A proton enters a parallel-plate capacitor traveling to the right at a speed of 1.279 x 10 m/s, as shown in the figure. The distance between the two plates is 1.58 cm. The proton enters the capacitor halfway between the top plate and the bottom plate; that is, a distance r-0.790 cm from each plate, as shown i capacitor has a 2.90 x 10 N/C uniform electric field between the plates that points downward from the top plate to the bottom plate. Neglecting gravitational forces, what horizontal distance does the proton traverse before the proton hits the bottom plate? m

The capacitor is charged to a field of 1.50 × 104 N/C and has plate separation of 5.00 cm. The plates each have length 1.00 m. An electron and a proton are each projected upward from the position shown with speed 3.00 × 106 m/s. a) Sketch the path followed by each charge. b) Where does each charge strike the capacitor? c) What is the speed of each charge when it strikes?

A 4 μF parallel-plate capacitor with a dielectric has a charge of 42 μC on each plate. The distance between the plates is 0.007 m and the dielectric constant is 153. Determine the area of each plate and the E-field between the plates. A = E =

15V IDV In the attached pic, equipotential lines with their electric potential values are given 1. Draw the electric field vector at each of the points A, B & C 2. Calculate the change in Electrical Potential Energy when a proton (with positive charge +e) moved from

The electric field strength is 5.30×104 N/C inside a parallel-plate capacitor with a 2.40 mm spacing. A proton is released from rest at the positive plate What is the protons speed when it reaches the negative plate?

A parallel plate capacitor is consturcted of two (2) square conducting plates with side length l=10.0 cm. The distance between the plates is d= 0.250 cm. -provide an illustration that best represents the scenario

A capacitor is composed of two metal plates. The two plates have the dimensions L = 0.11 m and W = 0.56 m. The plates have a distance between them of d = 0.1 m, and are parallel to each other.  Part (a)  The plates are connected to a battery and charged such that the first plate has a charge of q. Write an expression for the magnitude of the electric field, |E|, halfway between the plates.  Part (b)  Input an expression for the magnitude of the electric field, |E2|, just in front of plate two.  Part (c)  If plate two has a total charge of q = -1 mC, what is its charge density, σ, in C/m2?

Two charged, square plates, separated by a distance of 13.1 cm and each with a side length of 20.3 cm, make up a parallel-plate capacitor. The electric field inside the plates is 1.40×103 N/C. If the charge is doubled, what would the electric field inside the plates become? 1.40E+03 N/C 700. N/C 2.80E+03 N/C 350. N/C

-A ZE The potential difference between the accelerating plates of a TV set is about 30 kV. If the distance between the plates is 1.3 cm, find the magnitude of the uniform electric field in the region between the plates. N/C

Two large (treat as infinite) parallel conducting plates are charged to t Q as shown by the battery. A proton is released from rest at point A and is measured to be moving with a speed v, = 2 x 105 m/s when at point B. The right plate is then moved closer to the left as shown in the %3D X X rightmost figure. The experiment is repeated. What will be the speed of the proton at point B? A) Greater B) Smaller C) Equal D) Impossible to determine