A parallel-plate capacitor is constructed of two square plates, size L×L, separated by distance d. The plates are given charge ±Q. |
Part A What is the ratio Ef/Ei of the final electric field strength Ef to the initial electric field strength Ei if Qis doubled?
Part B What is the ratio Ef/Ei of the final electric field strength Ef to the initial electric field strength Ei if Lis doubled? Part C What is the ratio Ef/Ei of the final electric field strength Ef to the initial electric field strength Ei if d is doubled? |
A parallel-plate capacitor is constructed of two square plates, size L×L, separated by distance d. The...
8. A parallel plate capacitor consists of two square parallel plates separated by a distance d. If I double the potential across the plates, while keeping everything else constant, what happens to the energy stored in the capacitor? A) There will be % of the energy stored B) There will be % of the energy stored C) The energy stored will remain constant D) The energy stored will double E) the energy stored will quadruple MMMMMMMM 9. The picture on...
A parallel plate capacitor is made of two square plates of side "l" separated by a distance "d". Each plate lies parallel to the x-z plane. (see picture below) The capacitance of the parallel plate capacitor is Cpp = One of the plates is now tilted at a SMALL angle as shown Note that the separation between the plates, d(z) now varies with "z". Consider this capacitor as an infinite number of parallel plate capacitors connected to each other in...
Two charged, square plates, separated by a distance of 22.8 cm and each with a side length of 37.4 cm, make up a parallel-plate capacitor. The electric field inside the plates is 2.00×103 N/C. If the charge is doubled, what would the electric field inside the plates become?
Two square metal plates are placed parallel to each other, separated by a distance d= 2.28 cm. The plates have sides of length L = 0.690 m. One of the plates has charge Q= + 2.34×10-6 C, while the other plate has charge -Q. Calculate the magnitude of the electric field between the plates, not close to the edge, i.e., assume a uniform surface charge distribution.
Each plate of a parallel‑plate capacitor is a square of side 0.0309 m, and the plates are separated by 0.575×10−3 m. The capacitor is charged and stores 8.77×10−9 J of energy. Find the electric field strength ?E inside the capacitor. in N/C
A parallel plate capacitor is comprised of two metal plates with area A and separated by distance d. This parallel plate capacitor is connected to a battery with voltage AVo. Your answer should depend on A, d, ΔVo, and any other physical constants a. Determine the charge stored on the plates of the capacitor and the energy stored in the capacitor b. Determine the strength of the electric field between the plates of the capacitor c. An experimenter has five...
Each plate of a parallel-plate capacitor is a square of side 0.0387 m, and the plates are separated by 0.503 x 10-3 m. The capacitor is charged and stores 7.57 x 10-9 J of energy. Find the electric field strength E inside the capacitor. E-9.37 ×10 N/C
A parallel-plate capacitor is constructed with circular plates of radius 0.056 m. The plates are separated by a distance of 0.25 mm, and the space between the plates is filled with a dielectric with dielectric constant κ. When the capacitor is charged to 1.2 µC, the potential difference between the plates is 750 V. What is the value of κ?
A parallel plate capacitor has square plates with sides of length 11 cm. The distance between the plates is 2 mm. The plates are charged up to 20volts. Part A What is the electric field between the plates? Express your answer using three significant figures. Electric field = N/C Part B What is the amount of charge on each plate? charge = C Part C What is the capacitance? Capacitance = μF Part D What is the energy stored by...
A parallel plate capacitor is formed with two plates separated by 5.00 mm as shown in Figure 1. Each plate is a 10.0 cm X 10.0 cm square. We do not know the charge on the plates. An electron beam is shot in from one edge of the capacitor. It enters the capacitor very close (call it 0 mm) from the top plate and travelling parallel to the plates. The electrons in the beam are moving at 1.50 × 107...