Magnetic Force in Parallel Magnet Setup: Exploring the Strength of Attraction

In summary, the study investigates the magnetic force between parallel magnets arranged in various configurations. It examines how distance, alignment, and the magnitude of the magnets influence the strength of attraction. The findings highlight the significance of these factors in optimizing magnetic setups for practical applications, shedding light on the underlying principles of magnetism.
  • #1
curiouschris
147
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Imagine two parallel lines of five magnets each, spaced a few millimeters apart. In the first line, all magnets have their north poles facing one direction. In the second line, each magnet's south pole faces the corresponding north pole of the first line, but the magnets are offset by one along the parallel line. The magnets in the first line are fixed, while those in the second line can only move parallel to the first line.

Given this setup, my question is: when the movable magnets align with their counterparts in the fixed line, what is the combined force pulling them together? Is it equivalent to the force exerted by one magnet (the offset), two magnets (the protruding magnets at each end), or all five magnets?

NOTE: My question has been clarified with the help of chatgpt so I hope it makes sense. it certainly is more concise than my original question!
 
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  • #2
I may need to move this to classical physics. is that doable or will I be blocked due to duplicate content?
 
  • #3
There is too much critical orientation and spacing detail missing.
I think we need a sketch or diagram of the arrangement.

Why are you doing this? Are you making a magnetic clamp or chuck?
 
  • #4
No its not for a clamp or any other "realisable" device at this point in time, however a linear manually operated rail gun is the best way to describe its motion. One row of magnets is fixed. when the other row is pulled back and released the magnets quickly try to align themselves resulting in them acelerating forward to collide with a projectile which is then shot forward. I have played with other versions of this using steel balls accelerating towards magnet which fires a steel ball into the next one resulting in a large increase in velocity.

So while playing with that I thought of a "slingshot" or rail gun style of the same thing but could not work out whether it would have the acceleration or whether it would not be very strong.

So at this point its just a mind exercise. One that has me a little stumped.

Hopefully the image helps show whats in my head. the only allowed movement is along the direction of the large red arrow parallel to the magnets, separation of the magnets is as close as physically practical with a small mostly woodworking workshop. so yeah tolerances are not great.

To make it stronger, two rows of fixed magnets could be employed but for the purposes of understanding whats going on its unnecessary.
railmagnet.png
 
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FAQ: Magnetic Force in Parallel Magnet Setup: Exploring the Strength of Attraction

What is the basic principle behind magnetic force in parallel magnet setups?

The basic principle behind magnetic force in parallel magnet setups is that magnets generate magnetic fields, and when they are aligned in parallel, their fields interact. Depending on the orientation of the poles (like poles repel, unlike poles attract), the magnets will either attract or repel each other. The strength of this force is determined by the distance between the magnets, their magnetic field strength, and the medium in which they are placed.

How can the strength of attraction between parallel magnets be measured?

The strength of attraction between parallel magnets can be measured using a force sensor or a spring scale. By placing the magnets in a controlled setup where they can move freely towards each other, the force sensor can measure the pull between them. Additionally, mathematical models and equations, such as Coulomb's law for magnetism, can be used to calculate the theoretical force based on the magnets' properties and distance apart.

What factors influence the strength of attraction in parallel magnet setups?

Several factors influence the strength of attraction in parallel magnet setups, including the strength of the magnets (often measured in Gauss or Tesla), the distance between the magnets, the alignment of their poles, and the medium in which they are placed (air, vacuum, or another material). The temperature can also affect the magnetic properties and thus the force of attraction.

Can the attraction force between parallel magnets be increased, and if so, how?

Yes, the attraction force between parallel magnets can be increased. This can be achieved by using stronger magnets, decreasing the distance between the magnets, aligning the magnets more precisely to ensure maximum pole interaction, and placing the magnets in a medium that does not interfere with the magnetic field (such as a vacuum). Additionally, stacking multiple magnets together can increase the overall magnetic field strength and thus the attraction force.

What are some practical applications of parallel magnet setups with strong attraction forces?

Parallel magnet setups with strong attraction forces have several practical applications, including magnetic levitation in maglev trains, magnetic bearings in various machinery, magnetic clamps and holders in manufacturing and assembly processes, and in medical devices for targeted drug delivery. They are also used in scientific research for experiments requiring precise control of magnetic fields and forces.

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