The dashed lines in the diagram represent cross sections of equipotential surfaces drawn in 1 V increments. What is the work done by the electric force to move a 1 C charge from A to B? Express your answer in joules. What is the work done by the electric force to move a 1 C charge from A to D? Express your answer in joules.
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The dashed lines in the diagram represent cross sections of equipotential surfaces drawn in 1 V increments.
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- Find the work WAB in electron volts done by the electric force on an electron that moves from point A to point B. Similarly, find W starts and stops at rest. Enter your answers in eV.) AC' HINT (a) W AB (b) W AC (c) WAD (d) W, AE eV eV eV eV W AD' and W AE' (Assume the electronThe 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 = +4.1 × 10-7 C along that path? Here Vo = +140 V. -Vo -2Vo (a) from A to B W = AB = -3Vo (b) from A to C WAC (c) from A to D WAD = (d) from D to C WDC J J J A B D 3Vo 2V0 Vo OVQ 3 please
- Answer is in volts. Do I use the potential difference formula here, or voltage due to a point charge? I'm feeling lost on where to begin. It'd really help to see this worked out. Thank youA uniform electric field of magnitude 9.8x105 N/C points in the positive a direction. Find the change in electric potential energy of a 9.5-μC charge as it moves from the origin to the point (0, 6.0 m). Express your answer using one significant figure. AU = Submit Part B AU = — ΑΣΦΑΛΟ Submit V Request Answer Find the change in electric potential energy of a 9.5-μC charge as it moves from the origin to the point (6.0 m, 0). Express your answer using two significant figures. VE ΑΣΦ Ć Request Answer ? ? J JThe 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 = +6.4 x 107 C along that path? Here Vo = +110 V. -Vo -2V -3V (a) from A to B WAB = (b) from A to C WAC = (c) from A to D WAD= (d) from D to C WDC = J A D 3V 2V0 Vo OV
- In some ways, equipotential lines are like contour lines on a topographic map. On a map, the lines indicate points of equal elevation. If you were to follow a contour line on a topographic map, your gravitational potential energy would never change. Similarly, electric equipotential lines indicate points of equal electric potential. If a charge is moved along an equipotential line, its electric potential energy will never change. The potential energy is related to the potential by = where U is the electric potential energy [J] and q is the charge that has been placed in the potential region. Thus at points of positive electric potential, a positive charge will have positive potential energy. With this analogy in mind, consider the following two student statements. Which, if either, do you agree with? Defend your choice. Student 1: “The electric potential increases as you get closer to both charges. Therefore, both charges are like hills on a topography map. The line in between…For the following situations, consider moving a positive charge from very far away to the origin along the y-axis. For which situation would you do the most work?A potential difference of 480 V is established between large, parallel, metal plates. Let the potential of one plate be 480 V and the other be 0 V. The plates are separated by d = 130 cm. (a) Sketch the equipotential surfaces that correspond to 0, 120, 240, 360, and 480 V. (b) In your sketch, show the electric field lines. Does your sketch confirm that the field lines and equipoten-tial surfaces are mutually perpendicular?