What is the direction of the force?

Using the 1st right hand rule, if the current is flowing out of the screen then the magnetic fields will flow from...

Using the 1st right hand rule, if the current is flowing into the screen then the magnetic fields will flow from...

Moving electricity generates a

Using the right-hand-slap rule, A represents

Using the right-hand-slap rule, B represents

Using the right-hand-spiderman rule, C represents

Using the right hand grip rule, A represents the direction of the

Using the right hand grip rule, B represents the direction of the

Using the right hand slap rule, the force would go

Using the right hand slap rule, the force would go

In the solenoid pictured, the north pole would be on the

In the solenoid pictured, the north pole would be on the

Using the right hand rule (spiderman), if the force is coming towards you and the current is travelling upwards then the

Using the right hand rule (spiderman), if the force is coming towards you and the current is travelling downwards then the

The direction of the magnetic field at point R caused by the current I in the wire shown above is

A particle of charge and mass m moves toward a long wire that carries a current I. At the instant shown above, the particle is a distance r from the wire and is moving perpendicularly toward the wire with speed v . There is a magnetic force on the particle as a result of the current. What is the direction of the magnetic force on the particle at the instant shown?

A scientist is studying the radioactive decay of an element and wants to determine the sign of some of the particles emitted. The scientist lets a beam of the particles, all with the same speed, pass through an opening in a shield and enter the field created by a wire carrying a constant current. Paths 1 and 2 represent the observed paths of the particles. Based on the paths, which of the following could be the types of particles?

The figure above shows a long, straight wire that has a steady current I in the +y-direction. A small object with charge +q hangs from a thread near the wire. A student wants to investigate the magnetic force on the object due to the current but is not able to observe or measure changes in the tension in the string. Of the following actions that the student can take, which will allow the student to observe a reaction of the object due to the magnetic force on it?

A wire in the plane of the page carries a current directed toward the top of the page as shown above. If the wire is located in a uniform magnetic field B directed out of the page, the force on the wire resulting from the magnetic field is

The ends of a metal bar rest on two horizontal north-south rails as shown above. The bar may slide without friction freely with its length horizontal and lying east and west as shown above. There is a magnetic field parallel to the rails and directed north. A battery is connected between the rails and causes the electrons in the bar to drift to the east. The resulting magnetic force on the bar is directed

Two long, parallel, straight wires in the plane of the page each carry a current I to the right, as shown above. Points P₁ and P₂ are in the plane of the page, with P₁ being midway between the wires. Which of the following is true of the net magnetic field at the two points that result from the two currents?

Two very long parallel wires carry equal currents in the same direction into the page, as shown above. At point P, which is 10 centimeters from each wire, the magnetic field is

Two long, straight, parallel wires in the plane of the page carry equal currents I in the same

direction, as shown above. Which of the following correctly describes the forces acting on the wires and the resultant magnetic field at points along the dotted line midway between the wires?

The currents in three parallel wires, X, Y, and Z, each have magnitude I and are in the directions shown above. Wire Y is closer to wire X than to wire Z. The magnetic force on wire Y is