The equipotential surfaces in the field map below (shown as dashed lines) have potential differences between a point at infinity and themselves of 1V, 5V, and 10V. (a)[4 pt(s) ]Label the surfaces with the correct voltage. Justify your choices using the properties of electric potential and its relation to work. (b)[3 pt(s) ]Is the work to move a +q charge from points A to B positive, negative, or about zero? Justify using the properties of work and electric potential. (c)[3...
How to solve Part 4c? Sketches of electric field lines and equipotentials Sketch and answer 4 - A through 4 - D in your answer book. Consider different charge configurations as shown: 4 - A : Suppose you are a test charge and you start at some distance from the charge q = +1 below, such as at the point X. Starting at point X, what path could you move along without doing any work? i.e. which Ē. ds is...
Two conducting cones extending to infinity are placed as shown in the figure. The inner conductor is grounded, i.e. kept at potential V = 20°) = 0 and the outer cone is kept at potential V(@= 50°) = 60.0 (Volts). (a) Determine the potential V(O) in the region between the conductors, (b) Determine the electric field intensity in the same region (c) Determine the work w required to move charge of 50 [nc] from point A to point B shown...
The electric field E in a region is uniform and directed in the -x direction as shown by the gray arrow in the diagram below. The magnitude of this field is 318 N/C. The (x, y) coordinates of A, B, and C are as follows: A = (2.2,7.5) m; B = (2.2,-1.2) m; c = (0.5, 0.8) m. (a) what is the work done in moving a positive charge q = 7 nC from B to A? (b) What is the work...
The equpoteetial ines in a region of electric field are shown in the diagram below. For each path indicated below, what is the work done by the electric fBield in moving a charge q- +8.5 x 107 C along that path? Here Vo-+100V (a) from A to (b) from A to C (c) from A to D (d) from D to
PART A What is the work done by the electric force to move a 1 C charge from A to B? Express your answer in joules. PART B What is the work done by the electric force to move a 1 C charge from A to D? Express your answer in joules. Part C The magnitude of the electric field at point C is greater than the magnitude of the electric field at point B. less than the magnitude of...
Questions 6 and 7 are based on the following arrangement of charges: 8 + 6. Rank the electric potential energy that each one of the arrangements have, from more positive to more negative. a. U.(A)>U (B) >U,(C)>U,(D) b. U (4)<U.(B)<U,(C)<U,(D) c. U.(A) >U,(B)-U.C)>U,(D) d. U.(A)=U (D) > U.(C)=U (B) 7. Rank the electric potential at the center of every triangle, from more positive to more negative. a. V(4) > V(B) > V(C) (D) b. P(1) V(B) V(C) <V(D) c. (A)...