Indicate the direction of the magnetic force on the positively charged particle as it moves through the uniform magnetic fields shown below.[Diagram: A positively charged particle, represented by a circle with an upward arrow labeled "V" (velocity), moves vertically through three horizontal lines with leftward arrows indicating the magnetic field direction.]a. Direction of velocity (up) b. Opposite of magnetic field (left) c. Into the page d. Out of the page

Answered: Image /qna-images/answer/5b5a3df0-a35d-4ac0-a2ba-dda31a47d8cf.jpg

Answered: Indicate the direction of the magnetic…

Similar questions

A charged particle with charge 7.50x10^-19 moves at a constant speed and passes through a uniform magnetic field. As it passes through the field, it moves in a circle of radius 1.4 cm. What would be the radius of the path if the charge were 2 times as much?
An electron is accelerated through 2.70 103 V from rest and then enters a uniform 2.80-T magnetic field. (a) What is the maximum magnitude of the magnetic force this particle can experience? (b) What is the minimum magnitude of the magnetic force this particle can experience?
(Figure 1) shows a mass spectrometer, an analytical instrument used to identify the various molecules in a sample by measuring their charge-to- mass ratio q/m. The sample is ionized, the positive ions are accelerated (starting from rest) through a potential difference AV, and they then enter a region of uniform magnetic field. The field bends the ions into circular trajectories, but after just half a circle they either strike the wall or pass through a small opening to a detector. As the accelerating voltage is slowly increased, different ions reach the detector and are measured. Consider a mass spectrometer with a 200.00 mT magnetic field and an 8.0000 cm spacing between the entrance and exit holes. igure + AV d Detector Part A To five significant figures, what accelerating potential difference AV is required to detect the ion O,? The masses of the atoms are shown in the table; the mass of the missing electron is less than 0.001 u and is not relevant at this level of precision. Use…
A ring of radius 8.0 cm is placed concentrically around a ring of radius 6.0 cm (see figure below). Each ring carries a current of 4.0 A.(a) What is the magnitude of the magnetic field at the center of the rings if the two currents flow in the same direction?(b) Find the magnitude of the magnetic field if the currents flow in opposite directions?(c) If the outer ring current is counterclockwise and the inner ring current is clockwise what is the direction of the net magnetic field
As shown a charged particle traveling in a nonuniform magnetic field forming a magnetic bottle. (a) Explain why the positively charged particle in the figure must be moving clockwise when viewed from the right of the figure. The particle travels along a helix whose radius decreases and whose pitch decreases as the particle moves into a stronger magnetic field. If the particle is moving to the right along the x axis, its velocity in this direction will be reduced to zero and it will be reflected from the right-hand side of the bottle, acting as a “magnetic mirror.” The particle ends up bouncing back and forth between the ends of the bottle. (b) Explain qualitatively why the axial velocity is reduced to zero as the particle moves into the region of strong magnetic field at the end of the bottle. (c) Explain why the tangential velocity increases as the particle approaches the end of the bottle. (d) Explain why the orbiting particle has a magnetic dipole moment.
Four separate configurations of current-carrying wires are shown. All points are equidistant with respect to the wires. At which point is the magnitude of the magnetic field the greatest?
A oxygen ion with a -2 charge is traveling in the +z direction. It enters a region of uniform magnetic field that points to the -y direction. When the ion enters this region, which direction will it be deflected?

Indicate the direction of the magnetic force on the positively charge particle as they move through the uniform magnetic fields shown below.