A -3.0-mu C point charge and a -9.0-mu C point charge are initially extremely far apart...
PB_01: A-3.0-uC point charge and a -9.0-4C point charge are initially extremely far apart. How much work does it take to bring the -3.0-4C charge to x = 3.0 mm, y = 0.00 mm and the -9,0-1C charge to x = -3,0 mm, y = 0.00 mm? (k = 1/4X80 = 8.99 109 Nm2/C2)
28) A 7.0-μC point-like charged object and a 9.0-μC point-like charged object are initially extremely far apart. How much work does it take to bring the 7.0-μC object to the position x = 3.0 mm, y = 0.0 mm, and the 9.0-μC object to the position x = -3.0 mm, y = 0.0 mm? (k = 9.0 × 109 N∙m2/C2) A) 95 J B) 190 J C) 63 J D) 16 J
A -4.8 micro coulomb charge and a -10.3 micro coulomb point charge are initially extremely far apart. How much work does it take to bring the -4.8 micro coulomb charge to x = 8.0mm, y = 0.00 mm and the -10.3 micro coulomb charge to x = -6.0 mm, y = 0.00mm?
9) Two identical small charged spheres are a certain distance apart, and each one initially experiences an electrostatic force of magnitude F due to the other. With time, the charge of each sphere gradually diminishes. When each of the spheres has charge equal to half its initial magnitude, what will be the magnitude of the electrostatic force on each one? A) 1/16 F B) 1/8 F C) 1/4 F D) 1/2 F
Three equal point charges, each with charge 1.75 mu C, are placed at the vertices of an equilateral triangle whose sides are of length 0.550 m. What is the electric potential energy U of the system? (Take as Zero the potential energy of the three charges when they are infinitely far apart) Use epsilon_0=8.85 times 10^-12 C^2/N middot m^2 for the permittivity of free space. U = J
A point charge of 75.0 mu C is placed at the center of a cylindrical Gaussian surface 6.00 cm long and 2.00 cm in diameter. Find the total flux that leaves the cylinder. a. 1.48 times 10^8 N middot m^2/C b. 5.42 times 10^6 N middot m^2/C c. 2.45 times 10^6 N middot m^2/C d. 7.64 times 10^6 N middot m^2/C e. 8.47 times 10^6 N middot m^2/C If a = 3.0 mm, b = 4.0 mm, Q_1 = -60...
1) Two identical small charged spheres are a certain distance apart, and each one initially experiences an electrostatic force of magnitude F due to the other. With time, charge gradually diminishes on both spheres by leaking off. When each of the spheres has lost half its initial charge, what will be the magnitude of the electrostatic force on each one? A) 1/16 F B) 1/8 F Coulomos coulombs Law C) 1/4 F D) 1/2 F E) 1/2 F 2) Two...
In the figure three point charge q)1 = +3.0 mu C q_2 = +2.50 mu C and q_3 = -3.50 mu C. The electric potential (in V) at point P is: a) 2250.0 b) 33750 c) 2812.5 d) 562.5 What is the speed of a proton line m/s) that has been accelerated from rest through a potential difference of 334 times 10^3 V? a) 1.6 times 10^6 b) 4.0 times 10^5 c) 8.0 times 10^5 d) 1.2 times 10^6 If...
There are two identical, positively charged conducting spheres fixed in space. The spheres are 38.0 cm apart (center to center) and repel each other with an electrostatic force of F_1 = 0.0630 N, Then, a thin conducting wire connects the spheres, redistributing the charge on each sphere. When the wire is removed the spheres still repel but with a force of F_2 = 0.100 N. Using this information. And the Initial charge on each sphere, q_1 and q_2 it initially...
There are two identical, positively charged conducting spheres fixed in space. The spheres are 40.0 cm apart (center to center) and repel each other with an electrostatic force of F_1 = 0.0660 N. Then, a thin conducting wire connects the spheres, redistributing the charge on each sphere. When the wire is removed the spheres still repel but with a force of F_2 = 0.100 N. Using this information, find the initial charge on each sphere, q_1 and q_2 if initially...