**Levitating Magnets and Magnetic Poles****Study the image of levitating magnets provided. Assume the top side of the topmost disk magnet is North. Use evidence of repulsion and attraction to identify all of the poles of each magnet in the order they occur from top to bottom.***Hint: You may consider disk magnets as "squished" or flattened bar magnets.***Image Description:**The image features a series of four disk magnets levitating on a rod. From top to bottom, the disks are colored blue, green, yellow, and red. The magnets are arranged so that they appear to be floating above one another without touching, demonstrating the principles of magnetic repulsion and attraction. The rod provides a central axis to align and stabilize the magnets, allowing the magnetic interactions to be clearly observed.**Understanding the Phenomenon:**- **Magnetic Poles:** Each magnet has a North and South pole. Like poles repel each other, while opposite poles attract.- **Application:** Based on the assumption that the North pole is on the topmost side of the blue magnet, you can infer the alignment of the other poles. For levitation to occur, the facing sides of adjacent magnets must be like poles (either North-North or South-South) causing repulsion.Analyze the positioning and stabilize the floating effect to determine the sequence of poles in this setup, further enhancing the understanding of magnetism and its fundamental properties.

Given The top side of the topmost disk magnet is the North.

Study the image below of levitating magnets. Assume the top side of the topmost disk magnet is North. Use evidence of repulsion and attraction to identify ALL of the poles of each magnet in the order they occur from top to bottom. (Hint: You may consider disk magnets as "squished" or flattened bar magnets.) +000

Study the image below of levitating magnets. Assume the top side of the topmost disk magnet is North. Use evidence of repulsion and attraction to identify ALL of the poles of each magnet in the order they occur from top to bottom. (Hint: You may consider disk magnets as "squished" or flattened bar magnets.) +000

College Physics

11th Edition

ISBN:9781305952300

Author:Raymond A. Serway, Chris Vuille

Publisher:Raymond A. Serway, Chris Vuille

Chapter1: Units, Trigonometry. And Vectors

Section: Chapter Questions

Problem 1CQ: Estimate the order of magnitude of the length, in meters, of each of the following; (a) a mouse, (b)...

See similar textbooks

Similar questions

Please show solution with formulas used.Please write the solution in a paper. A solenoid with 2000 loops is 6.0 cm long and has a diameter of 2.0 cm. If the current of 5.0 A issent through it, how much magnetic field will be present inside the solenoid?
A uniform magnetic field of 0.0285 T points vertically upward. (Figure 1) Figure P Pearson
The superconducting magnet of an MRI scanner requires 810 A of current to create a magnetic field of 4.5 T in the center of its solenoid coil with a 0.65 m radius. If the solenoid is 1.9 m long, how many loops of wire does it have? N =
A long solenoid has a length of 0.72 m and contains 1900 turns of wire. There is a current of 2.8 A in the wire. What is the magnitude of the magnetic field within the solenoid? Number Units
The magnetic field is varied by changing the number of magnets that are mounted on the Magnet Assembly. The magnetic field strength may not be exactly proportional to the number of magnets, but it is reasonably close. Table 3. ma Apparent Mass m' Magnetic Force (N) (gram) Number of Actual Mass Magnets (gram) F = ( m' - ma)10-3 g 1 109.57 109.68 2 122.77 122.80 3 135.85 136.06 4 148.92 148.95 162.0 162.17 6. 175.05 175.09 Task 3: Plot a graph of Force (vertical axis) versus Current (horizontal axis). Your Graph 3:
An electromagnet is the most powerful type of magnet there is. It is a magnet with a current running through it that can be turned on and off. Why might it be useful to be able to turn the electromagnet on and off?
magnetic fie A long wire carries electric current I = 13A. What is the magnetic field at the point P? The perpendicular distance from P to the wire is r = 2.3 cm. (in T) A: 2.042x10-6 B: 2.716x10 oC: 3.613x10 D: 4.805x10-6 E: 6.391x10 F: 8.500x106 G: 1.130x10 H: 1.503x10-5
A flat circular coil which has N turns each of diameter d carries a current ?. If u0 is thepermeability of free space, what is the expression of magnetic field B at the center of the coil?
At a certain location, the horizontal component of the earth's magnetic field is 2.1 × 10-5 T, due north. A proton moves eastward with just the right speed, so the magnetic force on it balances its weight. Find the speed of the proton. Number i Units
In the sketches, crosses represent the magnetic field into the page (or screen) and arrows represent the motion of the charges on the plane of the page (or screen). Negative or positive sign inside circle represent the sign of the charge. Speed and value of all charges are same. Rank the strength of magnetic force on each charge in the uniform magnetic field. A В C D +) A = B > C = D C A = C хх X х х
52. Three currents are shown below. The currents run perpendicular to the page in the directions indicated. The triangle, which is not equilateral, has a base of 4.0 m and a height of 4.0 m. Find the magnitude and direction of the net magnetic field at the midpoint of the base. 32 A H.W 8.0 A 8.0 A
What is the direction of the magnetic field at point P?