Two square metal plates with sides 6.24 mm that are 5.97 mm apart have 2.17 nC of charge placed on them. What is the potential difference between the plates?
It is a parallel plate capacitor
A = side*side
= (6.25*10^-3)*(6.25*10^-3)
= 3.91*10^-5 m^2
d = 5.97*10^-3 m
C = ebsolene0*A/d
= (8.854*10^-12)*(3.91*10^-5)/ (5.97*10^-3)
=5.79*10^-14 F
use:
V = Q/C
= (2.17*10^-9)/(5.79*10^-14)
= 37456 V
Answer: 37456 V
Two square metal plates with sides 6.24 mm that are 5.97 mm apart have 2.17 nC...
A = 3, B = 3, C = 11
You have two square metal plates with side length of (6.50+ C) cm. You want to make a parallel-plate capacitor using Mylar as a dielectric (dielectric constant, k 3.2) that will hold a charge of (12.5 + A) nC when connected to a (34.8 B) V potential difference. Determine the necessary separation in mm between the plates (thickness of the Mylar). Round your answer to two significant figures.
A = 3, B = 3, C = 11
You have two square metal plates with side length of (6.50 C) cm. You want to make a parallel-plate capacitor using Mylar as a dielectric (dielectric constant, k 3.2) that will hold a charge of (12.5 A) nC when connected to a (34.8 B) V potential difference. Determine the necessary separation in mm between the plates (thickness of the Mylar). Round your answer to two significant figures.
Two 3.0 cm X 3.0 cm metal electrodes are spaced 1.0 mm apart and connected by wires to the terminals of a 9.0 V battery. (a)What is the charge on each electrode? (pC) (b)What is the potential difference between electrodes? (V) (c)While the plates are still connected to the battery, inselated handles are used to pull them apart to a new spaceing of 2.0mm. What are the charge on each electrode? (pC) (d) While the plates are still connected to...
Two large circular metal plates are parallel and nearly touching, only 3.5 mm apart. The two plates are connected to the opposite terminals of a 9.0 V battery. (a) What is the average electric field strength in the space between the plates? Give your answer in volts/meter. (b) What is the electric force on a 25.0 nC charge located halfway between the two plates? Give your answer in micronewtons.
You have two square metal plates with side length of 18.5 cm. You want to make a parallel-plate capacitor that will hold a charge of 21.5 nC when connected to a 35.8 V potential difference. Determine the necessary separation in mm. Round your answer to three significant figures.
Two large circular metal plates are parallel and nearly touching, only 4 mm apart. The two plates are connected to the opposite terminals of a 12.0 V battery. (a) What is the average electric field strength in the space between the plates? Give your answer in volts/meter. V/m (b) What is the electric force on a 75.0 nC charge located halfway between the two plates? Give your answer in micronewtons. μN
You have two square metal plates with side length of 10.50 cm. You want to make a parallel-plate capacitor that will hold a charge of 12.5 nC when connected to a 34.8 V potential difference. Determine the necessary separation in mm. Round your answer to three significant figures. please show your work so I can understand the process! Thank you
Two 2.0 x 2.0 cm square metal plates, spaced 0.50 mm apart are connected to a 100 V battery. What is the Electric field strength in the capacitor?
The plates of a parallel-plate capacitor are 3.50 mm apart, and each carries a charge of magnitude 85.0 nC . The plates are in vacuum. The electric field between the plates has a magnitude of 5.00×106 V/m . Part A: What is the potential difference between the plates? Part B:What is the area of each plate? Part C:What is the capacitance?
6. A capacitor is composed of two parallel square metal plates with sides of length 0.2 m, separated by 1 mm. The plates are charged by a 10 V battery. What changes occur in the quantities in (a)-(d) if the region between the plates is filled with a fluid with dielectric constant K=3? (a) Capacitance = 3.54 x 10^-9 F (b) Charge density: 8.85 x 10^-8 C/m2 (c) Electric field: 10^4 V/m (d) Energy: 1.77 x 10^-7 J ***Please please...