A charged particle enters a magnetic field from the left in the positive x-direction as shown below. The particle curves downward on the page in the negative y-direction as it enters the field. What direction would an electric field need to be added to the magnetic field region so that the particle travels straight through the magnetic field in the positive x-direction without changing direction? The electric field would be directed in the positive x-direction. The electric field would be directed in the positive y-direction. The electric field would be directed in the negative y-direction. The electric field would be directed in the positive z-direction.

A charged particle enters a magnetic field from the left in the positive x-direction as shown below. The particle curves downward on the page in the negative y-direction as it enters the field. What direction would an electric field need to be added to the magnetic field region so that the particle travels straight through the magnetic field in the positive x-direction without changing direction? The electric field would be directed in the positive x-direction. The electric field would be directed in the positive y-direction. The electric field would be directed in the negative y-direction. The electric field would be directed in the positive z-direction.

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The figure below shows two wires carrying currents of I = 4.85 A in opposite directions, separated by a distance d. Assume d = 9.9 cm. 2d (a) Find the magnitude (in HT) and direction of the net magnetic field at a point halfway between the wires. magnitude UT direction ---Select--- (b) Find the magnitude (in UT) and direction of the net magnetic field at point P,, 9.9 cm to the right of the wire on the right. magnitude UT direction ---Select--- (c) Find the magnitude (in UT) and direction of the net magnetic field at point Pa, 2d = 19.8 cm to the left of the wire on the left. magnitude UT direction ---Select--- (d) What If? Repeat parts (a) through (c) for the case where both wires carry currents in the same direction, upward in the figure. Find the magnitude (in µT) and direction of the net magnetic field at a point halfway between the wires. magnitude UT direction ---Select--- Find the magnitude (in UT) and direction of the net magnetic field at point P,, 9.9 cm to the right of the…
you have Two straight wires have current upwards are 6cm apart, the right wire carries 67 amps and the left wire carries 59 amps and . What is the magnitude of the magnetic field at a point 2 cm from the right wire and 1 cm from left wire in milliTeslas?
Charged particles are entering a parallel plate capacitor. Draw the direction of the magnetic field required to create a velocity selector. O O 0 0 0 0 0 0 O 0 0 0
Two long, parallel wires are separated by 2.8 m. Each wire has a 30-A current, but the currents are in opposite directions. A) Determine the magnitude of the net magnetic field midway between the wires. B) Determine the magnitude of the net magnetic field at a point 1.4 m to the side of one wire and 4.2 m from the other wire. The point is in the same plane as the wires.
A thin conducting wire is bent into the shape shown in the figure. The circular portion of the wire has radius 25.0 cm. The wire is in the plane of the screen and carries a current 1.10 A. What is the magnetic field at the center of the loop? (Give the magnitude in µT and select the direction from the options provided.) I R magnitude µT direction into the screen
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Two long parallel conducting wires carry current I1= 1.5 A into the page and unknown current I2 out of the page. The two wires are 1.0 m apart and located on x-z plane as shown in the figure below. a) What is the magnitude of I2 if the net magnetic field at the origin (0,0) is 1.0 µT pointing downward? b) Find out the location (x,y) where the net magnetic field B becomes zero.
What is the magnetic field strength and direction at point A for the figure shown? Note that the current carrying wires are parallel with a separation of 6.0 cm and Point A is 3.0 cm away from the wire carrying 24A current. 18 A A. 3.0 cm 6.0 cm 10 × 10-5 T, out of the page x 12 x 10-5 T, out of the page 6 x 10-5 T, into the page 20 x 10-5 T, out of the page 6 x 10-5 T, out of the page 12 x 10-5 T, into the page 20 x 10-5 T, into the page O O 10 x 10-5 T, into the page 24 A
there are three parallel wires in a row. The outside two have currents directed in the + X direction and the middle is in the -X direction. What direction is the magnetic field on one of the outside wires?
The two wires shown in the figure below are separated by d = 10.7 cm and carry currents of I = 4.85 A in opposite directions. 1) Find the magnitude and direction of the net magnetic field at a point midway between the wires. 2) Find the magnitude and direction of the net magnetic field at point P1, 10.7 cm to the right of the wire on the right. 3) Find the magnitude and direction of the net magnetic field at point P2, 2d = 21.4 cm to the left of the wire on the left.
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		The electric field would be directed in the positive x-direction.
		The electric field would be directed in the positive y-direction.
		The electric field would be directed in the negative y-direction.
		The electric field would be directed in the positive z-direction.