Protons are projected with an initial speed v. = 9,950 m/s into a region where a uniform electric field of magnitude E = 540 N/C is present (see figure below). The protons are to hit a target that lies a horizontal distance of%3D1.30 mm from the point where the protons are launched.Target-RProtonbeam(a) Find the two projection angles 0 that will result in a hit. (Enter the smaller angle first.)02 =(b) Find the total duration of flight for each of the two trajectories. (Enter the smaller duration of flight first.)t =t2 =%3DIL ||I|||

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Protons are projected with an initial speed v. 9,950 m/s into a region where a uniform electric field of magnitude E = 560 N/C is present (see figure below). The protons are to hit a target that lies a horizontal distance of 1.21 mm from the point where the protons are launched. x Target Proton beam (a) Find the two projection angles e that will result in a hit. (Enter the smaller angle first.) (b) Find the total duration of flight for each of the two trajectories. (Enter the smaller duration of flight first.) t1 = t2 =| Need Help? Read It
The surface charge density on an infinite charged plane is -2.00 x 10-6 C/m². A proton is shot straight away from the plane at 2.60 x 10 m/s. For help with math skills, you may want to review: Solving Algebraic Equations Y Part A How far does the proton travel before reaching its turning point? Express your answer with the appropriate units. ▸View Available Hint(s) Az = Submit #A Value Provide Feedback Units DMC ?
Protons are projected with an initial speed v0 = 9,650 m/s into a region where a uniform electric field of magnitude E = 500 N/C is present (see figure below). The protons are to hit a target that lies a horizontal distance of 1.30 mm from the point where the protons are launched. (a) Find the two projection angles ? that will result in a hit. (Enter the smaller angle first.) ?1 = ° ?2 = ° (b) Find the total duration of flight for each of the two trajectories. (Enter the smaller duration of flight first.) t1 = s t2 = s
A proton enters the uniform electric field produced by the two charged square plates shown below. The plates carry charges +Qand-Q, where the magnitude Q=1.3 μC. The speed of the proton when it enters the region between the plates is 0.5 x 107 m/s. 12.0 cm- Hint C+ + a. What is the magnitude of electric field in the region? Assume that the plates are close enough together to be treated as "infinite" planes for electric field between them. E = N/C. b. What distance d has the proton been deflected downward when it leaves the region between the two plates? Assume that the electrostatic force is the only force on the charge. d = d cm. Question Help: Message instructor Submit Question Course Chat
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An electron is released from rest in a uniform electric field . The electron accelerates vertically upward , travelling 4.50 m in the first 3 µs after it is released. ( a ) What are the magnitude and direction of the electric field ? b ) Are we justified in ignoring the effects of gravity ? Justify your answer quantitatively.
The figure below shows the electric field lines for two point charges separated by a small distance. (a) What are the signs of q1 and q2? (b) Determine the ratio q1/q2. Express your answer to 3 significant figures.
A uniform electric field exists in the region between two oppositely charged plane parallel plates. An electron is released from rest at the surface of the negatively charged plate and strikes the surface of the opposite plate, 3.40 cm distant from the first, in a time interval of 1.90×10-8 s Part A Part B Find the magnitude of this electric field. Find the speed of the electron when it strikes the second plate. Express your answer in newtons per coulomb. Express your answer in meters per second. να ΑΣφ 5 ? | να ΑΣφ ? E = N/C m/s
Three charges are at the corners of an equilateral triangle, as shown in the figure below. Calculate the electric field at a point midway between the two charges on the x-axis. (Let q1 = 6.00 ?C, q2 = 6.00 ?C,and q3 = −2.00 ?C.) What is the magnitude and direction?
Part a) A +6 nC charge is located 3.6 meters to the right of a +5 nC charge. Determine the magnitude of the electric field at the midpoint of the two charges. Express your answer as a positive number in N/C. Part b) A 10 nC charge generates an electric field within an isolated chamber. At a point a distance d meters away from the charge, the electric field is measured to be 4 N/C. Determine d in meters. Use k=9 x109 for the electric constant.
Find the x and y components of the electric field produced by q1 and q2 in the figure shown below at point A and point B. (Take q1 = 1.98 µC and q2 = −1.04 µC.) Point A Ex = Ey = Point B Ex = Ey =

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