The Millikan Experiment: Determining the Elementary
... • An electron is fired horizontally at 2.5 x 106 m/s between two horizontal parallel plates 7.5 cm long, as shown in Figure 7. The magnitude of the electric field is 130 N/C. The plate separation is great enough to allow the electron to escape. Edge effects and gravitation are negligible. Find the v ...
... • An electron is fired horizontally at 2.5 x 106 m/s between two horizontal parallel plates 7.5 cm long, as shown in Figure 7. The magnitude of the electric field is 130 N/C. The plate separation is great enough to allow the electron to escape. Edge effects and gravitation are negligible. Find the v ...
Homework 2
... Recall that the linear charge density is 1 C/m and the unit of length is 1m. Whenever there is a relationship between two physical quantities expressed in the form of an equation, the units on both sides must be the same. This requires that the coefficient α in the equation λ(x) = αx has unit C/m2. ...
... Recall that the linear charge density is 1 C/m and the unit of length is 1m. Whenever there is a relationship between two physical quantities expressed in the form of an equation, the units on both sides must be the same. This requires that the coefficient α in the equation λ(x) = αx has unit C/m2. ...
Answer Key
... 1. 2 positive charges are placed near each other. What is the direction of the force exerted by one charge on the other? a. towards each other b. up c. away from each other d. down 2. A long straight wire is carrying current running to the right across the page. What is the direction of the magnetic ...
... 1. 2 positive charges are placed near each other. What is the direction of the force exerted by one charge on the other? a. towards each other b. up c. away from each other d. down 2. A long straight wire is carrying current running to the right across the page. What is the direction of the magnetic ...
Homework #8 203-1-1721 Physics... Part A
... 33° to the direction of a uniform magnetic field of 0.50 T. Calculate the torque about the hinge line acting on the loop. ...
... 33° to the direction of a uniform magnetic field of 0.50 T. Calculate the torque about the hinge line acting on the loop. ...
Math 1321 Week 14 Lab Worksheet Due Thursday 04/18
... Many forces in our known universe can be modeled with conservative force fields. In particular the gravitational field and the electric field due to a static point charge can be modeled in such a way. This is nice because it allows us to make computations such as how much interaction an object and t ...
... Many forces in our known universe can be modeled with conservative force fields. In particular the gravitational field and the electric field due to a static point charge can be modeled in such a way. This is nice because it allows us to make computations such as how much interaction an object and t ...
Potential
... for, or indicate if zero, the following quantities. Be sure to also note the sign of the work (i.e. positive or negative). Come up with an example situation that this could apply to. ...
... for, or indicate if zero, the following quantities. Be sure to also note the sign of the work (i.e. positive or negative). Come up with an example situation that this could apply to. ...
Conceptual Questions 1. What happens when you break a bar
... 2. Where do magnetic field lines begin? Where do they end? Explain. 3. An unmagnetized nail will not attract an unmagnetized paper clip. However, if one end of the nail is in contact with a magnet, the other end will attract a paper clip. Explain. 4. A student has placed two cylindrical permanent ma ...
... 2. Where do magnetic field lines begin? Where do they end? Explain. 3. An unmagnetized nail will not attract an unmagnetized paper clip. However, if one end of the nail is in contact with a magnet, the other end will attract a paper clip. Explain. 4. A student has placed two cylindrical permanent ma ...
2. Derive an expression for ... charges together as indicated in Fig. 28-28 below. Each side... Homework #4 203-1-1721 ...
... 4. The electric field inside a nonconducting sphere of radius R, containing a uniform charge density, is radially directed and has magnitude E = (qr)/(4 oR3), where q is the total charge in the sphere and r is the distance form the center of the sphere. (a) Find the potential V inside the sphere, ta ...
... 4. The electric field inside a nonconducting sphere of radius R, containing a uniform charge density, is radially directed and has magnitude E = (qr)/(4 oR3), where q is the total charge in the sphere and r is the distance form the center of the sphere. (a) Find the potential V inside the sphere, ta ...
Chapter 5.3 Q1 The positive charge on the rod will attract electrons
... E1 = 21 = 4! k" 1 = 4! $ 8.99 $109 $ 6.4 $10#6 = 7.2 $105 N C#1 and r1 E2 = 4! k" 2 = 4! $ 8.99 $109 $ 4.2 $105 = 4.8 $105 N C#1 . (d) The electric field is largest for the sphere with the larger charge density. The wire has to be long so that the charge of one sphere will not affect the charge dist ...
... E1 = 21 = 4! k" 1 = 4! $ 8.99 $109 $ 6.4 $10#6 = 7.2 $105 N C#1 and r1 E2 = 4! k" 2 = 4! $ 8.99 $109 $ 4.2 $105 = 4.8 $105 N C#1 . (d) The electric field is largest for the sphere with the larger charge density. The wire has to be long so that the charge of one sphere will not affect the charge dist ...
PHYS 102 Problems - Chapter 20 – Set 8 Feb. 2, 2010
... Alpha particles of charge q = +2e and mass m = 6.6 x 10-27 kg are emitted from a radioactive source at a speed of 1.6 x 107 m/s. What magnitude field strength would be required to bend them into a circular path of radius r = 0.25 m? In this scenario, the magnetic force is causing centripetal motion, ...
... Alpha particles of charge q = +2e and mass m = 6.6 x 10-27 kg are emitted from a radioactive source at a speed of 1.6 x 107 m/s. What magnitude field strength would be required to bend them into a circular path of radius r = 0.25 m? In this scenario, the magnetic force is causing centripetal motion, ...